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| author | root | 2014-06-19 12:21:24 +0200 |
|---|---|---|
| committer | root | 2014-06-19 12:21:24 +0200 |
| commit | 1b54f67fb2bc065c9e9dbb66d1e00e407d30456d (patch) | |
| tree | 8f873c8bb00e6cc520cd07c943eab5680f08d747 | |
| parent | a3e435a558392908a3c91f796042668fa10bb33f (diff) | |
| download | scilab_cloud_interface-1b54f67fb2bc065c9e9dbb66d1e00e407d30456d.tar.gz scilab_cloud_interface-1b54f67fb2bc065c9e9dbb66d1e00e407d30456d.tar.bz2 scilab_cloud_interface-1b54f67fb2bc065c9e9dbb66d1e00e407d30456d.zip | |
started propoer github maintainence
43 files changed, 4002 insertions, 32306 deletions
diff --git a/.all_results.csv.swp b/.all_results.csv.swp Binary files differdeleted file mode 100755 index 37fb5c4..0000000 --- a/.all_results.csv.swp +++ /dev/null diff --git a/acknowledge.js b/acknowledge.js new file mode 100755 index 0000000..fb2398d --- /dev/null +++ b/acknowledge.js @@ -0,0 +1,47 @@ +$(document).ready(function() { + $categories = $("#categories"); + $books = $("#books"); + $chapter = $("#chapter"); + $example = $("#example"); + $acknowledge = $("#acknowledge"); + + $books.live("change", function() { + var book_id = $(this).val(); + $.ajax({ + url: "acknowledge.php", + type: "POST", + data: { + book_id: book_id + }, + dataType: "html", + success: function(data) { + $acknowledge.html(data); + $("#contrib").show(); + $("#book-download").show(); + } + }); + }); + $chapter.live("change", function() { + $("#chapter-download").show(); + }); + $example.live("change", function() { + $("#example-download").show(); + }); + $categories.change(function() { + $("#contrib").hide(); + $("#book-download").hide(); + $("#chapter-download").hide(); + $("#example-download").hide(); + }); + + /* book, chapter and example download */ + $("#book-download").live("click", function() { + window.location = "http://scilab.in/download/book/" + $("#books").val(); + }); + $("#chapter-download").live("click", function() { + window.location = "http://scilab.in/download/chapter/" + $("#chapter").val(); + }); + $("#example-download").live("click", function() { + window.location = "http://scilab.in/download/example/" + $("#example").val(); + }); +}); diff --git a/acknowledge.php b/acknowledge.php new file mode 100755 index 0000000..c4fcddb --- /dev/null +++ b/acknowledge.php @@ -0,0 +1,27 @@ +<?php + require_once('db-connect.php'); + $book_id = $_POST['book_id']; + $output = ""; + + $query = "select * from textbook_companion_preference where id = {$book_id}"; + $result = mysql_query($query); + if (!$result) { + echo 'Could not run query: ' . mysql_error(); + exit; + } + $preference =mysql_fetch_array($result); + + $query = "select * from textbook_companion_proposal where id = {$preference['proposal_id']}"; + $result = mysql_query($query); + if (!$result) { + echo 'Could not run query: ' . mysql_error(); + exit; + } + $proposal = mysql_fetch_array($result); + + $output .= "<div class='contributor'><b>Contributor:</b> {$proposal['full_name']} </div>"; + $output .= "<div class='teacher'><b>Mentor:</b> {$proposal['faculty']} </div>"; + $output .= "<div class='reviewer'><b>Book Reviewer:</b> {$proposal['reviewer']} </div>"; + $output .= "<div class='download'><b>College Name:</b> {$proposal['university']} </div>"; + echo $output; +?> diff --git a/all_results.csv b/all_results.csv deleted file mode 100755 index eea46ca..0000000 --- a/all_results.csv +++ /dev/null @@ -1,31623 +0,0 @@ -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);10;1. magnetic circuit;1;1. current;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);10;1. magnetic circuit;2;2. fluxdensity;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);10;1. magnetic circuit;3;3. airgapflux;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);10;1. magnetic circuit;4;4. magneticflux;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);10;1. magnetic circuit;5;5. fluxvoltage;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);10;1. magnetic circuit;6;6. dimensions;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);11;2. TRANSFORMERS;1;1. powertaken;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);11;2. TRANSFORMERS;2;2. parameters;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);11;2. TRANSFORMERS;3;3. voltageregulation;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);11;2. TRANSFORMERS;4;4. efficiency;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);11;2. TRANSFORMERS;5;5. efficiency;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);11;2. TRANSFORMERS;6;6. kvarating;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);11;2. TRANSFORMERS;7;7. volcurregulation;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/10/CH7/EX7/: PATH DOES NOT EXIST -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);11;2. TRANSFORMERS;8;8. supplyvoltage;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/10/CH8/EX8/: PATH DOES NOT EXIST -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);11;2. TRANSFORMERS;9;9. impedances;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/10/CH9/EX9/: PATH DOES NOT EXIST -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);12;3. ELECTROMECHNICAL ENERGY CONVERSION;1;1. fieldenergy;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);12;3. ELECTROMECHNICAL ENERGY CONVERSION;2;2. mechanicalforce;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);12;3. ELECTROMECHNICAL ENERGY CONVERSION;3;3. liftingforce;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);13;4. DC MACHINES;1.b;1.b. torque;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/10/CH1/EX1.b/: PATH DOES NOT EXIST -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);13;4. DC MACHINES;10;10. speedtorque;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/10/CH10/EX10/: PATH DOES NOT EXIST -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);13;4. DC MACHINES;11;11. firingangle;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/10/CH11/EX11/: PATH DOES NOT EXIST -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);13;4. DC MACHINES;12;12. speedcontrol;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/10/CH12/EX12/: PATH DOES NOT EXIST -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);13;4. DC MACHINES;2;2. terminalvoltage;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);13;4. DC MACHINES;3;3. fieldcurrent;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);13;4. DC MACHINES;4;4. fullloadvoltage;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);13;4. DC MACHINES;5;5. seriesturns;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);13;4. DC MACHINES;6;6. resistance;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);13;4. DC MACHINES;7;7. ampereturns;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/10/CH7/EX7/: PATH DOES NOT EXIST -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);13;4. DC MACHINES;8;8. powerresistance;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/10/CH8/EX8/: PATH DOES NOT EXIST -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);13;4. DC MACHINES;9;9. startingcurrent;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/10/CH9/EX9/: PATH DOES NOT EXIST -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);14;5. INDUCTION(ASYNCHRONOUS) MACHINES;1;1. frequency;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);14;5. INDUCTION(ASYNCHRONOUS) MACHINES;10;10. parasitictorque;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/10/CH10/EX10/: PATH DOES NOT EXIST -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);14;5. INDUCTION(ASYNCHRONOUS) MACHINES;11;11. voltage;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/10/CH11/EX11/: PATH DOES NOT EXIST -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);14;5. INDUCTION(ASYNCHRONOUS) MACHINES;2;2. powerloss;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);14;5. INDUCTION(ASYNCHRONOUS) MACHINES;3;3. parameters;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);14;5. INDUCTION(ASYNCHRONOUS) MACHINES;4;4. sliptorque;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);14;5. INDUCTION(ASYNCHRONOUS) MACHINES;5;5. resistance;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);14;5. INDUCTION(ASYNCHRONOUS) MACHINES;6;6. startingtorque;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);14;5. INDUCTION(ASYNCHRONOUS) MACHINES;7;7. speedpower;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/10/CH7/EX7/: PATH DOES NOT EXIST -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);15;6. SYNCHRONOUS MACHINES;1;1. powerfactor;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);15;6. SYNCHRONOUS MACHINES;2;2. unsaturatedvalues;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);15;6. SYNCHRONOUS MACHINES;3;3. excitationvoltage;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);15;6. SYNCHRONOUS MACHINES;4;4. powerangle;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);15;6. SYNCHRONOUS MACHINES;5;5. fieldcurrent;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);15;6. SYNCHRONOUS MACHINES;6;6. statorcurrent;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);15;6. SYNCHRONOUS MACHINES;7;7. powercurrent;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/10/CH7/EX7/: PATH DOES NOT EXIST -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);16;7. SINGLE PHASE MOTORS;2;2. ouputpower;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);16;7. SINGLE PHASE MOTORS;4;4. externalresistance;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);16;7. SINGLE PHASE MOTORS;5;5. maximumtorque;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);16;7. SINGLE PHASE MOTORS;6;6. torquedev;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);17;8. SPECIAL MACHINES;1;1. shaftposition;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);17;8. SPECIAL MACHINES;3;3. maximumvoltage;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);17;8. SPECIAL MACHINES;4;4. inductionenergy;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);18;9. TRANSIENTS AND DYNAMICS;1;1. armaturevoltage;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);18;9. TRANSIENTS AND DYNAMICS;3;3. maximumcurrent;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);19;10. POWER SEMICONDUCTOR CONVERTERS;1;1. firingangle;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);19;10. POWER SEMICONDUCTOR CONVERTERS;2;2. ouputvoltage;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);19;10. POWER SEMICONDUCTOR CONVERTERS;3;3. powerfactor;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);19;10. POWER SEMICONDUCTOR CONVERTERS;4;4. controlfiringangle;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);19;10. POWER SEMICONDUCTOR CONVERTERS;5;5. supplypower;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);19;10. POWER SEMICONDUCTOR CONVERTERS;6;6. outputpower;correct;runtime; -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);19;10. POWER SEMICONDUCTOR CONVERTERS;7;7. phasevoltage;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/10/CH7/EX7/: PATH DOES NOT EXIST -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);19;10. POWER SEMICONDUCTOR CONVERTERS;8;8. angleshift;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/10/CH8/EX8/: PATH DOES NOT EXIST -10;Principles Of Electric Machines And Power Electronics(P. C. Sen);19;10. POWER SEMICONDUCTOR CONVERTERS;9;9. outputcurrent;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/10/CH9/EX9/: PATH DOES NOT EXIST -14;Elements Of Power System Analysis(W. D. Stevenson);20;2. Basic Concepts;1;1. problem on power;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/14/CH1/EX1/: PATH DOES NOT EXIST -14;Elements Of Power System Analysis(W. D. Stevenson);20;2. Basic Concepts;2;2. Phase;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);20;2. Basic Concepts;2.1;2.1. ProbOnPwr;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);20;2. Basic Concepts;2.2;2.2. PhaseProb;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);20;2. Basic Concepts;2.3;2.3. SubstationBus;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);20;2. Basic Concepts;2.4;2.4. Ex3inPerUnit;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);20;2. Basic Concepts;2.5;2.5. PerUnit;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);20;2. Basic Concepts;3;3. Substation Bus;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/14/CH3/EX3/: PATH DOES NOT EXIST -14;Elements Of Power System Analysis(W. D. Stevenson);20;2. Basic Concepts;4;4. example 3 in per unit;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/14/CH4/EX4/: PATH DOES NOT EXIST -14;Elements Of Power System Analysis(W. D. Stevenson);20;2. Basic Concepts;5;5. Per Unit;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/14/CH5/EX5/: PATH DOES NOT EXIST -14;Elements Of Power System Analysis(W. D. Stevenson);376;3. Series Impedance Of Transmission Lines;3.1;3.1. Resistance;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);376;3. Series Impedance Of Transmission Lines;3.2;3.2. singlephaseinductance;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);376;3. Series Impedance Of Transmission Lines;3.3;3.3. Partridge;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);376;3. Series Impedance Of Transmission Lines;3.4;3.4. Inductanceof3phaseline;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);376;3. Series Impedance Of Transmission Lines;3.5;3.5. BundledConductors;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);376;3. Series Impedance Of Transmission Lines;3.6;3.6. ParallelCircuit;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);435;4. Capacitance Of Transmission Lines;4.1;4.1. capacitivesusceptance;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);435;4. Capacitance Of Transmission Lines;4.2;4.2. ChargingMVA;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);435;4. Capacitance Of Transmission Lines;4.3;4.3. chap3ex5;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);435;4. Capacitance Of Transmission Lines;4.4;4.4. chap3ex6;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);640;5. Current And Voltage Relations On A Transmission Line;5.1;5.1. Velocity;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);640;5. Current And Voltage Relations On A Transmission Line;5.2;5.2. example1inpu;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);640;5. Current And Voltage Relations On A Transmission Line;5.3;5.3. equivalentpicircuit;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);640;5. Current And Voltage Relations On A Transmission Line;5.4;5.4. compensation;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);640;5. Current And Voltage Relations On A Transmission Line;5.5;5.5. voltageregulation;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);640;5. Current And Voltage Relations On A Transmission Line;5.6;5.6. reflection;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);652;6. System Modelling;6.1;6.1. Secondary;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);652;6. System Modelling;6.10;6.10. impedance;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);652;6. System Modelling;6.11;6.11. terminalvoltage;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);652;6. System Modelling;6.2;6.2. voltageregulation;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);652;6. System Modelling;6.3;6.3. autotransformer;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);652;6. System Modelling;6.4;6.4. leakagereactance;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);652;6. System Modelling;6.5;6.5. ABCtransformer;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);652;6. System Modelling;6.6;6.6. 3phasetransformers;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);652;6. System Modelling;6.7;6.7. 3perunitreactance;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);652;6. System Modelling;6.8;6.8. 3windingtransformer;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);652;6. System Modelling;6.9;6.9. 3winding3ex8;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);824;7. Network Calculations;7.1;7.1. busadmittancematrix;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);824;7. Network Calculations;7.2;7.2. solvingBAM;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);824;7. Network Calculations;7.3;7.3. matrixpartition;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);824;7. Network Calculations;7.4;7.4. matrixmanipulation;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);824;7. Network Calculations;7.5;7.5. introcapacitor;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);824;7. Network Calculations;7.6;7.6. currentinjection;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);824;7. Network Calculations;7.7;7.7. matrixmodification;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);824;7. Network Calculations;7.8;7.8. directZbus;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);824;7. Network Calculations;7.9;7.9. impedacedetermination;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);895;8. Load Flow Solutions And Control;8.1;8.1. NewtonRaphson;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);895;8. Load Flow Solutions And Control;8.2;8.2. Thevnin;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);895;8. Load Flow Solutions And Control;8.3;8.3. TranformerControl;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);895;8. Load Flow Solutions And Control;8.4;8.4. Tapchange;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);917;9. Economic Operation Of Power Systems;9.1;9.1. loaddistribution;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);917;9. Economic Operation Of Power Systems;9.2;9.2. integrate;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);917;9. Economic Operation Of Power Systems;9.3;9.3. losscoeff;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);917;9. Economic Operation Of Power Systems;9.4;9.4. loss;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);917;9. Economic Operation Of Power Systems;9.5;9.5. generation;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);917;9. Economic Operation Of Power Systems;9.6;9.6. savings;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);912;10. Symmetrical Three Phase Faults;10.1;10.1. unloadedfault;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);912;10. Symmetrical Three Phase Faults;10.2;10.2. loadedfault;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);912;10. Symmetrical Three Phase Faults;10.3;10.3. thevninloadedfault;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);912;10. Symmetrical Three Phase Faults;10.4;10.4. faultthrubus;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);912;10. Symmetrical Three Phase Faults;10.5;10.5. breakerrating;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);653;11. Symmetrical Components;11.1;11.1. linecurrents;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);653;11. Symmetrical Components;11.2;11.2. sequence;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);653;11. Symmetrical Components;11.3;11.3. zeroimpedance;error;file_not_found;/var/www/scilab_in/uploads-backup/14/CH11/EX11.3/ : NO SCILAB FILE INSIDE -14;Elements Of Power System Analysis(W. D. Stevenson);653;11. Symmetrical Components;11.4;11.4. zerosequence;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);891;12. Unsymmetrical Faults;12.1;12.1. 1phasetogroundfault;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);891;12. Unsymmetrical Faults;12.2;12.2. linetolinefault;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);891;12. Unsymmetrical Faults;12.3;12.3. linetogroundfaultunloadedG;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);891;12. Unsymmetrical Faults;12.4;12.4. interconnected;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);891;12. Unsymmetrical Faults;12.5;12.5. busimpedancematrix;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);892;13. System Protection;13.1;13.1. Zones;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);892;13. System Protection;13.2;13.2. MaxMinI;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);892;13. System Protection;13.3;13.3. selection;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);892;13. System Protection;13.4;13.4. Zone;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);892;13. System Protection;13.5;13.5. transformer;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);928;14. Power System Stability;14.1;14.1. inertia;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);928;14. Power System Stability;14.10;14.10. postperiod;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);928;14. Power System Stability;14.11;14.11. stepbystep;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);928;14. Power System Stability;14.2;14.2. parallel;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);928;14. Power System Stability;14.3;14.3. infinitebus;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);928;14. Power System Stability;14.4;14.4. onfault;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);928;14. Power System Stability;14.5;14.5. postfault;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);928;14. Power System Stability;14.6;14.6. frequency;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);928;14. Power System Stability;14.7;14.7. ccangle;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);928;14. Power System Stability;14.8;14.8. deltamax;correct;runtime; -14;Elements Of Power System Analysis(W. D. Stevenson);928;14. Power System Stability;14.9;14.9. multimachine;correct;runtime; -20;Theory of Alternating Current Machinery(A. S. Langsdorf);266;1. Fundamental Principles of Transformer;1.13.28;1.13.28. To find the regulation of transformer;correct;runtime; -20;Theory of Alternating Current Machinery(A. S. Langsdorf);266;1. Fundamental Principles of Transformer;1.14.29;1.14.29. To find regulation by percent method;correct;runtime; -20;Theory of Alternating Current Machinery(A. S. Langsdorf);266;1. Fundamental Principles of Transformer;1.14.31;1.14.31. To find the per unit regulation;correct;runtime; -20;Theory of Alternating Current Machinery(A. S. Langsdorf);266;1. Fundamental Principles of Transformer;1.14.33;1.14.33. To find the load loss of transformer;correct;runtime; -20;Theory of Alternating Current Machinery(A. S. Langsdorf);266;1. Fundamental Principles of Transformer;1.16.37;1.16.37. To measure the core loss of transformer;correct;runtime; -20;Theory of Alternating Current Machinery(A. S. Langsdorf);266;1. Fundamental Principles of Transformer;1.17.41;1.17.41. To find the efficiency at different loads;correct;runtime; -20;Theory of Alternating Current Machinery(A. S. Langsdorf);266;1. Fundamental Principles of Transformer;1.6.14;1.6.14. To find secondary resistance and reactance;correct;runtime; -20;Theory of Alternating Current Machinery(A. S. Langsdorf);266;1. Fundamental Principles of Transformer;1.9.18;1.9.18. To find the secondary terminal voltage;correct;runtime; -20;Theory of Alternating Current Machinery(A. S. Langsdorf);398;2. Transformer Connections and Operation;2.22.111;2.22.111. Conductively and Inductively transferred power;correct;runtime; -20;Theory of Alternating Current Machinery(A. S. Langsdorf);398;2. Transformer Connections and Operation;2.29.130;2.29.130. Positive and negative sequence voltages;correct;runtime; -20;Theory of Alternating Current Machinery(A. S. Langsdorf);398;2. Transformer Connections and Operation;2.29.131;2.29.131. Positive Negative and Zero sequence voltages;correct;runtime; -20;Theory of Alternating Current Machinery(A. S. Langsdorf);398;2. Transformer Connections and Operation;2.3.69;2.3.69. To find primary voltage and current supplied;correct;runtime; -20;Theory of Alternating Current Machinery(A. S. Langsdorf);398;2. Transformer Connections and Operation;2.6.76;2.6.76. To find branch currents and voltages;correct;runtime; -20;Theory of Alternating Current Machinery(A. S. Langsdorf);399;3. Transformer structure Insulation Heating and Load Stresses;3.16.161;3.16.161. To find radial force due to current;correct;runtime; -20;Theory of Alternating Current Machinery(A. S. Langsdorf);400;10. The Synchronous Generator;10.10.413;10.10.413. Regulation by emf method;correct;runtime; -20;Theory of Alternating Current Machinery(A. S. Langsdorf);400;10. The Synchronous Generator;10.12.416;10.12.416. Regulation by mmf method;correct;runtime; -20;Theory of Alternating Current Machinery(A. S. Langsdorf);400;10. The Synchronous Generator;10.9.407;10.9.407. To find the field excitation required;correct;runtime; -20;Theory of Alternating Current Machinery(A. S. Langsdorf);401;16. The Mercury Arc Rectifier;16.9.617;16.9.617. Effect of phase control;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);136;1. signals and systems;1.10;1.10. input output equation;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);136;1. signals and systems;1.2;1.2. power and rms value;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);136;1. signals and systems;1.3;1.3. time shifting;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);136;1. signals and systems;1.4;1.4. time scaling;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);136;1. signals and systems;1.5;1.5. time reversal;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);136;1. signals and systems;1.6;1.6. basic signal models;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);136;1. signals and systems;1.7;1.7. describing a signal in a single expression;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);136;1. signals and systems;1.8;1.8. even and odd components of a signal;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);168;2. time domain analysis of continuous time systems;2.5;2.5. unit impulse response for an LTIC system;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);168;2. time domain analysis of continuous time systems;2.6;2.6. zero state response;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);168;2. time domain analysis of continuous time systems;2.7;2.7. graphical convolution;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);168;2. time domain analysis of continuous time systems;2.8;2.8. graphical convolution;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);168;2. time domain analysis of continuous time systems;2.9;2.9. graphical convolution;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);138;3. time domain analysis of discrete time systems;3.1;3.1. energy and power of a signal;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);138;3. time domain analysis of discrete time systems;3.10;3.10. total response with given initial conditions;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);138;3. time domain analysis of discrete time systems;3.11;3.11. iterative determination of unit impulse response;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);138;3. time domain analysis of discrete time systems;3.13;3.13. convolution of discrete signals;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);138;3. time domain analysis of discrete time systems;3.14;3.14. convolution of discrete signals;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);138;3. time domain analysis of discrete time systems;3.16;3.16. sliding tape method of convolution;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);138;3. time domain analysis of discrete time systems;3.17;3.17. total response with given initial conditions;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);138;3. time domain analysis of discrete time systems;3.18;3.18. total response with given initial conditions;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);138;3. time domain analysis of discrete time systems;3.19;3.19. forced response;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);138;3. time domain analysis of discrete time systems;3.20;3.20. forced response;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);138;3. time domain analysis of discrete time systems;3.8;3.8. iterative solution;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);138;3. time domain analysis of discrete time systems;3.9;3.9. iterative solution;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.1;4.1. laplace transform of exponential signal;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.10;4.10. second order linear differential equation;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.11;4.11. solution to ode using laplace transform;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.12;4.12. response to LTIC system;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.15;4.15. loop current in a given network;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.16;4.16. loop current in a given network;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.17;4.17. voltage and current of a given network;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.2;4.2. laplace transform of given fsignal;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.23;4.23. frequency response of a given system;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.24;4.24. frequency response of a given system;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.25;4.25. bode plots for given transfer function;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.26;4.26. bode plots for given transfer function;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.27;4.27. second order notch filter to suppress 60Hz hum;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.28;4.28. bilateral inverse transform;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.29;4.29. current for a given RC network;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.3.a;4.3.a. laplace transform in case of different roots;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.3.b;4.3.b. laplace transform in case of similar roots;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.3.c;4.3.c. laplace transform in case of imaginary roots;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.30;4.30. response of a noncausal sytem;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.31;4.31. response of a fn with given tf;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.4;4.4. laplace transform of a given signal;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.5;4.5. inverse laplace transform;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.8;4.8. time convolution property;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);146;4. continuous time system analysis;4.9;4.9. initial and final value;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);147;5. discrete time system analysis using the z transform;5.1;5.1. z transform of a given signal;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);147;5. discrete time system analysis using the z transform;5.10;5.10. response of an LTID system using difference eq;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);147;5. discrete time system analysis using the z transform;5.12;5.12. maximum sampling timeinterval;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);147;5. discrete time system analysis using the z transform;5.13;5.13. discrete time amplifier highest frequency;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);147;5. discrete time system analysis using the z transform;5.17;5.17. bilateral z transfrom;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);147;5. discrete time system analysis using the z transform;5.18;5.18. bilateral inverse z transform;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);147;5. discrete time system analysis using the z transform;5.19;5.19. transfer function for a causal system;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);147;5. discrete time system analysis using the z transform;5.2;5.2. z transform of a given signal;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);147;5. discrete time system analysis using the z transform;5.20;5.20. zero state response for a given input;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);147;5. discrete time system analysis using the z transform;5.3.a;5.3.a. z transform of a given signal with different roots;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);147;5. discrete time system analysis using the z transform;5.3.c;5.3.c. z transform of a given signal with imaginary roots;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);147;5. discrete time system analysis using the z transform;5.5;5.5. solution to differential equation;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);147;5. discrete time system analysis using the z transform;5.6;5.6. response of an LTID system using difference eq;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);169;6. continuous time signal analysis the fourier series;6.1;6.1. fourier coefficients of a periodic sequence;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);169;6. continuous time signal analysis the fourier series;6.2;6.2. fourier coefficients of a periodic sequence;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);169;6. continuous time signal analysis the fourier series;6.3;6.3. fourier spectra of a signal;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -22;Principles Of Linear Systems And Signals(B. P. Lathi);169;6. continuous time signal analysis the fourier series;6.5;6.5. exponential fourier series;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);169;6. continuous time signal analysis the fourier series;6.7;6.7. exponential fourier series for the impulse train;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);169;6. continuous time signal analysis the fourier series;6.9;6.9. exponential fourier series to find the output;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);170;7. continuous time signal analysis the fourier transform;7.1;7.1. fourier transform of exponential function;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);170;7. continuous time signal analysis the fourier transform;7.12;7.12. fourier transform of exponential function;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);170;7. continuous time signal analysis the fourier transform;7.4;7.4. inverse fourier transform;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);170;7. continuous time signal analysis the fourier transform;7.5;7.5. inverse fourier transform;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);170;7. continuous time signal analysis the fourier transform;7.6;7.6. fourier transform for everlasting sinusoid;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);170;7. continuous time signal analysis the fourier transform;7.7;7.7. fourier transform of a periodic signal;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);170;7. continuous time signal analysis the fourier transform;7.8;7.8. fourier transform of a unit impulse train;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);170;7. continuous time signal analysis the fourier transform;7.9;7.9. fourier transform of unit step function;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);122;8. Sampling The bridge from continuous to discrete;8.10;8.10. frequency response of a low pass filter;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);122;8. Sampling The bridge from continuous to discrete;8.8;8.8. discrete fourier transform;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);122;8. Sampling The bridge from continuous to discrete;8.9;8.9. discrete fourier transform;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);142;9. fourier analysis of discrete time signals;9.1;9.1. discrete time fourier series;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);142;9. fourier analysis of discrete time signals;9.10.a;9.10.a. sketching the spectrum for a modulated signal;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);142;9. fourier analysis of discrete time signals;9.13;9.13. frequency response of LTID;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);142;9. fourier analysis of discrete time signals;9.2;9.2. DTFT for periodic sampled gate function;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);142;9. fourier analysis of discrete time signals;9.3;9.3. discrete time fourier series;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);142;9. fourier analysis of discrete time signals;9.4;9.4. discrete time fourier series;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);142;9. fourier analysis of discrete time signals;9.5;9.5. DTFT for rectangular pulse;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);142;9. fourier analysis of discrete time signals;9.6;9.6. DTFT for rectangular pulse spectrum;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);142;9. fourier analysis of discrete time signals;9.9;9.9. DTFT of sinc function;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);143;10. state space analysis;10.10;10.10. diagonalized form of state equation;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);143;10. state space analysis;10.11;10.11. controllability and observability;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);143;10. state space analysis;10.12;10.12. state space description of a given description;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);143;10. state space analysis;10.13;10.13. total response using z transform;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);143;10. state space analysis;10.4;10.4. state space descrption by transfer function;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);143;10. state space analysis;10.5;10.5. finding the state vector;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);143;10. state space analysis;10.6;10.6. state space descrption by transfer function;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);143;10. state space analysis;10.7;10.7. time domain method;correct;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);143;10. state space analysis;10.8;10.8. state space descrption by transfer function;error;runtime; -22;Principles Of Linear Systems And Signals(B. P. Lathi);143;10. state space analysis;10.9;10.9. state equations of a given systems;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);150;1. Introduction;1.1;1.1. Find the Astronaut Mass and Weight on moon;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);150;1. Introduction;1.2;1.2. Find Gauge Pressure and absolute Pressure;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);150;1. Introduction;1.3;1.3. Find Pressure in a Manometer;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);150;1. Introduction;1.4;1.4. Find the velocity and Energy;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);151;2. The First Law And Other Basic Concepts;2.1;2.1. Find Energy in a Waterfall;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);151;2. The First Law And Other Basic Concepts;2.10;2.10. Find change in Internal Energy and Enthalpy;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);151;2. The First Law And Other Basic Concepts;2.13;2.13. Find the time for a certain Temperature Drop;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);151;2. The First Law And Other Basic Concepts;2.14;2.14. Find the Enthalpy of Steam;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);151;2. The First Law And Other Basic Concepts;2.15;2.15. Find the Heat to be Removed during Compression;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);151;2. The First Law And Other Basic Concepts;2.16;2.16. Find the Heat to be Removed during Compression;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);151;2. The First Law And Other Basic Concepts;2.3;2.3. Find the energy change in a System;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);151;2. The First Law And Other Basic Concepts;2.4;2.4. Find the Heat flow in the Path;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);151;2. The First Law And Other Basic Concepts;2.5;2.5. Find The degree of freedom for the various systems;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);151;2. The First Law And Other Basic Concepts;2.6;2.6. Find the work done by gas;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);151;2. The First Law And Other Basic Concepts;2.7;2.7. Find the Enegy Changes in the Process;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);151;2. The First Law And Other Basic Concepts;2.8;2.8. Find Change in Enthalpy and Internal Energy;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);151;2. The First Law And Other Basic Concepts;2.9;2.9. Find Work Heat del U and del H;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);152;3. Volumetric Properties Of Pure Fluids;3.1;3.1. Find Volume Change and Pressure generated;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);152;3. Volumetric Properties Of Pure Fluids;3.10;3.10. Find Pressure generated for methane;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);152;3. Volumetric Properties Of Pure Fluids;3.11;3.11. Find Pressure generated for ammonia;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);152;3. Volumetric Properties Of Pure Fluids;3.12;3.12. Find density for ammonia;error;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);152;3. Volumetric Properties Of Pure Fluids;3.2;3.2. Find Work Heat del H del H;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);152;3. Volumetric Properties Of Pure Fluids;3.3;3.3. Find W Q del U and del H for the Figure;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);152;3. Volumetric Properties Of Pure Fluids;3.4;3.4. Find Q W del U and del H in a PV Diagram;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);152;3. Volumetric Properties Of Pure Fluids;3.6;3.6. Find Change in KE and Temperature;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);152;3. Volumetric Properties Of Pure Fluids;3.7;3.7. Find V and Z for isopropyl vapor;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);152;3. Volumetric Properties Of Pure Fluids;3.8;3.8. Find Molar Volume of nButane;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);152;3. Volumetric Properties Of Pure Fluids;3.9;3.9. Find Molar Volume of n Butane by Various Eqn;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);153;4. Heat Effects;4.2;4.2. Find Heat Required to Heat Methane gas;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);153;4. Heat Effects;4.3;4.3. Find the Final Temperature with Heat Given;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);153;4. Heat Effects;4.4;4.4. Find the Latent Heat;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);153;4. Heat Effects;4.5;4.5. Find the Standard Heat at 298K;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);153;4. Heat Effects;4.6;4.6. Find the Standard Heat of Methanol Synthesis;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);153;4. Heat Effects;4.7;4.7. Find Max Temperature reached in Combustion of CH4;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);153;4. Heat Effects;4.8;4.8. Find the Heat Requirement for the Reactor;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);154;5. The Second Law Of Thermodynamics;5.1;5.1. Find the Heat discarded to the River;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);154;5. The Second Law Of Thermodynamics;5.3;5.3. Find the Final Temperature;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);154;5. The Second Law Of Thermodynamics;5.4;5.4. Find the change in entropy in a steel Casing;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);154;5. The Second Law Of Thermodynamics;5.5;5.5. Find the Rate of Heat Transfer and Entropy;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);154;5. The Second Law Of Thermodynamics;5.6;5.6. Find the Feasibility of a Process;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);154;5. The Second Law Of Thermodynamics;5.7;5.7. Find the Maximum Work obtained;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);154;5. The Second Law Of Thermodynamics;5.8;5.8. Find the Maximum Possible Work for Ideal Condition;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);154;5. The Second Law Of Thermodynamics;5.9;5.9. Find the Lost Work in Heat Exchangers;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);155;6. Thermodynamic Properties Of Fluids;6.1;6.1. Find the Changes in enthalpy and entropy;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);155;6. Thermodynamic Properties Of Fluids;6.3;6.3. find Entropy and Enthalpy of Saturated isobutane;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);155;6. Thermodynamic Properties Of Fluids;6.4;6.4. Find the Residual Enthalpy and Residual Entropy;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);155;6. Thermodynamic Properties Of Fluids;6.6;6.6. Find the State of Steam at the Exit Nozzle;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);155;6. Thermodynamic Properties Of Fluids;6.7;6.7. Find how much Energy must be Transferred;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);155;6. Thermodynamic Properties Of Fluids;6.8;6.8. Find V U S and H fo 1 butene;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);155;6. Thermodynamic Properties Of Fluids;6.9;6.9. Find Residual Enthalpy and Entropy and V;error;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);156;7. Applications Of Thermodynamics To Flow Process;7.10;7.10. Find Work Temperature Change and Entropy Change;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);156;7. Applications Of Thermodynamics To Flow Process;7.2;7.2. Find the Ratio of Area in a Nozzle;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);156;7. Applications Of Thermodynamics To Flow Process;7.3;7.3. Find Critical Pressure and Discharge Pressure;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);156;7. Applications Of Thermodynamics To Flow Process;7.4;7.4. Find the final Temperature and its Entropy change;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);156;7. Applications Of Thermodynamics To Flow Process;7.6;7.6. Find the state of Steam at Discharge and Mass Rate;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);156;7. Applications Of Thermodynamics To Flow Process;7.7;7.7. Find the isentropic Work Produced;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);156;7. Applications Of Thermodynamics To Flow Process;7.8;7.8. Find the Work Required and Properties of Steam;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);156;7. Applications Of Thermodynamics To Flow Process;7.9;7.9. Find Work Reqiured and Discharge Temperature;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);157;8. Production Of Power From Heat;8.1;8.1. Find the Thermal efficiency in a Steam Turbine;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);157;8. Production Of Power From Heat;8.4;8.4. Find the Efficiency in a Gas Turbine;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);158;9. Refrigerator And Liquifaction;9.1;9.1. Find the COP of a Refrigerator;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);158;9. Refrigerator And Liquifaction;9.2;9.2. Find Power Requirement For Various seasons;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);158;9. Refrigerator And Liquifaction;9.3;9.3. Find the Temperature of the High Pressure steam;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);159;10. Vapor Liquid Equillibrium Introduction;10.1;10.1. Plot the Graphs of P vs x1 y1 and t vs x1 y1;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);159;10. Vapor Liquid Equillibrium Introduction;10.2;10.2. Find the Composition of the vapor and Liquid phase;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);159;10. Vapor Liquid Equillibrium Introduction;10.3;10.3. Find Pressure Temperature and Composition;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);159;10. Vapor Liquid Equillibrium Introduction;10.4;10.4. Find the Dewpoint and Bubblepoint Pressure;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);159;10. Vapor Liquid Equillibrium Introduction;10.5;10.5. Find L V xi and yi for a System;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);159;10. Vapor Liquid Equillibrium Introduction;10.6;10.6. Find the Composition of Vapor and Liquid Phases;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);160;11. Solution Thermodynamics Theroy;11.10;11.10. Find the Excess Properties for a mixture;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);160;11. Solution Thermodynamics Theroy;11.4;11.4. Find the Expression For Enthalpies;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);160;11. Solution Thermodynamics Theroy;11.5;11.5. Plot the Fugacity and Fugacity Coefficient Vs P;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);160;11. Solution Thermodynamics Theroy;11.7;11.7. Find the Fugacity Coefficient for the mixture;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);160;11. Solution Thermodynamics Theroy;11.8;11.8. Find the Fugacity of 1 butene vapor;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);160;11. Solution Thermodynamics Theroy;11.9;11.9. Find the Fugacity Coefficients for mixture;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);161;12. Solution Thermodynamics Applications;12.1;12.1. Reduce the set of VLE Data and Plot the Graphs;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);161;12. Solution Thermodynamics Applications;12.2;12.2. Find the Excess Enthalpy as function of x1;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);161;12. Solution Thermodynamics Applications;12.4;12.4. Find the Heat of Formation of LiCl;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);161;12. Solution Thermodynamics Applications;12.5;12.5. Calculate the Heat transfer rate in th evaporator;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);161;12. Solution Thermodynamics Applications;12.6;12.6. Calculate Heat Transfer Rate in a evaporator;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);161;12. Solution Thermodynamics Applications;12.9;12.9. Calculate the Heat Transformed per Kg of Solution;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);162;13. Chemical Reaction Equilibria;13.1;13.1. Determine the Expressions for mole Fractions yi;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);162;13. Chemical Reaction Equilibria;13.12;13.12. Find the Product Composition for Two Reactions;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);162;13. Chemical Reaction Equilibria;13.13;13.13. Find the Composition at different Temperatures;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);162;13. Chemical Reaction Equilibria;13.3;13.3. Determine the Expression for yi for two reactions;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);162;13. Chemical Reaction Equilibria;13.4;13.4. Find the equillibrium constant for Vapor Phase;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);162;13. Chemical Reaction Equilibria;13.4.a;13.4.a. Alternate Program to 13 iv;error;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);162;13. Chemical Reaction Equilibria;13.5;13.5. Calculate the Fraction of Heat Reacted;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);162;13. Chemical Reaction Equilibria;13.6;13.6. Find the Maximum Conversion of Ethylene to ethanol;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);162;13. Chemical Reaction Equilibria;13.7;13.7. Find the Composition of Product Steam;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);162;13. Chemical Reaction Equilibria;13.8;13.8. Find the Mole fraction of Ethyl Acetate;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);162;13. Chemical Reaction Equilibria;13.9;13.9. Determine Composition and Temperature of Steam;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);163;14. Topics In Phase Equilibria;14.1;14.1. Find the Fugacity Coefficients of N2 and CH4;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);163;14. Topics In Phase Equilibria;14.10;14.10. Illustrate the Concepts of Pure Gas Adsorption;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);163;14. Topics In Phase Equilibria;14.5;14.5. Derive the equations from LLE data;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);163;14. Topics In Phase Equilibria;14.8;14.8. Determine the Phase equlibrium data for the System;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);163;14. Topics In Phase Equilibria;14.9;14.9. Prepare a Table of Temperature and Compostion Data;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);164;15. Thermodynamic Analysis Of Process;15.1;15.1. Do a Thermodynamic Analysis of Steam Power Plant;correct;runtime; -23;Introduction To Chemical Engineering Thermodynamics(J. M. Smith, H. C. Van Ness And M. M. Abbott);164;15. Thermodynamic Analysis Of Process;15.2;15.2. Prepare a Thermodynamic Analysis of Linde System;correct;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);671;1. Measurement;1.1;1.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);671;1. Measurement;1.2;1.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);671;1. Measurement;1.3;1.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);671;1. Measurement;1.4;1.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);672;2. Motion Along a Straight Line;2.1.a;2.1.a. Sample Problem 1a;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);672;2. Motion Along a Straight Line;2.1.b;2.1.b. Sample Problem 1b;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);672;2. Motion Along a Straight Line;2.1.c;2.1.c. Sample Problem 1c;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);672;2. Motion Along a Straight Line;2.1.d;2.1.d. Sample Problem 1d;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);672;2. Motion Along a Straight Line;2.2;2.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);672;2. Motion Along a Straight Line;2.3;2.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);672;2. Motion Along a Straight Line;2.4;2.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);672;2. Motion Along a Straight Line;2.5;2.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);672;2. Motion Along a Straight Line;2.6;2.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);672;2. Motion Along a Straight Line;2.7;2.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);673;3. Vectors;3.1;3.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);673;3. Vectors;3.2;3.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);673;3. Vectors;3.3;3.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);673;3. Vectors;3.4;3.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);673;3. Vectors;3.5;3.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);673;3. Vectors;3.6;3.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);673;3. Vectors;3.7;3.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);673;3. Vectors;3.8;3.8. Sample Problem 8;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);674;4. Motion in Two and Three Dimesions;4.1;4.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);674;4. Motion in Two and Three Dimesions;4.10;4.10. Sample Problem 10;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);674;4. Motion in Two and Three Dimesions;4.11;4.11. Sample Problem 11;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);674;4. Motion in Two and Three Dimesions;4.2.a;4.2.a. Sample Problem 2a;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);674;4. Motion in Two and Three Dimesions;4.2.b;4.2.b. Sample Problem 2b;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);674;4. Motion in Two and Three Dimesions;4.3;4.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);674;4. Motion in Two and Three Dimesions;4.4;4.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);674;4. Motion in Two and Three Dimesions;4.5;4.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);674;4. Motion in Two and Three Dimesions;4.6;4.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);674;4. Motion in Two and Three Dimesions;4.7;4.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);674;4. Motion in Two and Three Dimesions;4.8;4.8. Sample Problem 8;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);674;4. Motion in Two and Three Dimesions;4.9;4.9. Sample Problem 9;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);675;5. Force and Motion l;5.1;5.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);675;5. Force and Motion l;5.2;5.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);675;5. Force and Motion l;5.3;5.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);675;5. Force and Motion l;5.4;5.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);675;5. Force and Motion l;5.5;5.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);675;5. Force and Motion l;5.6;5.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);675;5. Force and Motion l;5.7;5.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);675;5. Force and Motion l;5.8;5.8. Sample Problem 8;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);675;5. Force and Motion l;5.9;5.9. Sample Problem 9;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);676;6. Force and Motion ll;6.1;6.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);676;6. Force and Motion ll;6.2;6.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);676;6. Force and Motion ll;6.3;6.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);676;6. Force and Motion ll;6.4;6.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);676;6. Force and Motion ll;6.5;6.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);676;6. Force and Motion ll;6.6;6.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);676;6. Force and Motion ll;6.7;6.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);676;6. Force and Motion ll;6.8;6.8. Sample Problem 8;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);676;6. Force and Motion ll;6.9;6.9. Sample Problem 9;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);677;7. Kinetic Energy and Work;7.1;7.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);677;7. Kinetic Energy and Work;7.10;7.10. Sample Problem 10;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);677;7. Kinetic Energy and Work;7.2;7.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);677;7. Kinetic Energy and Work;7.3;7.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);677;7. Kinetic Energy and Work;7.4;7.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);677;7. Kinetic Energy and Work;7.5;7.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);677;7. Kinetic Energy and Work;7.6;7.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);677;7. Kinetic Energy and Work;7.7;7.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);677;7. Kinetic Energy and Work;7.8;7.8. Sample Problem 8;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);677;7. Kinetic Energy and Work;7.9;7.9. Sample Problem 9;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);678;8. Potential and Conservation of Energy;8.1;8.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);678;8. Potential and Conservation of Energy;8.2;8.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);678;8. Potential and Conservation of Energy;8.3;8.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);678;8. Potential and Conservation of Energy;8.4;8.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);678;8. Potential and Conservation of Energy;8.5;8.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);678;8. Potential and Conservation of Energy;8.6;8.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);678;8. Potential and Conservation of Energy;8.7;8.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);678;8. Potential and Conservation of Energy;8.8;8.8. Sample Problem 8;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);679;9. System of Particles;9.1;9.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);679;9. System of Particles;9.2;9.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);679;9. System of Particles;9.3;9.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);679;9. System of Particles;9.4;9.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);679;9. System of Particles;9.5;9.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);679;9. System of Particles;9.6;9.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);679;9. System of Particles;9.7;9.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);679;9. System of Particles;9.8;9.8. Sample Problem 8;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);679;9. System of Particles;9.9;9.9. Sample Problem 9;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);682;10. Collisions;10.1;10.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);682;10. Collisions;10.2;10.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);682;10. Collisions;10.3;10.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);682;10. Collisions;10.4;10.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);682;10. Collisions;10.5;10.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);683;11. Rotation;11.1;11.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);683;11. Rotation;11.10;11.10. Sample Problem 10;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);683;11. Rotation;11.2;11.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);683;11. Rotation;11.3;11.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);683;11. Rotation;11.4;11.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);683;11. Rotation;11.6;11.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);683;11. Rotation;11.7;11.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);683;11. Rotation;11.8;11.8. Sample Problem 8;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);683;11. Rotation;11.9;11.9. Sample Problem 9;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);685;12. Rolling Torque and Angular Momentum;12.1;12.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);685;12. Rolling Torque and Angular Momentum;12.2;12.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);685;12. Rolling Torque and Angular Momentum;12.3;12.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);685;12. Rolling Torque and Angular Momentum;12.4;12.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);685;12. Rolling Torque and Angular Momentum;12.6;12.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);685;12. Rolling Torque and Angular Momentum;12.7;12.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);685;12. Rolling Torque and Angular Momentum;12.8;12.8. Sample Problem 8;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);685;12. Rolling Torque and Angular Momentum;12.9;12.9. Sample Problem 9;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);686;13. Equilibrium and Elasticity;13.1;13.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);686;13. Equilibrium and Elasticity;13.2;13.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);686;13. Equilibrium and Elasticity;13.3;13.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);686;13. Equilibrium and Elasticity;13.4;13.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);686;13. Equilibrium and Elasticity;13.5;13.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);686;13. Equilibrium and Elasticity;13.6;13.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);687;14. Gravitation;14.1;14.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);687;14. Gravitation;14.2;14.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);687;14. Gravitation;14.3.a;14.3.a. Sample Problem 3a;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);687;14. Gravitation;14.3.b;14.3.b. Sample Problem 3b;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);687;14. Gravitation;14.5;14.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);687;14. Gravitation;14.6;14.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);687;14. Gravitation;14.7;14.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);687;14. Gravitation;14.8;14.8. Sample Problem 8;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);688;15. Fluids;15.1;15.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);688;15. Fluids;15.2;15.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);688;15. Fluids;15.3;15.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);688;15. Fluids;15.4;15.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);688;15. Fluids;15.5;15.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);688;15. Fluids;15.6;15.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);688;15. Fluids;15.7;15.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);688;15. Fluids;15.8;15.8. Sample Problem 8;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);689;16. Oscillation;16.1;16.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);689;16. Oscillation;16.2;16.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);689;16. Oscillation;16.3;16.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);689;16. Oscillation;16.4;16.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);689;16. Oscillation;16.5;16.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);689;16. Oscillation;16.6;16.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);689;16. Oscillation;16.7;16.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);690;17. Waves l;17.1;17.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);690;17. Waves l;17.2;17.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);690;17. Waves l;17.3;17.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);690;17. Waves l;17.4;17.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);690;17. Waves l;17.5;17.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);690;17. Waves l;17.6;17.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);690;17. Waves l;17.7;17.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);691;18. Waves ll;18.1;18.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);691;18. Waves ll;18.2;18.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);691;18. Waves ll;18.3;18.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);691;18. Waves ll;18.4;18.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);691;18. Waves ll;18.5;18.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);691;18. Waves ll;18.6;18.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);691;18. Waves ll;18.8;18.8. Sample Problem 8;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);692;19. Temprature Heat and the First Law of Thermodynamic;19.1;19.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);692;19. Temprature Heat and the First Law of Thermodynamic;19.2;19.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);692;19. Temprature Heat and the First Law of Thermodynamic;19.3;19.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);692;19. Temprature Heat and the First Law of Thermodynamic;19.4;19.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);692;19. Temprature Heat and the First Law of Thermodynamic;19.5;19.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);692;19. Temprature Heat and the First Law of Thermodynamic;19.6;19.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);692;19. Temprature Heat and the First Law of Thermodynamic;19.7;19.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);693;20. The Kinetic Theory of Gases;20.1;20.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);693;20. The Kinetic Theory of Gases;20.2;20.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);693;20. The Kinetic Theory of Gases;20.3;20.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);693;20. The Kinetic Theory of Gases;20.4;20.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);693;20. The Kinetic Theory of Gases;20.5;20.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);693;20. The Kinetic Theory of Gases;20.6;20.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);693;20. The Kinetic Theory of Gases;20.7;20.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);693;20. The Kinetic Theory of Gases;20.9;20.9. Sample Problem 9;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);694;21. Entropy and the Second Law of Thermodynamics;21.1;21.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);694;21. Entropy and the Second Law of Thermodynamics;21.2;21.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);694;21. Entropy and the Second Law of Thermodynamics;21.3;21.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);694;21. Entropy and the Second Law of Thermodynamics;21.4;21.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);694;21. Entropy and the Second Law of Thermodynamics;21.5;21.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);695;22. Electric Charge;22.1;22.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);695;22. Electric Charge;22.2;22.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);695;22. Electric Charge;22.3;22.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);695;22. Electric Charge;22.4;22.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);696;23. Electric Fields;23.2;23.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);696;23. Electric Fields;23.3;23.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);696;23. Electric Fields;23.4;23.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);696;23. Electric Fields;23.5;23.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);697;24. Gauss Law;24.1;24.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);697;24. Gauss Law;24.2;24.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);697;24. Gauss Law;24.3;24.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);697;24. Gauss Law;24.4;24.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);697;24. Gauss Law;24.5;24.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);697;24. Gauss Law;24.6;24.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);698;25. Electric Potential;25.1;25.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);698;25. Electric Potential;25.3;25.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);698;25. Electric Potential;25.4;25.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);698;25. Electric Potential;25.6;25.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);702;26. Capacitance;26.1;26.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);702;26. Capacitance;26.2;26.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);702;26. Capacitance;26.3;26.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);702;26. Capacitance;26.4;26.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);702;26. Capacitance;26.5;26.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);702;26. Capacitance;26.6;26.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);703;27. Current and Resistance;27.1;27.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);703;27. Current and Resistance;27.2;27.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);703;27. Current and Resistance;27.3;27.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);703;27. Current and Resistance;27.4;27.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);703;27. Current and Resistance;27.5;27.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);703;27. Current and Resistance;27.6;27.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);704;28. Circuits;28.1;28.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);704;28. Circuits;28.2;28.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);704;28. Circuits;28.3;28.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);704;28. Circuits;28.4;28.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);704;28. Circuits;28.5;28.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);705;29. Magnetic fields;29.1;29.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);705;29. Magnetic fields;29.2;29.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);705;29. Magnetic fields;29.3;29.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);705;29. Magnetic fields;29.4;29.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);705;29. Magnetic fields;29.5;29.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);705;29. Magnetic fields;29.6;29.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);705;29. Magnetic fields;29.7;29.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);705;29. Magnetic fields;29.8;29.8. Sample Problem 8;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);706;30. Magnetic fields due to Current;30.2;30.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);706;30. Magnetic fields due to Current;30.3;30.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);706;30. Magnetic fields due to Current;30.4;30.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);707;31. Induction and Inductance;31.1;31.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);707;31. Induction and Inductance;31.2;31.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);707;31. Induction and Inductance;31.3;31.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);707;31. Induction and Inductance;31.4;31.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);707;31. Induction and Inductance;31.5;31.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);707;31. Induction and Inductance;31.6;31.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);707;31. Induction and Inductance;31.7;31.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);707;31. Induction and Inductance;31.8;31.8. Sample Problem 8;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);707;31. Induction and Inductance;31.9;31.9. Sample Problem 9;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);708;32. Magnetism of Matter Maxwell Equation;32.1;32.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);708;32. Magnetism of Matter Maxwell Equation;32.2;32.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);708;32. Magnetism of Matter Maxwell Equation;32.3;32.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);709;33. Electromagnetic Oscillations and Alternating Current;33.1;33.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);709;33. Electromagnetic Oscillations and Alternating Current;33.2;33.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);709;33. Electromagnetic Oscillations and Alternating Current;33.3;33.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);709;33. Electromagnetic Oscillations and Alternating Current;33.4;33.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);709;33. Electromagnetic Oscillations and Alternating Current;33.5;33.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);709;33. Electromagnetic Oscillations and Alternating Current;33.6;33.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);709;33. Electromagnetic Oscillations and Alternating Current;33.7;33.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);709;33. Electromagnetic Oscillations and Alternating Current;33.8;33.8. Sample Problem 8;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);709;33. Electromagnetic Oscillations and Alternating Current;33.9;33.9. Sample Problem 9;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);710;34. Electromagnetic Waves;34.1;34.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);710;34. Electromagnetic Waves;34.2;34.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);710;34. Electromagnetic Waves;34.3;34.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);710;34. Electromagnetic Waves;34.4;34.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);710;34. Electromagnetic Waves;34.5;34.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);711;35. Images;35.1;35.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);711;35. Images;35.2;35.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);711;35. Images;35.3;35.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);711;35. Images;35.4;35.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);736;36. Interference;36.1;36.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);736;36. Interference;36.2;36.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);736;36. Interference;36.3;36.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);736;36. Interference;36.4;36.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);736;36. Interference;36.5;36.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);736;36. Interference;36.6;36.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);737;37. Diffraction;37.1;37.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);737;37. Diffraction;37.2;37.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);737;37. Diffraction;37.3;37.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);737;37. Diffraction;37.4;37.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);737;37. Diffraction;37.5;37.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);738;38. Relativity;38.1;38.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);738;38. Relativity;38.2;38.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);738;38. Relativity;38.3;38.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);738;38. Relativity;38.4;38.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);738;38. Relativity;38.5;38.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);738;38. Relativity;38.6;38.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);738;38. Relativity;38.7;38.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);739;39. Photons and Matter Waves;39.1;39.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);739;39. Photons and Matter Waves;39.2;39.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);739;39. Photons and Matter Waves;39.3;39.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);739;39. Photons and Matter Waves;39.4;39.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);739;39. Photons and Matter Waves;39.5;39.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);739;39. Photons and Matter Waves;39.6;39.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);739;39. Photons and Matter Waves;39.7;39.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);740;40. More About Matter waves;40.1;40.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);740;40. More About Matter waves;40.3;40.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);740;40. More About Matter waves;40.4;40.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);740;40. More About Matter waves;40.6;40.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);740;40. More About Matter waves;40.8;40.8. Sample Problem 8;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);781;41. All About Atoms;41.1;41.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);781;41. All About Atoms;41.2;41.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);781;41. All About Atoms;41.3;41.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);781;41. All About Atoms;41.4;41.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);781;41. All About Atoms;41.5;41.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);781;41. All About Atoms;41.6;41.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);782;42. Conduction of Electricity in Solids;42.1;42.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);782;42. Conduction of Electricity in Solids;42.2;42.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);782;42. Conduction of Electricity in Solids;42.3;42.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);782;42. Conduction of Electricity in Solids;42.4;42.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);782;42. Conduction of Electricity in Solids;42.5;42.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);782;42. Conduction of Electricity in Solids;42.6;42.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);782;42. Conduction of Electricity in Solids;42.7;42.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);783;43. Nuclear Physics;43.1;43.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);783;43. Nuclear Physics;43.10;43.10. Sample Problem 10;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);783;43. Nuclear Physics;43.2;43.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);783;43. Nuclear Physics;43.3;43.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);783;43. Nuclear Physics;43.4;43.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);783;43. Nuclear Physics;43.5;43.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);783;43. Nuclear Physics;43.6;43.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);783;43. Nuclear Physics;43.7;43.7. Sample Problem 7;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);783;43. Nuclear Physics;43.8;43.8. Sample Problem 8;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);783;43. Nuclear Physics;43.9;43.9. Sample Problem 9;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);784;44. Energy from the Nucleus;44.1;44.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);784;44. Energy from the Nucleus;44.2;44.2. Sample Problem 2;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);784;44. Energy from the Nucleus;44.3;44.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);784;44. Energy from the Nucleus;44.4;44.4. Sample Problem 4;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);784;44. Energy from the Nucleus;44.5;44.5. Sample Problem 5;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);784;44. Energy from the Nucleus;44.6;44.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);785;45. Quarks Leptons and the Big Bang;45.1;45.1. Sample Problem 1;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);785;45. Quarks Leptons and the Big Bang;45.2;45.2. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);785;45. Quarks Leptons and the Big Bang;45.3;45.3. Sample Problem 3;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);785;45. Quarks Leptons and the Big Bang;45.6;45.6. Sample Problem 6;error;runtime; -24;Fundamental Of Physics(D. Haliday, R. Resnick And J. Walker);785;45. Quarks Leptons and the Big Bang;45.7;45.7. Sample Problem 7;error;runtime; -25;Microwave Engineering(D. M. Pozar);95;2. ELECTROMAGNETIC THEORY;2.1;2.1. program to calculate wavelength phase velocity and;correct;runtime; -25;Microwave Engineering(D. M. Pozar);95;2. ELECTROMAGNETIC THEORY;2.2;2.2. progarm to find out skin depth;correct;runtime; -25;Microwave Engineering(D. M. Pozar);95;2. ELECTROMAGNETIC THEORY;2.3;2.3. program to find the resulting fields;correct;runtime; -25;Microwave Engineering(D. M. Pozar);95;2. ELECTROMAGNETIC THEORY;2.4;2.4. program to show decomposition in to RHCP and LHCP;error;runtime; -25;Microwave Engineering(D. M. Pozar);95;2. ELECTROMAGNETIC THEORY;2.5;2.5. program to compute the poynting vector;error;runtime; -25;Microwave Engineering(D. M. Pozar);95;2. ELECTROMAGNETIC THEORY;2.6;2.6. program to compute propagation constant and other;correct;runtime; -25;Microwave Engineering(D. M. Pozar);95;2. ELECTROMAGNETIC THEORY;2.7;2.7. program to plot the reflection coefficients;correct;runtime; -25;Microwave Engineering(D. M. Pozar);96;3. TRANSMISSION LINE THEORY;3.1;3.1. program to determine transmission line parameters;error;runtime; -25;Microwave Engineering(D. M. Pozar);96;3. TRANSMISSION LINE THEORY;3.10;3.10. program to calculate attenuaton;correct;runtime; -25;Microwave Engineering(D. M. Pozar);96;3. TRANSMISSION LINE THEORY;3.2;3.2. program to find out load impedence;error;runtime; -25;Microwave Engineering(D. M. Pozar);96;3. TRANSMISSION LINE THEORY;3.3;3.3. program to find out return loss in dB and others;error;runtime; -25;Microwave Engineering(D. M. Pozar);96;3. TRANSMISSION LINE THEORY;3.4;3.4. program to find input impedence and SWR of line;correct;runtime; -25;Microwave Engineering(D. M. Pozar);96;3. TRANSMISSION LINE THEORY;3.5;3.5. program to find out load admittance and other;correct;runtime; -25;Microwave Engineering(D. M. Pozar);96;3. TRANSMISSION LINE THEORY;3.6;3.6. program to find out characteristic impedence;correct;runtime; -25;Microwave Engineering(D. M. Pozar);96;3. TRANSMISSION LINE THEORY;3.7;3.7. program to determine unknown load impedence;error;runtime; -25;Microwave Engineering(D. M. Pozar);96;3. TRANSMISSION LINE THEORY;3.8;3.8. program to calculate attenuation constant;correct;runtime; -25;Microwave Engineering(D. M. Pozar);96;3. TRANSMISSION LINE THEORY;3.9;3.9. program to find the attenuation constant;error;runtime; -25;Microwave Engineering(D. M. Pozar);97;4. TRANSMISSION LINE AND WAVEGUIDES;4.1;4.1. program to find the cut off frequency;correct;runtime; -25;Microwave Engineering(D. M. Pozar);97;4. TRANSMISSION LINE AND WAVEGUIDES;4.2;4.2. program to find the cut off frequency;correct;runtime; -25;Microwave Engineering(D. M. Pozar);97;4. TRANSMISSION LINE AND WAVEGUIDES;4.3;4.3. program to find out the highest usable frequency;correct;runtime; -25;Microwave Engineering(D. M. Pozar);97;4. TRANSMISSION LINE AND WAVEGUIDES;4.4;4.4. program to calculate and plot propagation constant;correct;runtime; -25;Microwave Engineering(D. M. Pozar);97;4. TRANSMISSION LINE AND WAVEGUIDES;4.5;4.5. program to find width of a copper strip line;correct;runtime; -25;Microwave Engineering(D. M. Pozar);97;4. TRANSMISSION LINE AND WAVEGUIDES;4.7;4.7. program to calculate width and length;correct;runtime; -25;Microwave Engineering(D. M. Pozar);97;4. TRANSMISSION LINE AND WAVEGUIDES;4.9;4.9. program to calculate the group velocity;correct;runtime; -25;Microwave Engineering(D. M. Pozar);98;5. MICROWAVE NETWORK ANALYSIS;5.1;5.1. program to find equivalent voltages and current;correct;runtime; -25;Microwave Engineering(D. M. Pozar);98;5. MICROWAVE NETWORK ANALYSIS;5.10;5.10. program to find out expression for taoin;correct;runtime; -25;Microwave Engineering(D. M. Pozar);98;5. MICROWAVE NETWORK ANALYSIS;5.11;5.11. determine amplitude of forward and backward wave;error;runtime; -25;Microwave Engineering(D. M. Pozar);98;5. MICROWAVE NETWORK ANALYSIS;5.12;5.12. find excitation coefficient of forward wave TE10;error;runtime; -25;Microwave Engineering(D. M. Pozar);98;5. MICROWAVE NETWORK ANALYSIS;5.2;5.2. program to compute reflection coefficient;correct;runtime; -25;Microwave Engineering(D. M. Pozar);98;5. MICROWAVE NETWORK ANALYSIS;5.3;5.3. program to find z parameter of two port network;correct;runtime; -25;Microwave Engineering(D. M. Pozar);98;5. MICROWAVE NETWORK ANALYSIS;5.4;5.4. program to find the s parameter of 3 dB attenuator;correct;runtime; -25;Microwave Engineering(D. M. Pozar);98;5. MICROWAVE NETWORK ANALYSIS;5.5;5.5. program to determine reciprccity and losslessness;correct;runtime; -25;Microwave Engineering(D. M. Pozar);98;5. MICROWAVE NETWORK ANALYSIS;5.6;5.6. program to find ABCD parameter of two port network;correct;runtime; -25;Microwave Engineering(D. M. Pozar);98;5. MICROWAVE NETWORK ANALYSIS;5.7;5.7. program to find admittance matrix for bridge T;correct;runtime; -25;Microwave Engineering(D. M. Pozar);98;5. MICROWAVE NETWORK ANALYSIS;5.8;5.8. program to compute power gains;correct;runtime; -25;Microwave Engineering(D. M. Pozar);98;5. MICROWAVE NETWORK ANALYSIS;5.9;5.9. program to derive the expression for taoin;correct;runtime; -25;Microwave Engineering(D. M. Pozar);99;6. IMPEDENCE MATCHING AND TUNNING;6.1;6.1. program to design an L section matching network;correct;runtime; -25;Microwave Engineering(D. M. Pozar);99;6. IMPEDENCE MATCHING AND TUNNING;6.5;6.5. design quarter wave matching transformer;correct;runtime; -25;Microwave Engineering(D. M. Pozar);99;6. IMPEDENCE MATCHING AND TUNNING;6.6;6.6. program to evaluate the worst case percent error;correct;runtime; -25;Microwave Engineering(D. M. Pozar);99;6. IMPEDENCE MATCHING AND TUNNING;6.7;6.7. design three section binomial transformer;correct;runtime; -25;Microwave Engineering(D. M. Pozar);99;6. IMPEDENCE MATCHING AND TUNNING;6.8;6.8. design three section chebysev transfomer;correct;runtime; -25;Microwave Engineering(D. M. Pozar);99;6. IMPEDENCE MATCHING AND TUNNING;6.9;6.9. design triangular taper and a klopfenstein taper;correct;runtime; -25;Microwave Engineering(D. M. Pozar);100;7. MICROWAVE RESONATORS;7.1;7.1. program to compare the Q factor;correct;runtime; -25;Microwave Engineering(D. M. Pozar);100;7. MICROWAVE RESONATORS;7.2;7.2. program to compute length and Q of the resonator;correct;runtime; -25;Microwave Engineering(D. M. Pozar);100;7. MICROWAVE RESONATORS;7.3;7.3. program to find required length and other;correct;runtime; -25;Microwave Engineering(D. M. Pozar);100;7. MICROWAVE RESONATORS;7.4;7.4. program to find dimension and Q;correct;runtime; -25;Microwave Engineering(D. M. Pozar);100;7. MICROWAVE RESONATORS;7.5;7.5. program to find resonant frequency and Q;error;runtime; -25;Microwave Engineering(D. M. Pozar);100;7. MICROWAVE RESONATORS;7.6;7.6. program to find the mode number and Q;correct;runtime; -25;Microwave Engineering(D. M. Pozar);100;7. MICROWAVE RESONATORS;7.7;7.7. program to find value of the coupling capacitor;correct;runtime; -25;Microwave Engineering(D. M. Pozar);100;7. MICROWAVE RESONATORS;7.8;7.8. derive expression for change in resonant frequency;error;runtime; -25;Microwave Engineering(D. M. Pozar);100;7. MICROWAVE RESONATORS;7.9;7.9. derive expression for change in resonant frequency;error;runtime; -25;Microwave Engineering(D. M. Pozar);101;8. POWER DIVIDERS DIRECTIONAL COUPLERS AND HYBRIDS;8.1;8.1. program to compute the reflection coefficients;correct;runtime; -25;Microwave Engineering(D. M. Pozar);101;8. POWER DIVIDERS DIRECTIONAL COUPLERS AND HYBRIDS;8.10;8.10. design 180 deg ring hybrid for 50 ohm system imped;correct;runtime; -25;Microwave Engineering(D. M. Pozar);101;8. POWER DIVIDERS DIRECTIONAL COUPLERS AND HYBRIDS;8.11;8.11. calculate even and odd mode characteristic impeden;correct;runtime; -25;Microwave Engineering(D. M. Pozar);101;8. POWER DIVIDERS DIRECTIONAL COUPLERS AND HYBRIDS;8.2;8.2. design equi split wilkinson power divider;correct;runtime; -25;Microwave Engineering(D. M. Pozar);101;8. POWER DIVIDERS DIRECTIONAL COUPLERS AND HYBRIDS;8.3;8.3. design bethe hole coupler for x band waveguide;correct;runtime; -25;Microwave Engineering(D. M. Pozar);101;8. POWER DIVIDERS DIRECTIONAL COUPLERS AND HYBRIDS;8.4;8.4. program to design a four hole chebysev coupler;correct;runtime; -25;Microwave Engineering(D. M. Pozar);101;8. POWER DIVIDERS DIRECTIONAL COUPLERS AND HYBRIDS;8.5;8.5. design 50 ohm branchline quadrature hybrid junc;correct;runtime; -25;Microwave Engineering(D. M. Pozar);101;8. POWER DIVIDERS DIRECTIONAL COUPLERS AND HYBRIDS;8.6;8.6. determine even and odd mode characteristic impeden;correct;runtime; -25;Microwave Engineering(D. M. Pozar);101;8. POWER DIVIDERS DIRECTIONAL COUPLERS AND HYBRIDS;8.7;8.7. design a 20 db single section coupled line coupler;correct;runtime; -25;Microwave Engineering(D. M. Pozar);101;8. POWER DIVIDERS DIRECTIONAL COUPLERS AND HYBRIDS;8.8;8.8. design a three section 20 db coupler;correct;runtime; -25;Microwave Engineering(D. M. Pozar);101;8. POWER DIVIDERS DIRECTIONAL COUPLERS AND HYBRIDS;8.9;8.9. design a 3 dB 50 ohm langer coupler;correct;runtime; -25;Microwave Engineering(D. M. Pozar);102;9. MICROWAVE FILTERS;9.1;9.1. program to compute the propagation constant;error;runtime; -25;Microwave Engineering(D. M. Pozar);102;9. MICROWAVE FILTERS;9.10;9.10. design a bandpass filter using capacitive coupled;error;runtime; -25;Microwave Engineering(D. M. Pozar);102;9. MICROWAVE FILTERS;9.2;9.2. program to design a low pass composite filter;correct;runtime; -25;Microwave Engineering(D. M. Pozar);102;9. MICROWAVE FILTERS;9.3;9.3. program to find out number of filter elements;correct;runtime; -25;Microwave Engineering(D. M. Pozar);102;9. MICROWAVE FILTERS;9.4;9.4. program to design a maximum flat low pass filter;correct;runtime; -25;Microwave Engineering(D. M. Pozar);102;9. MICROWAVE FILTERS;9.5;9.5. program to design a band pass filter;correct;runtime; -25;Microwave Engineering(D. M. Pozar);102;9. MICROWAVE FILTERS;9.6;9.6. design a low pass filter using micrstrip lines;correct;runtime; -25;Microwave Engineering(D. M. Pozar);102;9. MICROWAVE FILTERS;9.7;9.7. design a stepped impedence low pass filter;correct;runtime; -25;Microwave Engineering(D. M. Pozar);102;9. MICROWAVE FILTERS;9.8;9.8. design a coupled line band pass filter;correct;runtime; -25;Microwave Engineering(D. M. Pozar);102;9. MICROWAVE FILTERS;9.9;9.9. design a bandpass filter;correct;runtime; -25;Microwave Engineering(D. M. Pozar);103;10. THEORY AND DESIGN OF FERRIMAGNETIC COMPONENTS;10.1;10.1. calculate and plot phase and attenuation constants;correct;runtime; -25;Microwave Engineering(D. M. Pozar);103;10. THEORY AND DESIGN OF FERRIMAGNETIC COMPONENTS;10.2;10.2. program to design an e plane resonance isolator;correct;runtime; -25;Microwave Engineering(D. M. Pozar);103;10. THEORY AND DESIGN OF FERRIMAGNETIC COMPONENTS;10.3;10.3. program to design a resonance isolator;correct;runtime; -25;Microwave Engineering(D. M. Pozar);103;10. THEORY AND DESIGN OF FERRIMAGNETIC COMPONENTS;10.5;10.5. design a two slab remanent phase shifter;correct;runtime; -25;Microwave Engineering(D. M. Pozar);104;11. ACTIVE MICROWAVE CIRCUITS;11.1;11.1. determine equivalent noise temperature of amplifie;correct;runtime; -25;Microwave Engineering(D. M. Pozar);104;11. ACTIVE MICROWAVE CIRCUITS;11.10;11.10. program to design a transistor oscillator;error;runtime; -25;Microwave Engineering(D. M. Pozar);104;11. ACTIVE MICROWAVE CIRCUITS;11.11;11.11. obtain the greatest ratio of off to on attenuation;correct;runtime; -25;Microwave Engineering(D. M. Pozar);104;11. ACTIVE MICROWAVE CIRCUITS;11.2;11.2. find the dynamic range of the amplifier;correct;runtime; -25;Microwave Engineering(D. M. Pozar);104;11. ACTIVE MICROWAVE CIRCUITS;11.3;11.3. program to calculate the noise figure;correct;runtime; -25;Microwave Engineering(D. M. Pozar);104;11. ACTIVE MICROWAVE CIRCUITS;11.4;11.4. calculate the impedence of the diode;correct;runtime; -25;Microwave Engineering(D. M. Pozar);104;11. ACTIVE MICROWAVE CIRCUITS;11.5;11.5. determine the stability of the transistor;correct;runtime; -25;Microwave Engineering(D. M. Pozar);104;11. ACTIVE MICROWAVE CIRCUITS;11.6;11.6. design an amplifier for maximum gain;correct;runtime; -25;Microwave Engineering(D. M. Pozar);104;11. ACTIVE MICROWAVE CIRCUITS;11.7;11.7. design an amplifier to have a gain of 11 dB;correct;runtime; -25;Microwave Engineering(D. M. Pozar);104;11. ACTIVE MICROWAVE CIRCUITS;11.8;11.8. calculate maximum error in Gt and design amplifier;correct;runtime; -25;Microwave Engineering(D. M. Pozar);104;11. ACTIVE MICROWAVE CIRCUITS;11.9;11.9. design a load matching network;correct;runtime; -25;Microwave Engineering(D. M. Pozar);105;12. INTRODUCTION TO MICROWAVE SYSTEMS;12.1;12.1. compute directivity radiation intensity and others;error;runtime; -25;Microwave Engineering(D. M. Pozar);105;12. INTRODUCTION TO MICROWAVE SYSTEMS;12.2;12.2. program to find the reactive power in dbm;correct;runtime; -25;Microwave Engineering(D. M. Pozar);105;12. INTRODUCTION TO MICROWAVE SYSTEMS;12.3;12.3. calculate the input and output SNR;correct;runtime; -25;Microwave Engineering(D. M. Pozar);105;12. INTRODUCTION TO MICROWAVE SYSTEMS;12.4;12.4. program to find the maximum range of radar;correct;runtime; -25;Microwave Engineering(D. M. Pozar);105;12. INTRODUCTION TO MICROWAVE SYSTEMS;12.5;12.5. program to find the J by S ratio;correct;runtime; -25;Microwave Engineering(D. M. Pozar);105;12. INTRODUCTION TO MICROWAVE SYSTEMS;12.6;12.6. calculate power density of 20 m from anteena;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);330;1. LINEAR EQUATIONS IN LINEAR ALGEBRA;1.1.1;1.1.1. Gaussian Elimination;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);330;1. LINEAR EQUATIONS IN LINEAR ALGEBRA;1.1.13;1.1.13. Gaussian Elimination with row exchange;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);330;1. LINEAR EQUATIONS IN LINEAR ALGEBRA;1.1.19;1.1.19. Condition for a solution to exist;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);330;1. LINEAR EQUATIONS IN LINEAR ALGEBRA;1.1.25;1.1.25. Condition for a solution to exist;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);330;1. LINEAR EQUATIONS IN LINEAR ALGEBRA;1.1.7;1.1.7. Gaussian Elimination Singular case;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);330;1. LINEAR EQUATIONS IN LINEAR ALGEBRA;1.2.13;1.2.13. General solution of the system;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);330;1. LINEAR EQUATIONS IN LINEAR ALGEBRA;1.2.34;1.2.34. Row reduced echelon form;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);330;1. LINEAR EQUATIONS IN LINEAR ALGEBRA;1.2.7;1.2.7. General solution of the system;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);330;1. LINEAR EQUATIONS IN LINEAR ALGEBRA;1.3.1;1.3.1. Linear combination of two vectors;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);330;1. LINEAR EQUATIONS IN LINEAR ALGEBRA;1.3.11;1.3.11. Linear combination of vectors;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);330;1. LINEAR EQUATIONS IN LINEAR ALGEBRA;1.3.31;1.3.31. Application of Gaussian elimination;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);330;1. LINEAR EQUATIONS IN LINEAR ALGEBRA;1.4.13;1.4.13. Span of vectors;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);330;1. LINEAR EQUATIONS IN LINEAR ALGEBRA;1.4.7;1.4.7. Vectors as columns of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);330;1. LINEAR EQUATIONS IN LINEAR ALGEBRA;1.5.1;1.5.1. Free and pivot variables;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);330;1. LINEAR EQUATIONS IN LINEAR ALGEBRA;1.5.11;1.5.11. General solution of the system;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);330;1. LINEAR EQUATIONS IN LINEAR ALGEBRA;1.5.7;1.5.7. General solution of the system;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);330;1. LINEAR EQUATIONS IN LINEAR ALGEBRA;1.7.1;1.7.1. Linear independence of vectors;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);330;1. LINEAR EQUATIONS IN LINEAR ALGEBRA;1.7.7;1.7.7. Linear independence of vectors;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);331;2. MATRIX ALGEBRA;2.1.1;2.1.1. Matrix operations;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);331;2. MATRIX ALGEBRA;2.2.1;2.2.1. Inverse of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);331;2. MATRIX ALGEBRA;2.2.7;2.2.7. Inverse of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);331;2. MATRIX ALGEBRA;2.3.1;2.3.1. Invertibility of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);331;2. MATRIX ALGEBRA;2.3.33;2.3.33. Invertible matrix theorem;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);331;2. MATRIX ALGEBRA;2.4.25;2.4.25. Inverse using matrix partition;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);331;2. MATRIX ALGEBRA;2.5.1;2.5.1. Application of LU decomposition;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);331;2. MATRIX ALGEBRA;2.5.13;2.5.13. LU decomposition of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);331;2. MATRIX ALGEBRA;2.5.7;2.5.7. LU decomposition of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);331;2. MATRIX ALGEBRA;2.6.1;2.6.1. Application of matrix algebra;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);331;2. MATRIX ALGEBRA;2.6.7;2.6.7. Application of matrix algebra;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);331;2. MATRIX ALGEBRA;2.7.1;2.7.1. Transformation using matrices;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);331;2. MATRIX ALGEBRA;2.7.7;2.7.7. Transformation using matrices;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);331;2. MATRIX ALGEBRA;2.8.23;2.8.23. Pivot columns;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);331;2. MATRIX ALGEBRA;2.8.25;2.8.25. Pivot columns;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);331;2. MATRIX ALGEBRA;2.8.7;2.8.7. Column space of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);331;2. MATRIX ALGEBRA;2.9.13;2.9.13. Dimension of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);332;3. DETERMINANTS;3.1.1;3.1.1. Determinant of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);332;3. DETERMINANTS;3.1.13;3.1.13. Determinant of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);332;3. DETERMINANTS;3.1.19;3.1.19. Property of determinants;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);332;3. DETERMINANTS;3.1.37;3.1.37. Property of determinants;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);332;3. DETERMINANTS;3.1.7;3.1.7. Determinant of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);332;3. DETERMINANTS;3.2.13;3.2.13. Determinant of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);332;3. DETERMINANTS;3.2.19;3.2.19. Determinant of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);332;3. DETERMINANTS;3.2.25;3.2.25. Linear independency using determinants;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);332;3. DETERMINANTS;3.2.7;3.2.7. Determinant of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);332;3. DETERMINANTS;3.3.1;3.3.1. Cramers rule;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);332;3. DETERMINANTS;3.3.13;3.3.13. Inverse of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);332;3. DETERMINANTS;3.3.19;3.3.19. Application of determinant;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);334;4. VECTOR SPACES;4.1.13;4.1.13. Subspace of vectors;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);334;4. VECTOR SPACES;4.2.1;4.2.1. Null space of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);334;4. VECTOR SPACES;4.3.13;4.3.13. Column space of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);334;4. VECTOR SPACES;4.4.27;4.4.27. Linear independence of vectors;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);334;4. VECTOR SPACES;4.4.31a;4.4.31a. Span of vectors;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);334;4. VECTOR SPACES;4.4.31b;4.4.31b. Span of vectors;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);334;4. VECTOR SPACES;4.4.7;4.4.7. Gaussian Elimination;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);334;4. VECTOR SPACES;4.5.3;4.5.3. Dimension of a vector space;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);334;4. VECTOR SPACES;4.6.1;4.6.1. Rank of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);335;5. EIGENVALUES AND EIGENVECTORS;5.1.1;5.1.1. Eigenvalue of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);335;5. EIGENVALUES AND EIGENVECTORS;5.1.13;5.1.13. Eigenvectors;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);335;5. EIGENVALUES AND EIGENVECTORS;5.1.19;5.1.19. Property of non invertible matrices;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);335;5. EIGENVALUES AND EIGENVECTORS;5.1.7;5.1.7. Eigenvalue of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);335;5. EIGENVALUES AND EIGENVECTORS;5.2.1;5.2.1. Eigenvalue of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);335;5. EIGENVALUES AND EIGENVECTORS;5.2.13;5.2.13. Eigenvalues of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);335;5. EIGENVALUES AND EIGENVECTORS;5.2.25;5.2.25. Eigenvectors;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);335;5. EIGENVALUES AND EIGENVECTORS;5.2.7;5.2.7. Complex eigenvalues;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);335;5. EIGENVALUES AND EIGENVECTORS;5.3.1;5.3.1. Diagonalization of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);335;5. EIGENVALUES AND EIGENVECTORS;5.3.13;5.3.13. Diagonalization of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);335;5. EIGENVALUES AND EIGENVECTORS;5.3.7;5.3.7. Diagonalization of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);335;5. EIGENVALUES AND EIGENVECTORS;5.4.31;5.4.31. PD decomposition of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);335;5. EIGENVALUES AND EIGENVECTORS;5.5.1;5.5.1. Complex eigenvectors;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);335;5. EIGENVALUES AND EIGENVECTORS;5.5.7;5.5.7. Scale factor of transformation;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);337;6. ORTHOGONALITY AND LEAST SQUARES;6.1.1;6.1.1. Dot product of vectors;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);337;6. ORTHOGONALITY AND LEAST SQUARES;6.1.13;6.1.13. Distance between two points;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);337;6. ORTHOGONALITY AND LEAST SQUARES;6.1.7;6.1.7. Norm of a vector;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);337;6. ORTHOGONALITY AND LEAST SQUARES;6.2.1;6.2.1. Orthogonality of vectors;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);337;6. ORTHOGONALITY AND LEAST SQUARES;6.2.13;6.2.13. Projection of vectors;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);337;6. ORTHOGONALITY AND LEAST SQUARES;6.2.19;6.2.19. Orthonormal vectors;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);337;6. ORTHOGONALITY AND LEAST SQUARES;6.2.7;6.2.7. Orthogonal basis;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);337;6. ORTHOGONALITY AND LEAST SQUARES;6.3.1;6.3.1. Orthogonal projection;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);337;6. ORTHOGONALITY AND LEAST SQUARES;6.3.13;6.3.13. Orthogonal projection;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);337;6. ORTHOGONALITY AND LEAST SQUARES;6.3.19;6.3.19. Orthogonal decomposition theorem;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);337;6. ORTHOGONALITY AND LEAST SQUARES;6.3.7;6.3.7. Orthogonal projection;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);337;6. ORTHOGONALITY AND LEAST SQUARES;6.4.1;6.4.1. Gram Schimdt Orthogonalisation;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);337;6. ORTHOGONALITY AND LEAST SQUARES;6.4.13;6.4.13. QR decomposition of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);337;6. ORTHOGONALITY AND LEAST SQUARES;6.4.7;6.4.7. Gram Schimdt Orthogonalisation;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);337;6. ORTHOGONALITY AND LEAST SQUARES;6.5.1;6.5.1. Least square solution;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);337;6. ORTHOGONALITY AND LEAST SQUARES;6.5.13;6.5.13. Least square solution;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);337;6. ORTHOGONALITY AND LEAST SQUARES;6.5.7;6.5.7. Least square solution;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);337;6. ORTHOGONALITY AND LEAST SQUARES;6.6.1;6.6.1. Least squares line;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);343;7. SYMMETRIC MATRICES AND QUADRATIC FORMS;7.1.1;7.1.1. Symmetric matrices;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);343;7. SYMMETRIC MATRICES AND QUADRATIC FORMS;7.1.13;7.1.13. PD decomposition of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);343;7. SYMMETRIC MATRICES AND QUADRATIC FORMS;7.1.19;7.1.19. PD decomposition of a matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);343;7. SYMMETRIC MATRICES AND QUADRATIC FORMS;7.1.7;7.1.7. Orthogoanl matrix;correct;runtime; -26;Linear Algebra and Its Applications(D. C. Lay);343;7. SYMMETRIC MATRICES AND QUADRATIC FORMS;7.2.1;7.2.1. Quadratic form;correct;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);149;2. Flows on the Line;2.2.1;2.2.1. Fixed Points and Stability;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);149;2. Flows on the Line;2.2.2;2.2.2. Fixed Points and Stability;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);149;2. Flows on the Line;2.2.3;2.2.3. Fixed Points and Stability;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);149;2. Flows on the Line;2.4.1;2.4.1. Linear Stability Analysis;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);149;2. Flows on the Line;2.4.2;2.4.2. Linear Stability Analysis;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);149;2. Flows on the Line;2.4.3;2.4.3. Linear Stability Analysis;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);149;2. Flows on the Line;2.7.1;2.7.1. Potentials;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);149;2. Flows on the Line;2.7.2;2.7.2. Potentials;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);166;3. Bifurcations;3.1.1;3.1.1. Saddle Node Bifurcation;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);166;3. Bifurcations;3.1.2;3.1.2. Saddle Node Bifurcation;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);166;3. Bifurcations;3.2.1;3.2.1. Transcritical Bifurcation;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);166;3. Bifurcations;3.2.2;3.2.2. Transcritical Bifurcation;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);166;3. Bifurcations;3.4.1;3.4.1. Pitchfork Bifurcation;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);166;3. Bifurcations;3.4.2;3.4.2. Pitchfork Bifurcation;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);167;4. Flows on the Circle;4.1.1;4.1.1. Examples and Definitions;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);167;4. Flows on the Circle;4.1.2;4.1.2. Examples and Definitions;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);167;4. Flows on the Circle;4.3.1;4.3.1. Nonuniform Oscillator;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);167;4. Flows on the Circle;4.6.1;4.6.1. Superconducting Josephson Junctions;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);311;5. Linear Systems;5.1.1;5.1.1. Definitions and Examples;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);311;5. Linear Systems;5.1.2;5.1.2. Definitions and Examples;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);311;5. Linear Systems;5.2.1;5.2.1. Classification of Linear Systems;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);311;5. Linear Systems;5.2.2;5.2.2. Classification of Linear Systems;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);311;5. Linear Systems;5.2.3;5.2.3. Classification of Linear Systems;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);311;5. Linear Systems;5.2.4;5.2.4. Classification of Linear Systems;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);311;5. Linear Systems;5.2.6;5.2.6. Classification of Linear Systems;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);311;5. Linear Systems;5.2.7;5.2.7. Classification of Linear Systems;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);312;6. Phase Plane;6.1.1;6.1.1. Phase Portraits;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);312;6. Phase Plane;6.3.1;6.3.1. Fixed Points and Linearization;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);312;6. Phase Plane;6.3.2;6.3.2. Fixed Points and Linearization;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);312;6. Phase Plane;6.5.2;6.5.2. Conservative Systems;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);312;6. Phase Plane;6.6.1;6.6.1. Reversible Systems;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);312;6. Phase Plane;6.6.3;6.6.3. Reversible Systems;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);348;7. Limit Cycles;7.1.1;7.1.1. A Simple Limit Cycle;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);348;7. Limit Cycles;7.1.2;7.1.2. Van der Pol Oscillator;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);348;7. Limit Cycles;7.2.3;7.2.3. Ruling Out Closed Orbits;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);348;7. Limit Cycles;7.2.5;7.2.5. Ruling Out Closed Orbits;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);348;7. Limit Cycles;7.3.1;7.3.1. Poincare Bendixson Theorem;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);348;7. Limit Cycles;7.3.2;7.3.2. Poincare Bendixson Theorem;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);348;7. Limit Cycles;7.3.3;7.3.3. Poincare Bendixson Theorem;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);348;7. Limit Cycles;7.4.1;7.4.1. Lienard Systems;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);348;7. Limit Cycles;7.5.1;7.5.1. Relaxation Oscillations;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);351;8. Bifurcations Revisited;8.1.1;8.1.1. Saddle Node Transcritical Pitchfork Bifurcations;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);351;8. Bifurcations Revisited;8.1.2;8.1.2. Saddle Node Transcritical Pitchfork Bifurcations;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);351;8. Bifurcations Revisited;8.1.3;8.1.3. Saddle Node Transcritical Pitchfork Bifurcations;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);351;8. Bifurcations Revisited;8.2.1;8.2.1. Hopf Bifurcations;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);351;8. Bifurcations Revisited;8.3.1;8.3.1. Oscillating Chemical Reactions;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);351;8. Bifurcations Revisited;8.3.2;8.3.2. Oscillating Chemical Reactions;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);506;10. One Dimensional Maps;10.1.1;10.1.1. Fixed Points and Cobwebs;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);506;10. One Dimensional Maps;10.1.2;10.1.2. Fixed Points and Cobwebs;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);506;10. One Dimensional Maps;10.3.1;10.3.1. Logistic Map;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);506;10. One Dimensional Maps;10.3.2;10.3.2. Logistic Map;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);506;10. One Dimensional Maps;10.3.3;10.3.3. Logistic Map;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);506;10. One Dimensional Maps;10.6.1;10.6.1. Universality and Experiments;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);506;10. One Dimensional Maps;10.7.2;10.7.2. Renormalization;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);506;10. One Dimensional Maps;10.7.3;10.7.3. Renormalization;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);507;11. Fractals;11.3.1;11.3.1. Dimension of Self Similar Fractals;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);507;11. Fractals;11.3.2;11.3.2. Dimension of Self Similar Fractals;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);507;11. Fractals;11.3.3;11.3.3. Dimension of Self Similar Fractals;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);507;11. Fractals;11.4.1;11.4.1. Box Dimension;error;runtime; -27;Nonlinear Dynamics And Chaos(S. H. Strogatz);507;11. Fractals;11.4.2;11.4.2. Box Dimension;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );518;2. Mathematical Models of Physical Systems;2.3;2.3. signal flow graph;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );518;2. Mathematical Models of Physical Systems;2.4;2.4. transfer function;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );258;3. Feedback Characteristics of control sytems;3.2;3.2. sensitivity of transfer function;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );258;3. Feedback Characteristics of control sytems;3.3.a;3.3.a. sensitivity of transfer function;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );258;3. Feedback Characteristics of control sytems;3.3.b;3.3.b. steady state error;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );258;3. Feedback Characteristics of control sytems;3.3.c;3.3.c. calculation of slope;warning;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );258;3. Feedback Characteristics of control sytems;3.3.d;3.3.d. calculation of slope;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );258;3. Feedback Characteristics of control sytems;3.3.f;3.3.f. calculation of input;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );258;3. Feedback Characteristics of control sytems;3.3.g;3.3.g. calculation of time;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );319;5. Time Response analysis design specifications and performance indices;5.2;5.2. steady state error;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );319;5. Time Response analysis design specifications and performance indices;5.2.2;5.2.2. steady state error;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );319;5. Time Response analysis design specifications and performance indices;5.3;5.3. transfer function;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );319;5. Time Response analysis design specifications and performance indices;5.3.2;5.3.2. transfer function;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );319;5. Time Response analysis design specifications and performance indices;5.4.1;5.4.1. steady state error;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );319;5. Time Response analysis design specifications and performance indices;5.4.2;5.4.2. steady state error;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );319;5. Time Response analysis design specifications and performance indices;5.4.3;5.4.3. steady state error;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );319;5. Time Response analysis design specifications and performance indices;5.8;5.8. steady state error;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );319;5. Time Response analysis design specifications and performance indices;5.9;5.9. state variable analysis;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );259;6. Concepts of stability and Algebraic Criteria;6.1;6.1. hurwitz criterion;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );259;6. Concepts of stability and Algebraic Criteria;6.10;6.10. routh array;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );259;6. Concepts of stability and Algebraic Criteria;6.11.a;6.11.a. routh array;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );259;6. Concepts of stability and Algebraic Criteria;6.11.b;6.11.b. routh array;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );259;6. Concepts of stability and Algebraic Criteria;6.2;6.2. routh array;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );259;6. Concepts of stability and Algebraic Criteria;6.3;6.3. routh array;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );259;6. Concepts of stability and Algebraic Criteria;6.4;6.4. routh array;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );259;6. Concepts of stability and Algebraic Criteria;6.5;6.5. routh array;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );259;6. Concepts of stability and Algebraic Criteria;6.6;6.6. routh criterion;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );259;6. Concepts of stability and Algebraic Criteria;6.7;6.7. routh array;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );259;6. Concepts of stability and Algebraic Criteria;6.8;6.8. routh array;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );259;6. Concepts of stability and Algebraic Criteria;6.9;6.9. routh array;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );494;7. The Root Locus Technique;7.1;7.1. root locus;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );494;7. The Root Locus Technique;7.10;7.10. root locus;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );494;7. The Root Locus Technique;7.2;7.2. root locus;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );494;7. The Root Locus Technique;7.3;7.3. root locus;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );494;7. The Root Locus Technique;7.4;7.4. root locus;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );494;7. The Root Locus Technique;7.6;7.6. root locus;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );494;7. The Root Locus Technique;7.8;7.8. root locus;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );494;7. The Root Locus Technique;7.9;7.9. root locus;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );521;9. Stability in Frequency Domain;9.1;9.1. nyquist plot;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );521;9. Stability in Frequency Domain;9.10;9.10. gm and pm using nyquist plot;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );521;9. Stability in Frequency Domain;9.11;9.11. bode plot;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );521;9. Stability in Frequency Domain;9.13.a;9.13.a. bode plot;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );521;9. Stability in Frequency Domain;9.13.b;9.13.b. bode plot;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );521;9. Stability in Frequency Domain;9.14;9.14. m circles;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );521;9. Stability in Frequency Domain;9.15;9.15. m circles;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );521;9. Stability in Frequency Domain;9.2;9.2. nyquist plot;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );521;9. Stability in Frequency Domain;9.3;9.3. nyquist plot;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );521;9. Stability in Frequency Domain;9.4;9.4. nyquist plot;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );521;9. Stability in Frequency Domain;9.5;9.5. nyquist plot;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );521;9. Stability in Frequency Domain;9.6;9.6. stability using nyquist plot;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );521;9. Stability in Frequency Domain;9.7.a;9.7.a. stability using nyquist plot;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );521;9. Stability in Frequency Domain;9.7.b;9.7.b. stability using nyquist plot;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );521;9. Stability in Frequency Domain;9.8.a;9.8.a. nyquist criterion;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );521;9. Stability in Frequency Domain;9.8.b;9.8.b. nyquist criterion;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );515;10. Introduction to Design;10.6;10.6. lead compensation;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );515;10. Introduction to Design;10.7;10.7. lead compensation;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );515;10. Introduction to Design;10.8;10.8. lag compnsation;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );515;10. Introduction to Design;10.9;10.9. lag and lead compensation;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );487;12. State Variable Analysis and Design;12.12;12.12. check for controllability;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );487;12. State Variable Analysis and Design;12.13;12.13. check for controllability;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );487;12. State Variable Analysis and Design;12.14;12.14. check for observability;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );487;12. State Variable Analysis and Design;12.17;12.17. design state observer;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );487;12. State Variable Analysis and Design;12.3;12.3. state matrix;correct;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );487;12. State Variable Analysis and Design;12.4;12.4. modal matrix;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );487;12. State Variable Analysis and Design;12.5;12.5. obtain time response;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );487;12. State Variable Analysis and Design;12.6;12.6. resolvant matrix;error;runtime; -28;Control Systems Engineering(I. J. Nagrath And M. Gopal );487;12. State Variable Analysis and Design;12.7;12.7. state transition matrix and state response;error;runtime; -29;Linear Control Systems(B. S. Manke );110;1. INTRODUCTION;1.6.1.i;1.6.1.i. inverse laplace transform;error;runtime; -29;Linear Control Systems(B. S. Manke );110;1. INTRODUCTION;1.6.1.ii;1.6.1.ii. inverse laplace transform;error;runtime; -29;Linear Control Systems(B. S. Manke );110;1. INTRODUCTION;1.6.1.iii;1.6.1.iii. inverse laplace transform;error;runtime; -29;Linear Control Systems(B. S. Manke );110;1. INTRODUCTION;1.6.1.iv;1.6.1.iv. inverse laplace transform;error;runtime; -29;Linear Control Systems(B. S. Manke );110;1. INTRODUCTION;1.6.1.v;1.6.1.v. inverse laplace transform;error;runtime; -29;Linear Control Systems(B. S. Manke );110;1. INTRODUCTION;1.6.1.vi;1.6.1.vi. program laplace transform;error;runtime; -29;Linear Control Systems(B. S. Manke );110;1. INTRODUCTION;1.6.10;1.6.10. final value;error;runtime; -29;Linear Control Systems(B. S. Manke );110;1. INTRODUCTION;1.6.2;1.6.2. solution of differential equation;error;runtime; -29;Linear Control Systems(B. S. Manke );110;1. INTRODUCTION;1.6.3;1.6.3. solution of differential equation;error;runtime; -29;Linear Control Systems(B. S. Manke );110;1. INTRODUCTION;1.6.4;1.6.4. solution of differential equation;error;runtime; -29;Linear Control Systems(B. S. Manke );110;1. INTRODUCTION;1.6.5;1.6.5. initial value;error;runtime; -29;Linear Control Systems(B. S. Manke );110;1. INTRODUCTION;1.6.7;1.6.7. final value;error;runtime; -29;Linear Control Systems(B. S. Manke );110;1. INTRODUCTION;1.6.8;1.6.8. steady state value;error;runtime; -29;Linear Control Systems(B. S. Manke );110;1. INTRODUCTION;1.6.9;1.6.9. initial values;error;runtime; -29;Linear Control Systems(B. S. Manke );114;2. TRANSFER FUNCTIONS;2.4.1;2.4.1. pole zero plot;correct;runtime; -29;Linear Control Systems(B. S. Manke );114;2. TRANSFER FUNCTIONS;2.4.2;2.4.2. final value;error;runtime; -29;Linear Control Systems(B. S. Manke );115;3. BLOCK DIAGRAMS;3.2.1;3.2.1. Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );115;3. BLOCK DIAGRAMS;3.2.10;3.2.10. Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );115;3. BLOCK DIAGRAMS;3.2.11;3.2.11. Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );115;3. BLOCK DIAGRAMS;3.2.12;3.2.12. Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );115;3. BLOCK DIAGRAMS;3.2.13;3.2.13. Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );115;3. BLOCK DIAGRAMS;3.2.14;3.2.14. Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );115;3. BLOCK DIAGRAMS;3.2.15;3.2.15. Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );115;3. BLOCK DIAGRAMS;3.2.2;3.2.2. Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );115;3. BLOCK DIAGRAMS;3.2.3;3.2.3. Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );115;3. BLOCK DIAGRAMS;3.2.4;3.2.4. Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );115;3. BLOCK DIAGRAMS;3.2.5;3.2.5. Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );115;3. BLOCK DIAGRAMS;3.2.6;3.2.6. Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );115;3. BLOCK DIAGRAMS;3.2.7;3.2.7. Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );115;3. BLOCK DIAGRAMS;3.2.8;3.2.8. Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );115;3. BLOCK DIAGRAMS;3.2.9;3.2.9. Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );165;4. SIGNAL FLOW GRAPHS;4.3.1;4.3.1. Overall Transmittance;error;runtime; -29;Linear Control Systems(B. S. Manke );165;4. SIGNAL FLOW GRAPHS;4.3.2;4.3.2. Overall Transmittance;error;runtime; -29;Linear Control Systems(B. S. Manke );165;4. SIGNAL FLOW GRAPHS;4.4.1;4.4.1. Closed Loop Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );165;4. SIGNAL FLOW GRAPHS;4.4.10;4.4.10. Transfer function using mason gain formula;error;runtime; -29;Linear Control Systems(B. S. Manke );165;4. SIGNAL FLOW GRAPHS;4.4.2;4.4.2. Overall Gain;error;runtime; -29;Linear Control Systems(B. S. Manke );165;4. SIGNAL FLOW GRAPHS;4.4.3;4.4.3. to find various signal flow graph parameter;error;runtime; -29;Linear Control Systems(B. S. Manke );165;4. SIGNAL FLOW GRAPHS;4.4.4;4.4.4. Transfer function using mason gain formula;error;runtime; -29;Linear Control Systems(B. S. Manke );165;4. SIGNAL FLOW GRAPHS;4.4.5;4.4.5. Transfer function using mason gain formula;error;runtime; -29;Linear Control Systems(B. S. Manke );165;4. SIGNAL FLOW GRAPHS;4.4.6;4.4.6. Transfer function using mason gain formula;error;runtime; -29;Linear Control Systems(B. S. Manke );165;4. SIGNAL FLOW GRAPHS;4.4.7;4.4.7. Transfer function using mason gain formula;error;runtime; -29;Linear Control Systems(B. S. Manke );165;4. SIGNAL FLOW GRAPHS;4.4.8;4.4.8. Transfer function using mason gain formula;error;runtime; -29;Linear Control Systems(B. S. Manke );165;4. SIGNAL FLOW GRAPHS;4.4.9;4.4.9. Overall Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );172;5. MODELLING A CONTROL SYSTEM;5.9.10;5.9.10. Overall Transfer Function of given System;error;runtime; -29;Linear Control Systems(B. S. Manke );172;5. MODELLING A CONTROL SYSTEM;5.9.11;5.9.11. Overall Transfer Function of given System;correct;runtime; -29;Linear Control Systems(B. S. Manke );172;5. MODELLING A CONTROL SYSTEM;5.9.12;5.9.12. Overall Transfer Function of given System;correct;runtime; -29;Linear Control Systems(B. S. Manke );172;5. MODELLING A CONTROL SYSTEM;5.9.13;5.9.13. Overall Transfer Function of Two Phase ac Motor;correct;runtime; -29;Linear Control Systems(B. S. Manke );172;5. MODELLING A CONTROL SYSTEM;5.9.14;5.9.14. Transfer Function Of Motor;correct;runtime; -29;Linear Control Systems(B. S. Manke );172;5. MODELLING A CONTROL SYSTEM;5.9.4;5.9.4. Calculate Reference Voltage Vr;error;runtime; -29;Linear Control Systems(B. S. Manke );172;5. MODELLING A CONTROL SYSTEM;5.9.5;5.9.5. Calculate Reference Voltage Vr;error;runtime; -29;Linear Control Systems(B. S. Manke );172;5. MODELLING A CONTROL SYSTEM;5.9.6;5.9.6. Calculate Gain of Amplifier Ka;correct;runtime; -29;Linear Control Systems(B. S. Manke );172;5. MODELLING A CONTROL SYSTEM;5.9.7;5.9.7. Transfer Function of Generator;correct;runtime; -29;Linear Control Systems(B. S. Manke );172;5. MODELLING A CONTROL SYSTEM;5.9.8;5.9.8. Overall Transfer Function of given System;error;runtime; -29;Linear Control Systems(B. S. Manke );172;5. MODELLING A CONTROL SYSTEM;5.9.9;5.9.9. Overall Transfer Function of given System;correct;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.1;6.10.1. time response for step function;error;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.10;6.10.10. Determine Transfer Function Wn zeta;error;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.11;6.10.11. Determine Characterstics eq and Steady State Error;error;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.12;6.10.12. determine WnWd zeta and steady state error;error;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.13;6.10.13. determine K ts tp and Mp;error;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.14;6.10.14. determine Mp Ess and steady state value;error;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.16;6.10.16. determine Wn zeta and M;error;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.17;6.10.17. determine Kp Kv and Ka;error;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.18;6.10.18. determine Kp Kv and Ka;error;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.19;6.10.19. determine steady state error;error;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.2;6.10.2. Time Response for unit Impulse and Step function;error;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.20;6.10.20. determine steady state error and error coefficient;error;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.21;6.10.21. determine steady state error and error coefficient;error;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.22;6.10.22. determine voltage Er and change in terminalvoltage;correct;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.23;6.10.23. determine sensitivity wrt K and H;error;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.3;6.10.3. Time Response for Unit Step Function;error;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.4;6.10.4. Time Response for Unit Step Function;error;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.5;6.10.5. Calculate Wn zeta Wd tp Mp;correct;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.6;6.10.6. Time Response;correct;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.7;6.10.7. determine factor by which K should be reduced;error;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.8;6.10.8. Determine Steady State Speed and Error;error;runtime; -29;Linear Control Systems(B. S. Manke );176;6. TIME RESPONSE ANALYSIS OF CONTROL SYSTEMS;6.10.9;6.10.9. determine J f K;correct;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;1.0;1.0. root locus;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/29/CH1/EX1.0/: PATH DOES NOT EXIST -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;2.0;2.0. root locus;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/29/CH2/EX2.0/: PATH DOES NOT EXIST -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;3.0;3.0. root locus;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/29/CH3/EX3.0/: PATH DOES NOT EXIST -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.17.1;7.17.1. stability using Nyquist criterion;correct;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.17.18;7.17.18. gain phase plot;correct;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.17.2.i;7.17.2.i. stability using Nyquist criterion;correct;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.17.2.ii;7.17.2.ii. stability using Nyquist criterion;error;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.17.3;7.17.3. stability using Nyquist criterion;correct;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.17.5;7.17.5. Phase Margin;correct;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.17.7;7.17.7. stability using Nyquist criterion;correct;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.17.9;7.17.9. gain margin and phase margin;error;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.19.1;7.19.1. stability using bode plot;correct;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.19.2;7.19.2. gain margin and phase margin;correct;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.19.3;7.19.3. stability using bode plot;correct;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.24.1;7.24.1. root locus description;correct;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.24.10;7.24.10. Overall Transfer Function and Root Locus;correct;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.24.11;7.24.11. root locus;error;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.24.2;7.24.2. root locus description;error;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.24.3;7.24.3. root locus description;error;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.24.4;7.24.4. root locus;error;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.24.6;7.24.6. root locus;correct;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.24.7;7.24.7. root locus;error;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.24.8;7.24.8. root locus;error;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.24.9;7.24.9. root locus;correct;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.5.1;7.5.1. stability using Routh hurwitz criterion;correct;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.5.2;7.5.2. stability using Routh hurwitz criterion;correct;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.5.3;7.5.3. stability using Routh hurwitz criterion;correct;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.5.4;7.5.4. stability using Routh hurwitz criterion;correct;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.5.5;7.5.5. stability using Routh hurwitz criterion;error;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.5.6;7.5.6. stability using Routh hurwitz criterion;error;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.5.7.a;7.5.7.a. stability using Routh hurwitz criterion;error;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.5.7.b;7.5.7.b. value of K of characterstics equation;error;runtime; -29;Linear Control Systems(B. S. Manke );189;7. STABILITY ANALYSIS OF CONTROL SYSTEMS;7.5.8;7.5.8. value of K in terms of T1 and T2;error;runtime; -29;Linear Control Systems(B. S. Manke );190;8. COMPENSATION OF CONTROL SYSTEMS;8.6.1;8.6.1. design suitable compensator;correct;runtime; -29;Linear Control Systems(B. S. Manke );190;8. COMPENSATION OF CONTROL SYSTEMS;8.6.2;8.6.2. design phase lead compensator;correct;runtime; -29;Linear Control Systems(B. S. Manke );190;8. COMPENSATION OF CONTROL SYSTEMS;8.6.3;8.6.3. design suitable compensator;correct;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.10.10;9.10.10. Obtain State Matrix;correct;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.10.11;9.10.11. Obtain Time Response;error;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.10.12.i;9.10.12.i. Obtain Zero Input Response;error;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.10.12.ii;9.10.12.ii. Obtain Zero State Response;error;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.10.13;9.10.13. Obtain Time Response;correct;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.10.14;9.10.14. Obtain Time Response using Diagonalization Process;error;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.10.15;9.10.15. Obtain Time Response using Diagonalization Process;error;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.10.16;9.10.16. Determine Transfer Matrix;correct;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.10.17;9.10.17. Determine Transfer Matrix;correct;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.10.18;9.10.18. Determine Transfer Matrix;correct;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.10.20;9.10.20. Check for Contrallability of System;correct;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.10.21;9.10.21. Check for Contrallability and Observability;correct;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.10.22;9.10.22. Check for Contrallability and Observability;correct;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.10.4.a;9.10.4.a. Obtain State Matrix;correct;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.10.4.b;9.10.4.b. Obtain State Matrix;correct;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.10.5;9.10.5. Obtain State Matrix;correct;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.10.6;9.10.6. Obtain State Matrix;correct;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.10.7;9.10.7. Obtain State Matrix;correct;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.10.9;9.10.9. Obtain State Matrix;correct;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.8.1;9.8.1. Check for Contrallability of System;correct;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.8.2;9.8.2. Check for Contrallability of System;correct;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.9.1.a;9.9.1.a. Check for Observability of System;correct;runtime; -29;Linear Control Systems(B. S. Manke );191;9. INTRODUCTION TO STATE SPACE ANALYSIS OF CONTROL SYSTEMS;9.9.1.b;9.9.1.b. Check for Observability of System;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.1;11.1. pole zero Plot;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.10.a;11.10.a. calculate tr Tp Mp;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.10.b;11.10.b. calculate Td tr Tp Mp;error;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.11;11.11. expression for unit step response;error;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.12;11.12. unit step and impulse response;error;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.13;11.13. determine transfer function;error;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.14;11.14. determine Wn Wd Tp zeta and steady state error;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.15;11.15. determine Wn Wd zeta and steady state error;error;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.16;11.16. determine Kp Kv Ka;error;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.17;11.17. determine Kp Kv Ka;error;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.18;11.18. determine Kp Kv Ka;error;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.19;11.19. determine transfer function;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.2;11.2. transfer function;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.21.a;11.21.a. roots of characterstics equation;error;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.21.b;11.21.b. bode plot;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.22;11.22. gain margin and phase margin;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.24;11.24. stability using Nyquist criterion;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.25;11.25. stability using Nyquist criterion;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.26.i;11.26.i. stability using Nyquist criterion;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.26.ii;11.26.ii. stability using Nyquist criterion;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.27;11.27. root locus;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.28;11.28. root locus;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.29;11.29. root locus;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.3;11.3. transfer function;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.30;11.30. root locus;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.31;11.31. design lead compensator;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.32;11.32. nicholas chart;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.33;11.33. obtain state matrix;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.34;11.34. obtain state matrix;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.35;11.35. obtain state matrix;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.36;11.36. state transition matrix;error;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.37;11.37. check for contrallability of system;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.38;11.38. determine transfer function;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.39;11.39. determine transfer matrix;correct;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.4;11.4. determine Wn zeta and Mp;error;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.5;11.5. time response for unit step function;error;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.7;11.7. time response for unit step function;error;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.8;11.8. time response for unit step function;error;runtime; -29;Linear Control Systems(B. S. Manke );192;11. SOLUTION OF PROBLEMS USING COMPUTER;11.9;11.9. time response for unit step function;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.1;12.1. Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.10;12.10. Determine Unit Step Response;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.11;12.11. Determine Unit Step and Unit Impulse Response;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.12;12.12. Determine Wn Wd zeta and steady state error;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.13;12.13. Determine Wn Wd zeta and steady state error;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.15;12.15. Stability Using Routh Hurwitz Criterion;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.16;12.16. Stability Using Routh Hurwitz Criterion;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.17;12.17. Stability Using Routh Hurwitz Criterion;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.18;12.18. Stability Using Routh Hurwitz Criterion;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.19;12.19. Stability Using Routh Hurwitz Criterion;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.2;12.2. Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.21;12.21. Determine Frequency of Oscillations;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.23.i;12.23.i. Stability Using Nyquist Criterion;correct;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.23.ii;12.23.ii. Stability Using Nyquist Criterion;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.23.iii;12.23.iii. Stability Using Nyquist Criterion;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.27;12.27. Gain and Phase Margin;correct;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.3;12.3. Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.33;12.33. Determine Close Loop Stability;correct;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.4;12.4. Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.42;12.42. Root Locus;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.43;12.43. Root Locus and Value of K;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.44;12.44. Root Locus and Value of K;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.45;12.45. Root Locus and Value of K;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.46;12.46. Root Locus and Value of K;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.48;12.48. Root Locus and Value of K;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.49;12.49. Root Locus and Value of K;correct;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.5;12.5. Transfer Function;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.50;12.50. Root Locus and Closed loop Transfer Function;correct;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.51;12.51. Root Locus and Gain and Phase Margin;correct;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.54;12.54. Obtain State Matrix;correct;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.55;12.55. Obtain State Matrix;correct;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.56;12.56. Obtain State Transistion Matrix;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.57;12.57. Obtain Time Response;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.59;12.59. Obtain Time Response;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.61;12.61. Obtain Transfer Matrix;correct;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.7;12.7. Determine Peak Time and Peak Overshoot;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.8;12.8. Time Response and Peak Overshoot;error;runtime; -29;Linear Control Systems(B. S. Manke );193;12. CLASSIFIED SOLVED EXAMPLES;12.9;12.9. Determine Peak Overshoot;error;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.02;1.02. Effort required;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.03;1.03. To find out the actual pressure of air;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.04;1.04. To find out the guage pressure;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.05;1.05. To find out the pressure of the gas;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.06;1.06. To find out the change in temperature;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.07;1.07. To find out the spring balance reading;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.08;1.08. To determine the mass of the piston;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.09;1.09. To determine the pressure of the steam;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.1;1.1. To find out the pressure;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.10;1.10. To determine the absolute pressure in A and B;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.11;1.11. To determine the air pressure;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.12;1.12. To determine the kinetic energy;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.13;1.13. To determine the molecular weight of the gas;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.14;1.14. To determine the final temperature;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.15;1.15. To find out mass of air removed and volume at initial states;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.16;1.16. To determine heat to be supplied;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.17;1.17. To determine the final pressure;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.18;1.18. To determine the pressure of carbon di oxide gas;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.19;1.19. To find out the specific volume;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.20;1.20. To find out load lifting capacity;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.21;1.21. To find out the time required;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.22;1.22. To determine the specific heats;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.23;1.23. To determine partial pressure of gases;error;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.24;1.24. To find out the equilibrium pressure and temperature;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.25;1.25. To find out specific heat of the mixture;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.26;1.26. To determine capacity of the vessel;error;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.27;1.27. To determine the ratio of exit to inlet diameter;correct;runtime; -32;Applied Thermodynamics(O. Singh );313;1. Fundamental concepts and definitions;1.28;1.28. To determine the mass pumped out;correct;runtime; -32;Applied Thermodynamics(O. Singh );315;2. Zeroth law of thermodynamics;2.01;2.01. To find temperature in degree celcius;correct;runtime; -32;Applied Thermodynamics(O. Singh );315;2. Zeroth law of thermodynamics;2.02;2.02. To find final pressure and temperature;correct;runtime; -32;Applied Thermodynamics(O. Singh );315;2. Zeroth law of thermodynamics;2.03;2.03. To find out the temperature;correct;runtime; -32;Applied Thermodynamics(O. Singh );315;2. Zeroth law of thermodynamics;2.04;2.04. To find out variation in temperature;correct;runtime; -32;Applied Thermodynamics(O. Singh );315;2. Zeroth law of thermodynamics;2.05;2.05. To find out absolute zero temperature on new scale;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.01;3.01. To find out work done on the system;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.02;3.02. To find out the amount of heat required;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.03;3.03. To find out the amount of heat to be removed;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.04;3.04. To determine the work done;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.05;3.05. To determine the heat interaction;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.06;3.06. To determine the work done;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.07;3.07. To determine the heat transfer;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.08;3.08. To determine the exit velocity;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.09;3.09. To determine the heat to be transferred to the atmosphere;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.10;3.10. To determine the water circulation rate;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.11;3.11. To determine the steam supply rate;error;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.12;3.12. To determine the work done;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.13;3.13. To determine capacity of the generator;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.14;3.14. To determine the exit velocity;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.15;3.15. To determine the work done;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.16;3.16. To determine the work done;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.17;3.17. To determine the work done;error;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.18;3.18. To determine the work available;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.19;3.19. To determine the final pressure and temperature;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.20;3.20. To determine the heat to be transferred;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.21;3.21. To determine the heat to be transferred;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.22;3.22. To determine the duration;correct;runtime; -32;Applied Thermodynamics(O. Singh );318;3. First law of thermodynamics;3.23;3.23. To determine the work available from the turbine;correct;runtime; -32;Applied Thermodynamics(O. Singh );320;4. Second law of thermodynamics;4.02;4.02. To determine heat to be supplied;correct;runtime; -32;Applied Thermodynamics(O. Singh );320;4. Second law of thermodynamics;4.03;4.03. To determine the power required;correct;runtime; -32;Applied Thermodynamics(O. Singh );320;4. Second law of thermodynamics;4.04;4.04. To determine the heat transferred;correct;runtime; -32;Applied Thermodynamics(O. Singh );320;4. Second law of thermodynamics;4.05;4.05. To determine the minimum power required;correct;runtime; -32;Applied Thermodynamics(O. Singh );320;4. Second law of thermodynamics;4.06;4.06. To determine the power required;correct;runtime; -32;Applied Thermodynamics(O. Singh );320;4. Second law of thermodynamics;4.07;4.07. To determine the efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );320;4. Second law of thermodynamics;4.08;4.08. To determine the power required;correct;runtime; -32;Applied Thermodynamics(O. Singh );320;4. Second law of thermodynamics;4.10;4.10. To determine the efficiency of the engine and COP of refrigerator;correct;runtime; -32;Applied Thermodynamics(O. Singh );320;4. Second law of thermodynamics;4.11;4.11. To determine the maximum and minimum temperature in the cycle;correct;runtime; -32;Applied Thermodynamics(O. Singh );320;4. Second law of thermodynamics;4.12;4.12. To determine the heat transferred;correct;runtime; -32;Applied Thermodynamics(O. Singh );320;4. Second law of thermodynamics;4.13;4.13. To determine the energy taken from the reservoir;correct;runtime; -32;Applied Thermodynamics(O. Singh );320;4. Second law of thermodynamics;4.14;4.14. To determine temperature of the sink;correct;runtime; -32;Applied Thermodynamics(O. Singh );320;4. Second law of thermodynamics;4.15;4.15. To determine the ratio of heat rejected to body to the heat supplied by the reservoir;correct;runtime; -32;Applied Thermodynamics(O. Singh );320;4. Second law of thermodynamics;4.18;4.18. To determine the heat received from the highest temperature reservoir;correct;runtime; -32;Applied Thermodynamics(O. Singh );320;4. Second law of thermodynamics;4.19;4.19. To determine the change in enthalpy and Work done;correct;runtime; -32;Applied Thermodynamics(O. Singh );321;5. Entropy;5.01;5.01. To determine the change in entropy;correct;runtime; -32;Applied Thermodynamics(O. Singh );321;5. Entropy;5.02;5.02. To determine the change in entropy;correct;runtime; -32;Applied Thermodynamics(O. Singh );321;5. Entropy;5.03;5.03. To determine the change in entropy;correct;runtime; -32;Applied Thermodynamics(O. Singh );321;5. Entropy;5.04;5.04. To determine the entropy change in universe;correct;runtime; -32;Applied Thermodynamics(O. Singh );321;5. Entropy;5.05;5.05. To determine the entropy change in universe;correct;runtime; -32;Applied Thermodynamics(O. Singh );321;5. Entropy;5.06;5.06. To determine the entropy change in universe;correct;runtime; -32;Applied Thermodynamics(O. Singh );321;5. Entropy;5.08;5.08. To determine the work lost;correct;runtime; -32;Applied Thermodynamics(O. Singh );321;5. Entropy;5.09;5.09. To determine the maximum work done;correct;runtime; -32;Applied Thermodynamics(O. Singh );321;5. Entropy;5.10;5.10. To determine the change in entropy and enthalpy;correct;runtime; -32;Applied Thermodynamics(O. Singh );321;5. Entropy;5.11;5.11. To determine the entropy change in universe;correct;runtime; -32;Applied Thermodynamics(O. Singh );321;5. Entropy;5.12;5.12. To determine the change in entropy;correct;runtime; -32;Applied Thermodynamics(O. Singh );321;5. Entropy;5.15;5.15. To determine the direction of flow;correct;runtime; -32;Applied Thermodynamics(O. Singh );321;5. Entropy;5.17;5.17. To determine the work done and thermal efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );321;5. Entropy;5.18;5.18. To determine the heat supplied;correct;runtime; -32;Applied Thermodynamics(O. Singh );321;5. Entropy;5.19;5.19. To check if process is reversible or not;correct;runtime; -32;Applied Thermodynamics(O. Singh );321;5. Entropy;5.20;5.20. To determine the entropy produced;correct;runtime; -32;Applied Thermodynamics(O. Singh );321;5. Entropy;5.21;5.21. To determine the change in entropy;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.02;6.02. To determine the dryness fraction;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.03;6.03. To determine the internal energy;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.04;6.04. To find out the entropy of steam;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.05;6.05. To find out the boiling point;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.06;6.06. To determine mass and volume of water;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.07;6.07. To determine the slope;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.08;6.08. To determine enthalpy entropy and specific volume;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.09;6.09. To determine amount of heat added;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.10;6.10. To determine pressure and temperature at condensation;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.11;6.11. To determine enthalpy change;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.12;6.12. To determine the mass and quality of steam;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.13;6.13. To determine the turbine output;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.14;6.14. To determine the mass and quality of steam;error;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.15;6.15. To determine the dryness fraction of the steam entering;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.16;6.16. To determine the work done;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.17;6.17. To determine the dryness fraction;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.18;6.18. To determine the amount of heat added and initial quality;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.19;6.19. To determine heat and work transfer;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.20;6.20. To determine the percentage of vessel initial occupied by steam;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.21;6.21. To determine the irresversibilty;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.22;6.22. To determine the change in availability;correct;runtime; -32;Applied Thermodynamics(O. Singh );322;6. Thermodynamic Properties of Pure Substance;6.23;6.23. To determine the amount of exergy destruction;correct;runtime; -32;Applied Thermodynamics(O. Singh );323;7. Ratio of lost available exhaust gas energy to engine work;7.01;7.01. To determine the maximum possible work;correct;runtime; -32;Applied Thermodynamics(O. Singh );323;7. Ratio of lost available exhaust gas energy to engine work;7.02;7.02. To determine the availability in the tanks;correct;runtime; -32;Applied Thermodynamics(O. Singh );323;7. Ratio of lost available exhaust gas energy to engine work;7.03;7.03. To determine the power output;correct;runtime; -32;Applied Thermodynamics(O. Singh );323;7. Ratio of lost available exhaust gas energy to engine work;7.04;7.04. To determine the availability;correct;runtime; -32;Applied Thermodynamics(O. Singh );323;7. Ratio of lost available exhaust gas energy to engine work;7.06;7.06. To determine ratio of lost available exhaust gas energy to engine work;correct;runtime; -32;Applied Thermodynamics(O. Singh );323;7. Ratio of lost available exhaust gas energy to engine work;7.07;7.07. To determine the availability;correct;runtime; -32;Applied Thermodynamics(O. Singh );323;7. Ratio of lost available exhaust gas energy to engine work;7.08;7.08. To determine the irresversibilty;correct;runtime; -32;Applied Thermodynamics(O. Singh );323;7. Ratio of lost available exhaust gas energy to engine work;7.11;7.11. To determine loss of available energy;correct;runtime; -32;Applied Thermodynamics(O. Singh );323;7. Ratio of lost available exhaust gas energy to engine work;7.12;7.12. To determine the maximum possible work;correct;runtime; -32;Applied Thermodynamics(O. Singh );323;7. Ratio of lost available exhaust gas energy to engine work;7.13;7.13. To determine second law efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );323;7. Ratio of lost available exhaust gas energy to engine work;7.14;7.14. To determine loss of available energy;correct;runtime; -32;Applied Thermodynamics(O. Singh );323;7. Ratio of lost available exhaust gas energy to engine work;7.16;7.16. To determine the availability and change in irreversibility;correct;runtime; -32;Applied Thermodynamics(O. Singh );323;7. Ratio of lost available exhaust gas energy to engine work;7.17;7.17. To determine loss of available energy;correct;runtime; -32;Applied Thermodynamics(O. Singh );323;7. Ratio of lost available exhaust gas energy to engine work;7.19;7.19. To calculate enthalpy of vaporisation;correct;runtime; -32;Applied Thermodynamics(O. Singh );323;7. Ratio of lost available exhaust gas energy to engine work;7.20;7.20. To determine enthalpy;correct;runtime; -32;Applied Thermodynamics(O. Singh );323;7. Ratio of lost available exhaust gas energy to engine work;7.21;7.21. To determine isothermal compressibility;correct;runtime; -32;Applied Thermodynamics(O. Singh );323;7. Ratio of lost available exhaust gas energy to engine work;7.22;7.22. To determine the irresversibilty;correct;runtime; -32;Applied Thermodynamics(O. Singh );323;7. Ratio of lost available exhaust gas energy to engine work;7.23;7.23. To determine the maximum work;correct;runtime; -32;Applied Thermodynamics(O. Singh );323;7. Ratio of lost available exhaust gas energy to engine work;7.24;7.24. To determine the irresversibilty;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.01;8.01. To determine the work done and thermal efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.02;8.02. To determine the efficiency of rankine cycle;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.03;8.03. To determine cycle efficiency and pump work;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.04;8.04. To determine pressure of steam leaving and thermal efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.05;8.05. To determine the work done and thermal efficiency and ratio of heat supplied to rejected;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.06;8.06. To determine cycle efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.07;8.07. To determine cycle efficiency and specific steam consumption and work ratio;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.08;8.08. To determine efficiency of the boiler;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.09;8.09. To determine capacity of the drain pump;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.10;8.10. To determine the thermal efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.11;8.11. To determine cycle thermal efficiency and net power developed;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.12;8.12. To determine thermal efficiency and steam generation rate;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.13;8.13. To determine the thermal efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.15;8.15. To determine the thermal efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.16;8.16. To determine cycle thermal efficiency and net power developed;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.17;8.17. To determine the amount of heat added;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.18;8.18. To determine the thermal efficiency and amount of steam bled;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.19;8.19. To determine mass of steam bled;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.20;8.20. To determine power available to the generator;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.21;8.21. To determine heat consumption in the boiler;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.22;8.22. To determine total power produced;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.23;8.23. To determine heat available for heating process;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.24;8.24. To determine steam consumption;correct;runtime; -32;Applied Thermodynamics(O. Singh );324;8. Vapour power cycles;8.25;8.25. To the determine the power generated;correct;runtime; -32;Applied Thermodynamics(O. Singh );329;9. Gas power cycles;9.01;9.01. To determine the mep;correct;runtime; -32;Applied Thermodynamics(O. Singh );329;9. Gas power cycles;9.02;9.02. To determine the compression ratio;correct;runtime; -32;Applied Thermodynamics(O. Singh );329;9. Gas power cycles;9.03;9.03. To find out the efficiencies;correct;runtime; -32;Applied Thermodynamics(O. Singh );329;9. Gas power cycles;9.04;9.04. To determine the compressor efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );329;9. Gas power cycles;9.05;9.05. To determine the thermal efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );329;9. Gas power cycles;9.06;9.06. To determine optimum pressure ratio;correct;runtime; -32;Applied Thermodynamics(O. Singh );329;9. Gas power cycles;9.07;9.07. To determine the power required;correct;runtime; -32;Applied Thermodynamics(O. Singh );329;9. Gas power cycles;9.09;9.09. To determine specific work output;correct;runtime; -32;Applied Thermodynamics(O. Singh );329;9. Gas power cycles;9.10;9.10. To determine isentropic efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );329;9. Gas power cycles;9.11;9.11. To determine the thermal efficiency and air fuel ratio;correct;runtime; -32;Applied Thermodynamics(O. Singh );329;9. Gas power cycles;9.12;9.12. To determine the thermal efficiency;error;runtime; -32;Applied Thermodynamics(O. Singh );329;9. Gas power cycles;9.13;9.13. To determine the brake output and stroke volume;correct;runtime; -32;Applied Thermodynamics(O. Singh );329;9. Gas power cycles;9.15;9.15. To determine the overall efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );329;9. Gas power cycles;9.16;9.16. To determine air standard fuel efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.01;11.01. To determine temperature of burnt gases;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.02;11.02. To determine height of the chimney;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.03;11.03. To determine the air supplied and draught;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.04;11.04. To determine the draught and chimney efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.05;11.05. To determine the draught and chimney efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.06;11.06. To determine height and diamter of the chimney;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.07;11.07. To determine power of the fan;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.08;11.08. To determine the ratio of power required;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.09;11.09. To determine amount of evaporation;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.10;11.10. To determine amount of evaporation;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.11;11.11. To determine boiler efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.12;11.12. Boiler efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.13;11.13. Boiler efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.14;11.14. Air leakage;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.15;11.15. Boiler efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.17;11.17. Saving of coal;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.18;11.18. Temperature of flue gases;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.19;11.19. FD fan power;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.20;11.20. EXtra heat carried in natural draught;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.21;11.21. Height of chimney;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.22;11.22. Power consumption of induced draught;correct;runtime; -32;Applied Thermodynamics(O. Singh );333;11. Boilers and boiler calculations;11.23;11.23. Energy consumed in superheater;correct;runtime; -32;Applied Thermodynamics(O. Singh );336;12. Steam engine;12.01;12.01. Rankine and carnot efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );336;12. Steam engine;12.02;12.02. Carnot efficiency and stroke length;correct;runtime; -32;Applied Thermodynamics(O. Singh );336;12. Steam engine;12.03;12.03. Indicated power;correct;runtime; -32;Applied Thermodynamics(O. Singh );336;12. Steam engine;12.04;12.04. Specific steam consumption;correct;runtime; -32;Applied Thermodynamics(O. Singh );336;12. Steam engine;12.05;12.05. Diagram factor and indicated thermal efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );336;12. Steam engine;12.06;12.06. Thermal efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );336;12. Steam engine;12.07;12.07. Bore diameter;correct;runtime; -32;Applied Thermodynamics(O. Singh );336;12. Steam engine;12.08;12.08. Heat leakage;correct;runtime; -32;Applied Thermodynamics(O. Singh );336;12. Steam engine;12.09;12.09. Percentage re evaporation;correct;runtime; -32;Applied Thermodynamics(O. Singh );336;12. Steam engine;12.10;12.10. Indicated power;correct;runtime; -32;Applied Thermodynamics(O. Singh );336;12. Steam engine;12.11;12.11. Indicated power;correct;runtime; -32;Applied Thermodynamics(O. Singh );336;12. Steam engine;12.12;12.12. Speed of engine and diameter of cylinder;correct;runtime; -32;Applied Thermodynamics(O. Singh );336;12. Steam engine;12.13;12.13. Overall diagram factor;correct;runtime; -32;Applied Thermodynamics(O. Singh );336;12. Steam engine;12.14;12.14. Total output;correct;runtime; -32;Applied Thermodynamics(O. Singh );336;12. Steam engine;12.15;12.15. Steam used per hp;correct;runtime; -32;Applied Thermodynamics(O. Singh );336;12. Steam engine;12.16;12.16. Brake specific steam consumption;correct;runtime; -32;Applied Thermodynamics(O. Singh );336;12. Steam engine;12.17;12.17. Indicated steam consumption;correct;runtime; -32;Applied Thermodynamics(O. Singh );338;13. Nozzles;13.01;13.01. Dryness fraction;correct;runtime; -32;Applied Thermodynamics(O. Singh );338;13. Nozzles;13.02;13.02. Mass flow rate;correct;runtime; -32;Applied Thermodynamics(O. Singh );338;13. Nozzles;13.03;13.03. Coefficient of velocity;correct;runtime; -32;Applied Thermodynamics(O. Singh );338;13. Nozzles;13.04;13.04. Area at exit;correct;runtime; -32;Applied Thermodynamics(O. Singh );338;13. Nozzles;13.05;13.05. Area at exit;correct;runtime; -32;Applied Thermodynamics(O. Singh );338;13. Nozzles;13.06;13.06. Velocity at throat and cone angle;correct;runtime; -32;Applied Thermodynamics(O. Singh );338;13. Nozzles;13.07;13.07. Length and radial height of nozzle;correct;runtime; -32;Applied Thermodynamics(O. Singh );338;13. Nozzles;13.08;13.08. Exit velocity;correct;runtime; -32;Applied Thermodynamics(O. Singh );338;13. Nozzles;13.09;13.09. Nozzle efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );338;13. Nozzles;13.10;13.10. Degree of supersaturaion and amount of undercooling;correct;runtime; -32;Applied Thermodynamics(O. Singh );338;13. Nozzles;13.11;13.11. Degree of undercooling;correct;runtime; -32;Applied Thermodynamics(O. Singh );338;13. Nozzles;13.12;13.12. Percentage increase in discharge;correct;runtime; -32;Applied Thermodynamics(O. Singh );338;13. Nozzles;13.13;13.13. Entropy change;correct;runtime; -32;Applied Thermodynamics(O. Singh );338;13. Nozzles;13.14;13.14. Temperature of water coming out of injector;correct;runtime; -32;Applied Thermodynamics(O. Singh );338;13. Nozzles;13.15;13.15. Mass flow rate;correct;runtime; -32;Applied Thermodynamics(O. Singh );339;15. Steam condenser;15.01;15.01. Mass flow rate and vacuum efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );339;15. Steam condenser;15.02;15.02. Mass of water vapour accompanying steam;correct;runtime; -32;Applied Thermodynamics(O. Singh );339;15. Steam condenser;15.03;15.03. Mass of uncondensed steam;correct;runtime; -32;Applied Thermodynamics(O. Singh );339;15. Steam condenser;15.04;15.04. Mass of water vapour extracted with air;correct;runtime; -32;Applied Thermodynamics(O. Singh );339;15. Steam condenser;15.05;15.05. Water circulation rate;correct;runtime; -32;Applied Thermodynamics(O. Singh );339;15. Steam condenser;15.06;15.06. Heat required;correct;runtime; -32;Applied Thermodynamics(O. Singh );339;15. Steam condenser;15.07;15.07. Capacity of air pump;correct;runtime; -32;Applied Thermodynamics(O. Singh );339;15. Steam condenser;15.08;15.08. Mass of air entering;correct;runtime; -32;Applied Thermodynamics(O. Singh );339;15. Steam condenser;15.09;15.09. Volume of air and mixture handled;correct;runtime; -32;Applied Thermodynamics(O. Singh );339;15. Steam condenser;15.10;15.10. Degree of undercooling;correct;runtime; -32;Applied Thermodynamics(O. Singh );340;16. Reciprocating and Rotary Compressor;16.01;16.01. Isothermal efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );340;16. Reciprocating and Rotary Compressor;16.02;16.02. Rating of drive;correct;runtime; -32;Applied Thermodynamics(O. Singh );340;16. Reciprocating and Rotary Compressor;16.03;16.03. Isothermal efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );340;16. Reciprocating and Rotary Compressor;16.04;16.04. Volumetric efficiency;error;runtime; -32;Applied Thermodynamics(O. Singh );340;16. Reciprocating and Rotary Compressor;16.05;16.05. Percentage excess work;correct;runtime; -32;Applied Thermodynamics(O. Singh );340;16. Reciprocating and Rotary Compressor;16.06;16.06. Work input;correct;runtime; -32;Applied Thermodynamics(O. Singh );340;16. Reciprocating and Rotary Compressor;16.07;16.07. Work output;correct;runtime; -32;Applied Thermodynamics(O. Singh );340;16. Reciprocating and Rotary Compressor;16.08;16.08. Isothermal efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );340;16. Reciprocating and Rotary Compressor;16.09;16.09. Heat rejected in intercooler;correct;runtime; -32;Applied Thermodynamics(O. Singh );340;16. Reciprocating and Rotary Compressor;16.10;16.10. Free air delivery;error;runtime; -32;Applied Thermodynamics(O. Singh );340;16. Reciprocating and Rotary Compressor;16.11;16.11. Shaft output;correct;runtime; -32;Applied Thermodynamics(O. Singh );340;16. Reciprocating and Rotary Compressor;16.12;16.12. Number of stages;correct;runtime; -32;Applied Thermodynamics(O. Singh );340;16. Reciprocating and Rotary Compressor;16.13;16.13. Work done;correct;runtime; -32;Applied Thermodynamics(O. Singh );340;16. Reciprocating and Rotary Compressor;16.14;16.14. Total work required;correct;runtime; -32;Applied Thermodynamics(O. Singh );340;16. Reciprocating and Rotary Compressor;16.15;16.15. Isentropic efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );340;16. Reciprocating and Rotary Compressor;16.16;16.16. Indicated power required and isentropic efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );340;16. Reciprocating and Rotary Compressor;16.17;16.17. Brake power required;correct;runtime; -32;Applied Thermodynamics(O. Singh );340;16. Reciprocating and Rotary Compressor;16.18;16.18. Volumetric efficiency and heat rejected;correct;runtime; -32;Applied Thermodynamics(O. Singh );341;17. Introduction to Internal Combustion Engines;17.01;17.01. Indicated power and mechanical efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );341;17. Introduction to Internal Combustion Engines;17.02;17.02. Power required to drive;correct;runtime; -32;Applied Thermodynamics(O. Singh );341;17. Introduction to Internal Combustion Engines;17.03;17.03. Indicated power;correct;runtime; -32;Applied Thermodynamics(O. Singh );341;17. Introduction to Internal Combustion Engines;17.04;17.04. Brake power and fuel consumption;correct;runtime; -32;Applied Thermodynamics(O. Singh );341;17. Introduction to Internal Combustion Engines;17.05;17.05. Volumetric efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );341;17. Introduction to Internal Combustion Engines;17.06;17.06. Brake power required;correct;runtime; -32;Applied Thermodynamics(O. Singh );341;17. Introduction to Internal Combustion Engines;17.07;17.07. Brake power and indicated power;correct;runtime; -32;Applied Thermodynamics(O. Singh );341;17. Introduction to Internal Combustion Engines;17.08;17.08. Indicated power and volumetric efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );341;17. Introduction to Internal Combustion Engines;17.09;17.09. Brake power and indicated power;correct;runtime; -32;Applied Thermodynamics(O. Singh );341;17. Introduction to Internal Combustion Engines;17.10;17.10. Indicated thermal efficiency;correct;runtime; -32;Applied Thermodynamics(O. Singh );342;18. Introduction to Refrigeration and Airconditioning;18.01;18.01. Work input;correct;runtime; -32;Applied Thermodynamics(O. Singh );342;18. Introduction to Refrigeration and Airconditioning;18.02;18.02. HP required;correct;runtime; -32;Applied Thermodynamics(O. Singh );342;18. Introduction to Refrigeration and Airconditioning;18.03;18.03. Temperature of surroundings;correct;runtime; -32;Applied Thermodynamics(O. Singh );342;18. Introduction to Refrigeration and Airconditioning;18.04;18.04. Refrigeration capacity and COP;correct;runtime; -32;Applied Thermodynamics(O. Singh );342;18. Introduction to Refrigeration and Airconditioning;18.05;18.05. COP;correct;runtime; -32;Applied Thermodynamics(O. Singh );342;18. Introduction to Refrigeration and Airconditioning;18.06;18.06. Refrigeration capacity and COP;correct;runtime; -32;Applied Thermodynamics(O. Singh );342;18. Introduction to Refrigeration and Airconditioning;18.07;18.07. Mass flow rate and COP;error;runtime; -32;Applied Thermodynamics(O. Singh );342;18. Introduction to Refrigeration and Airconditioning;18.08;18.08. COP and HP required;correct;runtime; -32;Applied Thermodynamics(O. Singh );342;18. Introduction to Refrigeration and Airconditioning;18.09;18.09. COP;correct;runtime; -32;Applied Thermodynamics(O. Singh );342;18. Introduction to Refrigeration and Airconditioning;18.10;18.10. COP and piston displacement;correct;runtime; -32;Applied Thermodynamics(O. Singh );342;18. Introduction to Refrigeration and Airconditioning;18.11;18.11. Mass flow rate and COP;correct;runtime; -32;Applied Thermodynamics(O. Singh );342;18. Introduction to Refrigeration and Airconditioning;18.12;18.12. Partial pressure of vapour and relative humidity;correct;runtime; -32;Applied Thermodynamics(O. Singh );342;18. Introduction to Refrigeration and Airconditioning;18.13;18.13. Enthalpy of mixture;error;runtime; -32;Applied Thermodynamics(O. Singh );342;18. Introduction to Refrigeration and Airconditioning;18.14;18.14. Mass of water added and heat transferred;correct;runtime; -32;Applied Thermodynamics(O. Singh );342;18. Introduction to Refrigeration and Airconditioning;18.15;18.15. Specific humidity of mixture;error;runtime; -32;Applied Thermodynamics(O. Singh );342;18. Introduction to Refrigeration and Airconditioning;18.16;18.16. Heat added;correct;runtime; -32;Applied Thermodynamics(O. Singh );344;19. Jet Propulsion and Rocket Engines;19.01;19.01. Thrust;correct;runtime; -32;Applied Thermodynamics(O. Singh );344;19. Jet Propulsion and Rocket Engines;19.02;19.02. Thrust;correct;runtime; -32;Applied Thermodynamics(O. Singh );344;19. Jet Propulsion and Rocket Engines;19.03;19.03. Specific fuel consumption;correct;runtime; -32;Applied Thermodynamics(O. Singh );344;19. Jet Propulsion and Rocket Engines;19.04;19.04. Specific fuel consumption;correct;runtime; -32;Applied Thermodynamics(O. Singh );344;19. Jet Propulsion and Rocket Engines;19.05;19.05. Velocity at exit of nozzle;correct;runtime; -32;Applied Thermodynamics(O. Singh );344;19. Jet Propulsion and Rocket Engines;19.06;19.06. Total thrust;correct;runtime; -32;Applied Thermodynamics(O. Singh );344;19. Jet Propulsion and Rocket Engines;19.07;19.07. Jet exit area;correct;runtime; -32;Applied Thermodynamics(O. Singh );344;19. Jet Propulsion and Rocket Engines;19.08;19.08. Jet diameter;correct;runtime; -32;Applied Thermodynamics(O. Singh );344;19. Jet Propulsion and Rocket Engines;19.09;19.09. Specific thrust;correct;runtime; -32;Applied Thermodynamics(O. Singh );344;19. Jet Propulsion and Rocket Engines;19.10;19.10. Overall efficiency;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);27;1. Relativity;1.1;1.1. Speed of spaceship relative to Earth;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);27;1. Relativity;1.11;1.11. Speed of Spacecraft Beta;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);27;1. Relativity;1.2;1.2. Fine imposed on speeding driver;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);27;1. Relativity;1.3;1.3. Red shift in green spectral line;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);27;1. Relativity;1.4;1.4. Signals received by Dick and Jane;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);27;1. Relativity;1.6;1.6. Mass of body before explosion;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);27;1. Relativity;1.7;1.7. Mass of Sun lost in radiation;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);27;1. Relativity;1.8;1.8. Total energy for electron and photon;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);374;2. Particle Properties of Waves;2.1;2.1. Energy of Tuning fork and Atomic oscillator;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);374;2. Particle Properties of Waves;2.2;2.2. Photoelectric effect;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);374;2. Particle Properties of Waves;2.3;2.3. Shortest possible x ray wavelength;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);374;2. Particle Properties of Waves;2.4;2.4. X rays;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);374;2. Particle Properties of Waves;2.6;2.6. Energy of protons;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);374;2. Particle Properties of Waves;2.7;2.7. Linear attenuation;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);374;2. Particle Properties of Waves;2.8;2.8. Frequency of falling photon;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);47;3. Wave Properties of Particles;3.1;3.1. De Broglie wavelength;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);47;3. Wave Properties of Particles;3.2;3.2. Kinetic energy;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);47;3. Wave Properties of Particles;3.3;3.3. Kinetic energy and phase and group velocity;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);47;3. Wave Properties of Particles;3.4;3.4. Permitted energies of electron;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);47;3. Wave Properties of Particles;3.5;3.5. Permitted energies of marble;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);47;3. Wave Properties of Particles;3.6;3.6. Uncertainty in position;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);47;3. Wave Properties of Particles;3.7;3.7. Minimum energy of electron;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);47;3. Wave Properties of Particles;3.8;3.8. Minimum energy for electron;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);47;3. Wave Properties of Particles;3.9;3.9. Uncertainty in frequency;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);402;4. Atomic Structure;4.1;4.1. Orbital radius and velocity of electron;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);402;4. Atomic Structure;4.2;4.2. Energy transferred in inelastic collision;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);402;4. Atomic Structure;4.3;4.3. Rydberg Atom;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);402;4. Atomic Structure;4.4;4.4. Longest wavelength in Balmer series;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);402;4. Atomic Structure;4.5;4.5. Revolution of electrons;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);402;4. Atomic Structure;4.7;4.7. Muonic atom;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);402;4. Atomic Structure;4.8;4.8. Alpha particles;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);403;5. Quantum Mechanics;5.4;5.4. Positional probability;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);403;5. Quantum Mechanics;5.6;5.6. Transmission probability;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);404;6. Quantum Theory of the Hydrogen Atom;6.4;6.4. Zeeman components;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);405;7. Many Electron Atoms;7.1;7.1. Equatorial velocity of electron;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);405;7. Many Electron Atoms;7.2;7.2. Effective charge on outer electron;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);405;7. Many Electron Atoms;7.3;7.3. Magnetic energy for electron;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);405;7. Many Electron Atoms;7.8;7.8. X ray lines;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);406;8. Molecules;8.1;8.1. Energy and angular velocity;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);406;8. Molecules;8.2;8.2. Bond length of CO;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);406;8. Molecules;8.3;8.3. Infrared radiation by CO;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);407;9. Statistical Mechanics;9.1;9.1. Atoms of hydrogen;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);407;9. Statistical Mechanics;9.4;9.4. RMS speed of oxygen molecule;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);407;9. Statistical Mechanics;9.5;9.5. Photons;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);407;9. Statistical Mechanics;9.6;9.6. Energy density of radiation;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);407;9. Statistical Mechanics;9.7;9.7. Surface temperature of sun;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);407;9. Statistical Mechanics;9.8;9.8. Fermi energy in copper;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);408;10. The Solid State;10.1;10.1. Cohesive energy in NaCl;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);408;10. The Solid State;10.2;10.2. Drift velocity;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);408;10. The Solid State;10.3;10.3. Mean free path;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);409;11. Nuclear Structure;11.1;11.1. Density of Carbon12 nucleus;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);409;11. Nuclear Structure;11.2;11.2. Repulsive electric force;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);409;11. Nuclear Structure;11.3;11.3. Proton in a magnetic field;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);409;11. Nuclear Structure;11.4;11.4. Atomic mass of Neon20 isotope;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);409;11. Nuclear Structure;11.6;11.6. Binding energy of Zinc64 isotope;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);410;12. Nuclear Transformations;12.10;12.10. Irradiation of gold foil;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);410;12. Nuclear Transformations;12.11;12.11. Alpha particle in lab system;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);410;12. Nuclear Transformations;12.2;12.2. Decay time for radon;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);410;12. Nuclear Transformations;12.3;12.3. Activity of Radon;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);410;12. Nuclear Transformations;12.4;12.4. Activity of Radon after a week;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);410;12. Nuclear Transformations;12.5;12.5. Carbon dating;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);410;12. Nuclear Transformations;12.6;12.6. Half life of Uranium238;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);410;12. Nuclear Transformations;12.7;12.7. Daughter nuclide of Polonium;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);410;12. Nuclear Transformations;12.8;12.8. Absoprtion of neutron by Cadmium;correct;runtime; -34;Concepts Of Modern Physics(A. Beiser);410;12. Nuclear Transformations;12.9;12.9. Thermal neutrons;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);85;1. Introduction To Data Structures;1.1;1.1. To calcualte Average And Deviation;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);85;1. Introduction To Data Structures;1.1.4;1.1.4. Decimal form of given no represented variably;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);85;1. Introduction To Data Structures;1.1.5;1.1.5. Add Substract And Multiply binary numbers;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);85;1. Introduction To Data Structures;1.1.7;1.1.7. TO Convert Binary To Ternary;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);85;1. Introduction To Data Structures;1.2;1.2. String Manipulations;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);85;1. Introduction To Data Structures;1.2.1;1.2.1. Calculate Median And Mode Of an Array;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);85;1. Introduction To Data Structures;1.2.6;1.2.6. Finding the adress in a row major array;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);85;1. Introduction To Data Structures;1.3;1.3. Writing name from structure and counting alphabets;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);85;1. Introduction To Data Structures;1.3.1;1.3.1. Implementing Complex Numbers by structure;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);85;1. Introduction To Data Structures;1.3.6;1.3.6. Adding Substracting and multiplying Rational Nos;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);85;1. Introduction To Data Structures;1.3.7;1.3.7. Checking Equality Of 2 Rational Numbers;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);85;1. Introduction To Data Structures;1.4;1.4. Raising the salary of employee;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);85;1. Introduction To Data Structures;1.5;1.5. Reducing the given rational number;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);85;1. Introduction To Data Structures;1.6;1.6. Equality check of 2 rational nos by reduction;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);86;2. Stacks;2.1;2.1. To determine the syntacticaly valid string;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);86;2. Stacks;2.1.2;2.1.2. To determine the syntacticaly valid string;warning;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);86;2. Stacks;2.2;2.2. Implementing Stack using union;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);86;2. Stacks;2.2.3;2.2.3. Check if string is of certain form;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);86;2. Stacks;2.3;2.3. Implementing Push And Pop Functions;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);86;2. Stacks;2.4;2.4. Convering an infix expression to a Postfix Express;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);87;3. Recursion;3.1;3.1. Multiplication of 2 numbers;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);87;3. Recursion;3.2;3.2. Factorial of a number;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);87;3. Recursion;3.3;3.3. Fibbonacci series;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);87;3. Recursion;3.4;3.4. Binary Search;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);87;3. Recursion;3.5;3.5. Tower Of Hanoi;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);87;3. Recursion;3.6;3.6. Prefix To Postfix Conversion;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);87;3. Recursion;3.7;3.7. Simulating Factorial By Non recursion;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);88;4. Queues and linked list;4.1;4.1. Implementing Singly Connected Linked List;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);88;4. Queues and linked list;4.2;4.2. Implementing Queue Operarions;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);88;4. Queues and linked list;4.3;4.3. Implementing Circular Linked List;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);88;4. Queues and linked list;4.4;4.4. Implementing Doubly connected Linked List;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);88;4. Queues and linked list;4.5;4.5. Implementing Stack using circular Linked list;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);88;4. Queues and linked list;4.6;4.6. Implementing Priority Queue Using Lists;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);90;5. Trees;5.1;5.1. Implementing Binary Tree;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);90;5. Trees;5.2;5.2. Tree Trversal Techniques;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);90;5. Trees;5.3;5.3. Implementing And traversing a Binary Search Tree;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);90;5. Trees;5.4;5.4. Checking the duplicate number using BST;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);91;6. Sorting;6.1;6.1. Bubble Sort;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);91;6. Sorting;6.2;6.2. Quick Sort;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);91;6. Sorting;6.3;6.3. Selection Sort;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);91;6. Sorting;6.4;6.4. Insertion Sort;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);91;6. Sorting;6.5;6.5. Shell sort;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);91;6. Sorting;6.6;6.6. Merge Sort;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);91;6. Sorting;6.7;6.7. Binary Tree Sort;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);92;7. Searching;7.1;7.1. Sequential Search;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);92;7. Searching;7.2;7.2. Sorted sequential search;error;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);92;7. Searching;7.3;7.3. Binary Search;error;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);89;8. Graphs;8.1;8.1. Simple Graph Functions;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);89;8. Graphs;8.2;8.2. Finding The Number Of Paths From One VertexToOther;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);89;8. Graphs;8.3;8.3. Finding The Number Of Simple Paths From One Point;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);89;8. Graphs;8.4;8.4. Finding Transitive Closure;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);89;8. Graphs;8.5;8.5. Warshalls Algorithm;error;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);89;8. Graphs;8.6;8.6. Depth First Search Traversal;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);89;8. Graphs;8.7;8.7. BFS Traversal;correct;runtime; -37;Data Structures Using C And C++(Y. Langsam, M. Augenstein And A. M. Tenenbaum);89;8. Graphs;8.8;8.8. Dijkstras Algorithm;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);461;1. Magnetic Circuits and Magnetic Materials;1.1;1.1. Finding reluctances and flux;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);461;1. Magnetic Circuits and Magnetic Materials;1.2;1.2. Finding air gap flux;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);461;1. Magnetic Circuits and Magnetic Materials;1.4b;1.4b. Finding Induced voltage of a magnetic circuit;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);461;1. Magnetic Circuits and Magnetic Materials;1.5;1.5. Finding current from dc magnetization curve;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);461;1. Magnetic Circuits and Magnetic Materials;1.6a;1.6a. Finding applied voltage to the windinds with magnetic core;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);461;1. Magnetic Circuits and Magnetic Materials;1.8;1.8. Finding minimum magnet volume;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);462;2. Transformers;2.1;2.1. Finding power factor and core loss current;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);462;2. Transformers;2.3;2.3. Finding peak mmf and flux;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);462;2. Transformers;2.4;2.4. Finding regulation;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);462;2. Transformers;2.5;2.5. Finding kVA rating;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);462;2. Transformers;2.7;2.7. Finding current in feeder wires;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);462;2. Transformers;2.8;2.8. Finding per unit system;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);462;2. Transformers;2.9;2.9. Finding current in feeder wires in per unit;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);468;3. Electromechanical Energy Conversion Principles;3.1;3.1. Finding Torque acting on the rotor;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);468;3. Electromechanical Energy Conversion Principles;3.2;3.2. Finding magnetic stored energy;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);468;3. Electromechanical Energy Conversion Principles;3.3;3.3. Finding force on the plunger;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);468;3. Electromechanical Energy Conversion Principles;3.4;3.4. Finding Torque acting on the rotor;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);468;3. Electromechanical Energy Conversion Principles;3.5;3.5. Finding Torue of given system;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);464;4. Rotating Machine Basic Concept;4.1;4.1. Finding peak mmf and flux;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);463;5. Synchronous Machines in Steady State;5.1;5.1. Finding unsaturated value of the synchronous reactance and the SCR ratio;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);463;5. Synchronous Machines in Steady State;5.2;5.2. Finding effective armature resistance;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);463;5. Synchronous Machines in Steady State;5.3;5.3. Finding maximum torque deliver by motor when it is supplied with the power from infinite bus and turbine generator;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);463;5. Synchronous Machines in Steady State;5.4;5.4. Finding efficiency of machine;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);473;6. Synchronous Machines A Transient Performance;6.2a;6.2a. Graph on steady state and transient power angle characteristics;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);473;6. Synchronous Machines A Transient Performance;6.2b;6.2b. Graph on steady state and transient power angle characteristics;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);465;7. Polyphase Induction Machines;7.1;7.1. Finding stator current and efficiency;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);465;7. Polyphase Induction Machines;7.2;7.2. Finding internal torque;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);465;7. Polyphase Induction Machines;7.3;7.3. Finding internal starting torque;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);466;8. Polyphase Induction Machines Dynamics and Control;8.3;8.3. Finding short circuit current;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);467;9. DC Machines in Steady State;9.1;9.1. Finding electromagnetic torque;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);467;9. DC Machines in Steady State;9.2;9.2. Finding terminal voltage;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);467;9. DC Machines in Steady State;9.4;9.4. Finding speed and output power;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);474;10. Variable Reluctance Machines;10.1a;10.1a. Finding maximum inductance for phase;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);474;10. Variable Reluctance Machines;10.4;10.4. Finding switching times T on and T off;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);475;11. Fractional and subfractional Horsepower Motors;11.2;11.2. Finding efficiency at rated voltage and frequency with starting winding open;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);475;11. Fractional and subfractional Horsepower Motors;11.3d;11.3d. Finding internal mechanical power;correct;runtime; -38;Electric Machinery(A. E. Fitzgerald, C. Kingsley And S. D. Umans);475;11. Fractional and subfractional Horsepower Motors;11.6;11.6. Finding speed voltage constant;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);24;2. Discrete Signals;2.1a;2.1a. Signal energy and power;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);24;2. Discrete Signals;2.1b;2.1b. Average power of periodic signals;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);24;2. Discrete Signals;2.1c;2.1c. Average power of periodic signals;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);24;2. Discrete Signals;2.2;2.2. Operations on Discrete Signals;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);24;2. Discrete Signals;2.3a;2.3a. Even and Odd parts of Discrete signals;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);24;2. Discrete Signals;2.3b;2.3b. Even and Odd parts of Discrete signals;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);24;2. Discrete Signals;2.4a;2.4a. Decimation and Interpolation of Discrete signals;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);24;2. Discrete Signals;2.4b;2.4b. Decimation and Interpolation of Discrete signals;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);24;2. Discrete Signals;2.4c;2.4c. Decimation and Interpolation of Discrete signals;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);24;2. Discrete Signals;2.4d;2.4d. Decimation and Interpolation of Discrete signals;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);24;2. Discrete Signals;2.5;2.5. Describing Sequences and signals;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);24;2. Discrete Signals;2.6;2.6. Discrete time Harmonics and Periodicity;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);24;2. Discrete Signals;2.7;2.7. Aliasing and its effects;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);24;2. Discrete Signals;2.8;2.8. Signal Reconstruction;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);54;3. Response of Digital Filters;3.19a;3.19a. Analytical Evaluation of Discrete Convolution;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);54;3. Response of Digital Filters;3.19b;3.19b. Analytical Evaluation of Discrete Convolution;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);54;3. Response of Digital Filters;3.19c;3.19c. Analytical Evaluation of Discrete Convolution;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);54;3. Response of Digital Filters;3.20a;3.20a. Properties of Convolution;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);54;3. Response of Digital Filters;3.20b;3.20b. Properties of Convolution;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);54;3. Response of Digital Filters;3.21a;3.21a. Convolution of finite length Signals;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);54;3. Response of Digital Filters;3.21b;3.21b. Convolution of finite length Signals;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);54;3. Response of Digital Filters;3.21c;3.21c. Convolution of finite length Signals;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);54;3. Response of Digital Filters;3.22;3.22. Convolution of finite length Signals;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);54;3. Response of Digital Filters;3.23;3.23. effect of Zero Insertion,Zero Padding on convol.;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);54;3. Response of Digital Filters;3.25;3.25. Stability and Causality;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);54;3. Response of Digital Filters;3.26;3.26. Response to Periodic Inputs;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);54;3. Response of Digital Filters;3.27;3.27. Periodic Extension;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);54;3. Response of Digital Filters;3.28;3.28. System Response to Periodic Inputs;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);54;3. Response of Digital Filters;3.29;3.29. Periodic Convolution;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);54;3. Response of Digital Filters;3.30;3.30. Periodic Convolution by Circulant Matrix;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);54;3. Response of Digital Filters;3.32;3.32. Deconvolution By polynomial Division;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);54;3. Response of Digital Filters;3.33;3.33. Autocorrelation and Cross Correlation;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);54;3. Response of Digital Filters;3.35;3.35. Periodic Autocorrelation and Cross Correlation;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);54;3. Response of Digital Filters;3.5;3.5. FIR filter response;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);56;4. z Transform Analysis;4.10;4.10. Inverse Transform of sequences;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);56;4. z Transform Analysis;4.11;4.11. Inverse Transform by Long Division;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);56;4. z Transform Analysis;4.12;4.12. Inverse transform of Right sided sequences;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);56;4. z Transform Analysis;4.1b;4.1b. z transform of finite length sequences;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);56;4. z Transform Analysis;4.20;4.20. z Transform of Switched periodic Signals;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);56;4. z Transform Analysis;4.4a;4.4a. Pole Zero Plots;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);56;4. z Transform Analysis;4.4b;4.4b. Pole Zero plots;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);56;4. z Transform Analysis;4.8;4.8. Stability of Recursive Filters;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);56;4. z Transform Analysis;4.9;4.9. Inverse Systems;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);57;5. Frequency Domain Analysis;5.10a;5.10a. System Representation in various forms;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);57;5. Frequency Domain Analysis;5.10b;5.10b. System Representation in various forms;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);57;5. Frequency Domain Analysis;5.1c;5.1c. DTFT from Defining Relation;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);57;5. Frequency Domain Analysis;5.3a;5.3a. Some DTFT pairs using properties;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);57;5. Frequency Domain Analysis;5.3b;5.3b. Some DTFT pairs using properties;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);57;5. Frequency Domain Analysis;5.3d;5.3d. Some DTFT pairs using properties;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);57;5. Frequency Domain Analysis;5.3e;5.3e. Some DTFT pairs using properties;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);57;5. Frequency Domain Analysis;5.4;5.4. DTFT of periodic Signals;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);57;5. Frequency Domain Analysis;5.5;5.5. The DFT,DFS and DTFT;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);57;5. Frequency Domain Analysis;5.7;5.7. Frequency Response of Recursive Filter;error;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);57;5. Frequency Domain Analysis;5.8a;5.8a. The DTFT in System Analysis;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);57;5. Frequency Domain Analysis;5.8b;5.8b. The DTFT in System Analysis;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);57;5. Frequency Domain Analysis;5.9a;5.9a. DTFT and steady state response;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);57;5. Frequency Domain Analysis;5.9b;5.9b. DTFT and steady state response;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);58;6. Filter Concepts;6.1;6.1. The Minimum Phase Concept;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);58;6. Filter Concepts;6.4;6.4. Linear Phase Filters;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);58;6. Filter Concepts;6.6;6.6. Frequency Response and Filter characteristics;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);58;6. Filter Concepts;6.7a;6.7a. Filters and Pole Zero Plots;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);58;6. Filter Concepts;6.7b;6.7b. Filters and Pole Zero Plots;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);58;6. Filter Concepts;6.8;6.8. Digital resonator Design;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);58;6. Filter Concepts;6.9;6.9. Periodic Notch Filter Design;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);59;7. Digital Processing of Analog Signals;7.10;7.10. ADC considerations;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);59;7. Digital Processing of Analog Signals;7.11;7.11. Anti Aliasing Filter Considerations;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);59;7. Digital Processing of Analog Signals;7.12;7.12. Anti Imaging Filter Considerations;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);59;7. Digital Processing of Analog Signals;7.3;7.3. Sampling oscilloscope;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);59;7. Digital Processing of Analog Signals;7.4;7.4. Sampling of Band pass signals;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);59;7. Digital Processing of Analog Signals;7.6;7.6. Signal Reconstruction from Samples;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);59;7. Digital Processing of Analog Signals;7.7;7.7. Zero Interpolation and Spectrum Replication;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);59;7. Digital Processing of Analog Signals;7.8;7.8. Up Sampling and Filtering;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);59;7. Digital Processing of Analog Signals;7.9;7.9. Quantisation Effects;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.1;8.1. DFT from Defining Relation;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.10;8.10. DFS of sampled Periodic Signals;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.11;8.11. The effects of leakage;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.15a;8.15a. Methods to find convolution;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.15b;8.15b. Methods to find convolution;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.16;8.16. Signal Interpolation using FFT;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.17;8.17. The Concept of Periodogram;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.18;8.18. DFT from matrix formulation;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.19;8.19. Using DFT to find IDFT;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.2;8.2. The DFT and conjugate Symmetry;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.20;8.20. Decimation in Frequency FFT algorithm;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.21;8.21. Decimation in time FFT algorithm;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.22;8.22. 4 point DFT from 3 point sequence;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.23;8.23. 3 point IDFT from 4 point DFT;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.24;8.24. The importance of Periodic Extension;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.3;8.3. Circular Shift and Flipping;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.4;8.4. Properties of DFT;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.5a;8.5a. Properties of DFT;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.5b;8.5b. Properties of DFT;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.5c;8.5c. Properties of DFT;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.6;8.6. Signal and Spectrum Replication;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.7;8.7. Relating DFT and DTFT;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.8;8.8. Relating DFT and DTFT;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.9a;8.9a. The DFT and DFS of sinusoids;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.9b;8.9b. The DFT and DFS of sinusoids;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.9c;8.9c. The DFT and DFS of sinusoids;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);60;8. The Discrete Fourier Transform and its Applications;8.9d;8.9d. The DFT and DFS of sinusoids;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);64;9. Design of IIR Filters;9.1;9.1. Response Invariant Mappings;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);64;9. Design of IIR Filters;9.10a;9.10a. Bilinear Design of Second Order Filters;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);64;9. Design of IIR Filters;9.10b;9.10b. Bilinear Design of Second Order Filters;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);64;9. Design of IIR Filters;9.10c;9.10c. Bilinear Design of Second Order Filters;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);64;9. Design of IIR Filters;9.11;9.11. Interference Rejection;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);64;9. Design of IIR Filters;9.12;9.12. IIR Filter Design;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);64;9. Design of IIR Filters;9.2;9.2. Impulse Invariant Mappings;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);64;9. Design of IIR Filters;9.3ab;9.3ab. Modified Impulse Invariant Design;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);64;9. Design of IIR Filters;9.3cd;9.3cd. Modified Impulse Invariant Design;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);64;9. Design of IIR Filters;9.5;9.5. Mappings from Difference Algorithms;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);64;9. Design of IIR Filters;9.6;9.6. Mappings From Integration Algorithms;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);64;9. Design of IIR Filters;9.7;9.7. DTFT of Numerical Algorithms;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);64;9. Design of IIR Filters;9.8a;9.8a. Bilinear Transformation;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);64;9. Design of IIR Filters;9.8b;9.8b. Bilinear Transformation;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);64;9. Design of IIR Filters;9.9;9.9. D2D transformations;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);65;10. Design of FIR filters;10.10;10.10. Maximally Flat FIR filter Design;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);65;10. Design of FIR filters;10.2;10.2. Truncation and Windowing;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);65;10. Design of FIR filters;10.3ab;10.3ab. FIR lowpass Filter design;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);65;10. Design of FIR filters;10.3cd;10.3cd. FIR filter Design;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);65;10. Design of FIR filters;10.4a;10.4a. Half Band lowpass FIR filter Design;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);65;10. Design of FIR filters;10.4b;10.4b. Half Band bandstop FIR filter Design;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);65;10. Design of FIR filters;10.5a;10.5a. Design by Frequency Sampling;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);65;10. Design of FIR filters;10.5b;10.5b. Design by Frequency Sampling;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);65;10. Design of FIR filters;10.6a;10.6a. Optimal FIR Bandstop Filter Design;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);65;10. Design of FIR filters;10.6b;10.6b. Optimal Half Band Filter Design;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);65;10. Design of FIR filters;10.7;10.7. Multistage Interpolation;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);65;10. Design of FIR filters;10.8;10.8. Design of Interpolating Filters;correct;runtime; -40;Digital Signal Processing: A Modern Introduction(A. Ashok);65;10. Design of FIR filters;10.9;10.9. Multistage Decimation;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);206;1. Vector Algebra;1.1;1.1. Component and Magnitude of Vector;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);206;1. Vector Algebra;1.2;1.2. Distance between points;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);206;1. Vector Algebra;1.3;1.3. Relative Velocity;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);206;1. Vector Algebra;1.4;1.4. Angle between vectors;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);206;1. Vector Algebra;1.5;1.5. Cross Product;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);206;1. Vector Algebra;1.7;1.7. Cross Product;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);207;2. Coordinate Systems And Transformation;2.1;2.1. Change of coordinate system;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);207;2. Coordinate Systems And Transformation;2.2;2.2. Spherical to cylindrical and Cartesian;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);207;2. Coordinate Systems And Transformation;2.3;2.3. Angle between vector and surfaces;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);207;2. Coordinate Systems And Transformation;2.4;2.4. Different Components of a Vector;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);373;3. Vector Calculus;3.1;3.1. Distace between points;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);373;3. Vector Calculus;3.2;3.2. Circulation of a vector;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);373;3. Vector Calculus;3.9;3.9. Stroke Theorem;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);378;4. Electrostatics;4.1;4.1. Coulomb Law;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);378;4. Electrostatics;4.10;4.10. Potential;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);378;4. Electrostatics;4.12;4.12. Relationship between E and V;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);378;4. Electrostatics;4.13;4.13. Dipole;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);378;4. Electrostatics;4.14;4.14. Energy Density;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);378;4. Electrostatics;4.6;4.6. Electric Field;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);378;4. Electrostatics;4.7;4.7. Electric Flux;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);378;4. Electrostatics;4.8;4.8. Guass Law;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);359;5. Electric Fields in Material Space;5.1;5.1. Current through conductors;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);359;5. Electric Fields in Material Space;5.10;5.10. Boundary Conditions;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);359;5. Electric Fields in Material Space;5.2;5.2. Charge Transport;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);359;5. Electric Fields in Material Space;5.3;5.3. Charge Transport;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);359;5. Electric Fields in Material Space;5.4;5.4. Conductor;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);359;5. Electric Fields in Material Space;5.6;5.6. Dielectric;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);359;5. Electric Fields in Material Space;5.7;5.7. Dielectric;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);359;5. Electric Fields in Material Space;5.9;5.9. Boundary Conditions;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);390;6. Electrostatic Boundary Value Problems;6.12;6.12. Capacitance;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);375;7. Magnetostatics;7.1;7.1. Biot Savart Law;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);375;7. Magnetostatics;7.2;7.2. Biot Savart Law;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);375;7. Magnetostatics;7.5;7.5. MF due to infinite long sheet;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);375;7. Magnetostatics;7.7;7.7. Magnetic vector potential;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);386;8. Magnetic Forces Materials and Devices;8.1;8.1. Forces;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);386;8. Magnetic Forces Materials and Devices;8.14;8.14. Magnetic Circuit;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);386;8. Magnetic Forces Materials and Devices;8.15;8.15. Magnetic Circuit;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);386;8. Magnetic Forces Materials and Devices;8.16;8.16. Magnetic Circuit;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);386;8. Magnetic Forces Materials and Devices;8.8;8.8. Boundary Condition;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);381;9. Waves and Applications;9.5;9.5. Complex numbers;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);385;10. Electromagnetic wave propagation;10.1;10.1. Wave eqution;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);385;10. Electromagnetic wave propagation;10.10;10.10. Reflection of plane wave;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);385;10. Electromagnetic wave propagation;10.2;10.2. Waves in dielectrics;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);385;10. Electromagnetic wave propagation;10.3;10.3. Waves in dielectrics;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);385;10. Electromagnetic wave propagation;10.4;10.4. Waves in dielectrics;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);385;10. Electromagnetic wave propagation;10.6;10.6. Waves in dielectrics;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);385;10. Electromagnetic wave propagation;10.7;10.7. Power;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);280;11. Transmission Lines;11.1;11.1. Inductance;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);280;11. Transmission Lines;11.10;11.10. Microstrip transmission line;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);280;11. Transmission Lines;11.11;11.11. Microstrip transmission line;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);280;11. Transmission Lines;11.2;11.2. Finding various parameters;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);280;11. Transmission Lines;11.3;11.3. Calculative;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);280;11. Transmission Lines;11.4;11.4. Impedance;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);280;11. Transmission Lines;11.5;11.5. Smith chart problem;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);280;11. Transmission Lines;11.6;11.6. Application of transmission lines;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);280;11. Transmission Lines;11.7;11.7. Application of transmission lines;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);280;11. Transmission Lines;11.8;11.8. Transient of transmission lines;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);388;12. Waveguides;12.1;12.1. Transverse Modes;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);388;12. Waveguides;12.3;12.3. Transverse Modes;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);388;12. Waveguides;12.4;12.4. Wave propagation in guide;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);388;12. Waveguides;12.5;12.5. Power Transmission;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);388;12. Waveguides;12.6;12.6. Power Transmission;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);388;12. Waveguides;12.8;12.8. Resonator;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);379;13. Antennas;13.1;13.1. Dipoles;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);379;13. Antennas;13.10;13.10. Radar Eqution;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);379;13. Antennas;13.2;13.2. Dipoles;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);379;13. Antennas;13.3;13.3. Antennas Chracteristics;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);379;13. Antennas;13.4;13.4. Antennas Chracteristics;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);379;13. Antennas;13.5;13.5. Antennas Chracteristics;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);379;13. Antennas;13.8;13.8. Friis Equation;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);379;13. Antennas;13.9;13.9. Friis Equation;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);247;14. Modern Topics;14.1;14.1. Formulae based question;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);247;14. Modern Topics;14.2;14.2. Optical fibre;correct;runtime; -42;Elements of Electromagnetics(M. N. O. Sadiku);247;14. Modern Topics;14.3;14.3. Optical fibre;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);211;1. Introduction to Signal and Systems;1.11;1.11. Check for Periodicity;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);211;1. Introduction to Signal and Systems;1.13;1.13. Check for Periodicity;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);211;1. Introduction to Signal and Systems;1.30;1.30. Integral of Unit step function;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);211;1. Introduction to Signal and Systems;1.37;1.37. Shifting Time Reversal of discrete time signals;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);211;1. Introduction to Signal and Systems;1.6;1.6. Shifting Scaling Time Reversal;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);211;1. Introduction to Signal and Systems;1.9;1.9. Check for Periodicity;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);220;2. Analysis of LTI continous time system;2.11.a;2.11.a. Fourier transform of impulse function;error;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);220;2. Analysis of LTI continous time system;2.11.b;2.11.b. Fourier transform of exponential function;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);220;2. Analysis of LTI continous time system;2.12;2.12. Fourier transform of Gate function;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);220;2. Analysis of LTI continous time system;2.14;2.14. Fourier transform one sided exponential function;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);220;2. Analysis of LTI continous time system;2.2;2.2. Convolution;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);220;2. Analysis of LTI continous time system;2.20.a;2.20.a. Laplace transform of unit impulse;error;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);220;2. Analysis of LTI continous time system;2.23;2.23. Laplace Transform;error;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);220;2. Analysis of LTI continous time system;2.26.a;2.26.a. Inv Laplace;error;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);220;2. Analysis of LTI continous time system;2.26.b;2.26.b. Inv Laplace;error;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);220;2. Analysis of LTI continous time system;2.26.c;2.26.c. Inv Laplace;error;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);220;2. Analysis of LTI continous time system;2.28;2.28. Laplace Transform;error;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);220;2. Analysis of LTI continous time system;2.33;2.33. Plot the spectrum;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);220;2. Analysis of LTI continous time system;2.39;2.39. Convolution of two signals;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);234;3. Analysis of LTI Discrete time system;3.1;3.1. Convolution sum method;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);234;3. Analysis of LTI Discrete time system;3.17.b;3.17.b. Z Transform;error;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);234;3. Analysis of LTI Discrete time system;3.17.c;3.17.c. Z Transform;error;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);234;3. Analysis of LTI Discrete time system;3.17a;3.17a. Z Transform;error;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);234;3. Analysis of LTI Discrete time system;3.19;3.19. Final Value Theorem;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);234;3. Analysis of LTI Discrete time system;3.2;3.2. Graphical Convolution;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);234;3. Analysis of LTI Discrete time system;3.21;3.21. Inverse Ztransform;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);234;3. Analysis of LTI Discrete time system;3.22;3.22. Z inverse;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);219;4. Discrete Fourier Transform And Fast Fourier Transform;4.28;4.28. Circular convolution;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);219;4. Discrete Fourier Transform And Fast Fourier Transform;4.29;4.29. Record Length;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);219;4. Discrete Fourier Transform And Fast Fourier Transform;4.31;4.31. Sampling rate and DFT size;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);219;4. Discrete Fourier Transform And Fast Fourier Transform;4.32;4.32. DFT computation;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);219;4. Discrete Fourier Transform And Fast Fourier Transform;4.4;4.4. DFT computation;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);219;4. Discrete Fourier Transform And Fast Fourier Transform;4.5;4.5. DFT computation;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);219;4. Discrete Fourier Transform And Fast Fourier Transform;4.6;4.6. DFT computation;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);219;4. Discrete Fourier Transform And Fast Fourier Transform;4.9;4.9. DFT computation;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);231;5. Sampling;5.1;5.1. Minimum Sampling Frequency;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);231;5. Sampling;5.12;5.12. Find the frequency;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);231;5. Sampling;5.14;5.14. Sampling period;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);231;5. Sampling;5.2.a;5.2.a. Minimum Sampling Interval;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);231;5. Sampling;5.2.b;5.2.b. Minimum Sampling Interval;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);231;5. Sampling;5.6;5.6. Continuous time Frequency;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);231;5. Sampling;5.9;5.9. Aliasing;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);223;6. Transformed Networks;6.1;6.1. Current flowing in a network;error;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);223;6. Transformed Networks;6.10;6.10. Bode Plot;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);223;6. Transformed Networks;6.2;6.2. voltage across inductor;error;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);223;6. Transformed Networks;6.3;6.3. voltage across capacitor;error;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);223;6. Transformed Networks;6.9;6.9. Bode Plot;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);235;7. State Space Analysis;7.1;7.1. State Space Representation;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);235;7. State Space Analysis;7.2;7.2. State Space Representation;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);174;8. Stability Analysis of LTI Systems;8.1.a;8.1.a. check for HURWITZ;error;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);174;8. Stability Analysis of LTI Systems;8.1.b;8.1.b. check for HURWITZ;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);174;8. Stability Analysis of LTI Systems;8.11;8.11. Stability of discrete time system;error;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);174;8. Stability Analysis of LTI Systems;8.2;8.2. checking stability;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);174;8. Stability Analysis of LTI Systems;8.3;8.3. checking stability;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);174;8. Stability Analysis of LTI Systems;8.4;8.4. checking stability;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);174;8. Stability Analysis of LTI Systems;8.5;8.5. checking stability;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);174;8. Stability Analysis of LTI Systems;8.9;8.9. checking stability;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);221;9. Analog and Digital Filter Design;9.1;9.1. BPF;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);221;9. Analog and Digital Filter Design;9.2;9.2. Band Stop Filter;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);221;9. Analog and Digital Filter Design;9.3;9.3. FIR Filter;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);221;9. Analog and Digital Filter Design;9.5;9.5. Low Pass Filter;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);221;9. Analog and Digital Filter Design;9.7;9.7. 2nd order Digital Butterworth Filter;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);232;10. MATLAB Tools for Analysis of Signals and systems;10.1;10.1. Solving Linear Equation;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);232;10. MATLAB Tools for Analysis of Signals and systems;10.12;10.12. Find convolution and plot the result;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);232;10. MATLAB Tools for Analysis of Signals and systems;10.13;10.13. Find the step response;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);232;10. MATLAB Tools for Analysis of Signals and systems;10.3;10.3. Find the step and impulse responce;correct;runtime; -43;Signals And Systems(I. J. Nagrath, S. N. Sharan And R. Ranjan);232;10. MATLAB Tools for Analysis of Signals and systems;10.9;10.9. Find the impulse responce;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);511;1. Digital Principles;1.1;1.1. Finding duty cycle;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);511;1. Digital Principles;1.2;1.2. Maximum decimal count for a counter;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);512;2. Digital Logic;2.1;2.1. 7404 waveform;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);512;2. Digital Logic;2.10;2.10. truth table for NOR NOR circuit;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);512;2. Digital Logic;2.11;2.11. timing diagram for NOR NOR;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);512;2. Digital Logic;2.12;2.12. proving two circuits are logically equal;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);512;2. Digital Logic;2.13;2.13. truth table for NAND NAND circuit;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);512;2. Digital Logic;2.14;2.14. timing diagram for NAND NAND circuit;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);512;2. Digital Logic;2.15;2.15. detecting all bits low in a register;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);512;2. Digital Logic;2.2;2.2. 7404 waveform;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);512;2. Digital Logic;2.3;2.3. truth table for given figure;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);512;2. Digital Logic;2.4;2.4. truth table for given figure;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);512;2. Digital Logic;2.9;2.9. proving two circuits are logically equal;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);513;3. Combinational Logic Circuits;3.1;3.1. Boolean Algebra;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);513;3. Combinational Logic Circuits;3.10;3.10. sop for the karnaugh map;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);513;3. Combinational Logic Circuits;3.11;3.11. POS form of karnaugh map;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);513;3. Combinational Logic Circuits;3.12;3.12. POS form of karnaugh map;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);513;3. Combinational Logic Circuits;3.13;3.13. Quine Mc clusky method;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);513;3. Combinational Logic Circuits;3.14;3.14. Dynamic hard;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);513;3. Combinational Logic Circuits;3.2;3.2. Boolean Algebra;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);513;3. Combinational Logic Circuits;3.3;3.3. Testing a circuit using logic clip;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);513;3. Combinational Logic Circuits;3.4;3.4. Sum of Products;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);513;3. Combinational Logic Circuits;3.5;3.5. Boolean Algebra;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);513;3. Combinational Logic Circuits;3.6;3.6. Gives a simplified Boolean equation;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);513;3. Combinational Logic Circuits;3.7;3.7. simplest logic for given Truth table;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);513;3. Combinational Logic Circuits;3.8;3.8. simplest logic for given logic equation;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);513;3. Combinational Logic Circuits;3.9;3.9. Product of sums;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);516;4. Data processing circuits;4.1;4.1. 4 to 1 mux using 2 to 1 mux;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);516;4. Data processing circuits;4.10;4.10. output of 74147 when button 6 is pressed;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);516;4. Data processing circuits;4.11;4.11. priority encoder;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);516;4. Data processing circuits;4.2;4.2. Realizing boolean equation using 8 to 1 mux;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);516;4. Data processing circuits;4.3;4.3. 32 t0 1 mux using 16 to 1 and 2 to 1 muxes;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);516;4. Data processing circuits;4.4;4.4. 74154 IC y12;error;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);516;4. Data processing circuits;4.7;4.7. realizing boolean equation using 3 to 8 decoder;error;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);516;4. Data processing circuits;4.8;4.8. current in LED;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);516;4. Data processing circuits;4.9;4.9. which LED lights up for given input conditions;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);517;5. Number Systems and Codes;5.1;5.1. Binary to decimal conversion;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);517;5. Number Systems and Codes;5.10;5.10. decimal to hexadecimal and binary;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);517;5. Number Systems and Codes;5.11;5.11. decimal to hexadecimal and binary;error;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);517;5. Number Systems and Codes;5.2;5.2. Binary to decimal conversion;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);517;5. Number Systems and Codes;5.3;5.3. decimal equivalent of 2 Mb;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);517;5. Number Systems and Codes;5.4;5.4. Decimal to binary conversion;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);517;5. Number Systems and Codes;5.5;5.5. Binary number having all ones;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);517;5. Number Systems and Codes;5.6;5.6. Decimal to binary conversion;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);517;5. Number Systems and Codes;5.7;5.7. binary to hexadecimal;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);517;5. Number Systems and Codes;5.8;5.8. hexadecimal to decimal;error;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);517;5. Number Systems and Codes;5.9;5.9. decimal to hexadecimal and binary;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);520;6. Arithmetic Circuits;6.1;6.1. 8bit binary adder;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);520;6. Arithmetic Circuits;6.10;6.10. 2s compliment subtraction;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);520;6. Arithmetic Circuits;6.12;6.12. final carry in a CLA;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);520;6. Arithmetic Circuits;6.2;6.2. 16 bit binary adder;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);520;6. Arithmetic Circuits;6.3;6.3. first generation microcomputers addition;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);520;6. Arithmetic Circuits;6.4;6.4. binary subtraction;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);520;6. Arithmetic Circuits;6.5;6.5. adding 8 bit unsigned numbers;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);520;6. Arithmetic Circuits;6.6;6.6. subtraction of unsigned numbers;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);520;6. Arithmetic Circuits;6.7;6.7. overflow case;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);520;6. Arithmetic Circuits;6.8;6.8. 2s compliment;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);520;6. Arithmetic Circuits;6.9;6.9. 2s compliment;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);523;7. Clocks and Timing Circuits;7.1;7.1. clock cycle time;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);523;7. Clocks and Timing Circuits;7.10;7.10. 74123;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);523;7. Clocks and Timing Circuits;7.11;7.11. finding timing capacitor values;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);523;7. Clocks and Timing Circuits;7.2;7.2. maximum clock frequency;error;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);523;7. Clocks and Timing Circuits;7.3;7.3. frequency limits of the clock;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);523;7. Clocks and Timing Circuits;7.4;7.4. Schmitt trigger;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);523;7. Clocks and Timing Circuits;7.5;7.5. frequency of oscillation for 555 timer;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);523;7. Clocks and Timing Circuits;7.6;7.6. finding Ra and C in 555 timer circuit;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);523;7. Clocks and Timing Circuits;7.7;7.7. output pulse width for the timer;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);523;7. Clocks and Timing Circuits;7.8;7.8. value of C necessary to change pulse width to given values;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);523;7. Clocks and Timing Circuits;7.9;7.9. monostable multivibrator;error;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);526;8. Flip Flops;8.10;8.10. fictitious flip flop excitation table;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);526;8. Flip Flops;8.12;8.12. state transition diagram for given circuit;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);526;8. Flip Flops;8.13;8.13. D flip flop to RS flip flop;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);526;8. Flip Flops;8.4;8.4. RS flipflop;error;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);526;8. Flip Flops;8.5;8.5. positive edge triggred RS flip flop;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);526;8. Flip Flops;8.6;8.6. negative edge triggred RS flip flop;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);526;8. Flip Flops;8.7;8.7. T flip flop;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);526;8. Flip Flops;8.9;8.9. JK master slave;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);527;9. Registers;9.1;9.1. shift register serial input;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);527;9. Registers;9.2;9.2. shift register serial input and output graph;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);527;9. Registers;9.4;9.4. 54164 shift register;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);527;9. Registers;9.5;9.5. 54164 shift register;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);527;9. Registers;9.8;9.8. 74ls174;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);527;9. Registers;9.9;9.9. 7495A;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);537;10. Counters;10.1;10.1. ripple counter clock frequency;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);537;10. Counters;10.10;10.10. Expression for a gate to decode count 8 in a 7492A;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);537;10. Counters;10.12;10.12. mod 12 counter;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);537;10. Counters;10.13;10.13. 4 bit binary counter presettable;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);537;10. Counters;10.14;10.14. self correcting modulo 6 counter;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);537;10. Counters;10.15;10.15. sequence generator;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);537;10. Counters;10.2;10.2. number of flip flops required to construct a counter;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);537;10. Counters;10.3;10.3. Output waveforms for a 7493A connected as a mod 16 counter;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);537;10. Counters;10.5;10.5. Expression for AND gate connected to the leg of OR gate that drives clock input to flip flop Qd in 74193;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);537;10. Counters;10.6;10.6. Expression for 4 input AND gate connected to the leg of OR gate that conditions the J and K inputs to the Qd flip flop in a 74191;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);537;10. Counters;10.7;10.7. number of flip flops required to construct a counter;error;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);537;10. Counters;10.8;10.8. what modulus counters can be constructed with given number of flip flops e;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);537;10. Counters;10.9;10.9. mod 6 counter;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);535;11. Design of Sequential Circuit;11.1;11.1. synchronous sequential logic circuit;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);535;11. Design of Sequential Circuit;11.2;11.2. vending machine;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);535;11. Design of Sequential Circuit;11.5;11.5. Reducing state transition diagrams;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);535;11. Design of Sequential Circuit;11.6;11.6. asynchronous sequential circuit;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);535;11. Design of Sequential Circuit;11.7;11.7. asynchronous sequential circuit problem in operation;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);535;11. Design of Sequential Circuit;11.8;11.8. asynchronous sequential circuit;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);533;12. D to A Conversion and A to D conversion;12.1;12.1. binary equivalent weight of each bit in a 4bit system;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);533;12. D to A Conversion and A to D conversion;12.10;12.10. resolution;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);533;12. D to A Conversion and A to D conversion;12.11;12.11. counter type A to D converter;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);533;12. D to A Conversion and A to D conversion;12.13;12.13. 10 bit A to D converter;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);533;12. D to A Conversion and A to D conversion;12.2;12.2. 5 bit resistive divider;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);533;12. D to A Conversion and A to D conversion;12.3;12.3. 5 bit ladder;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);533;12. D to A Conversion and A to D conversion;12.4;12.4. 5 bit ladder;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);533;12. D to A Conversion and A to D conversion;12.5;12.5. 5 bit ladder;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);533;12. D to A Conversion and A to D conversion;12.6;12.6. 5 bit ladder;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);533;12. D to A Conversion and A to D conversion;12.8;12.8. DAC0808;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);533;12. D to A Conversion and A to D conversion;12.9;12.9. resolution of 9 bit D to A;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);532;13. Memory;13.2;13.2. structure of binary address;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);532;13. Memory;13.3;13.3. decimal and hexadecimal address for the given binary address;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);531;14. Digital Integrated circuits;14.1;14.1. diode forward or reverse;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);531;14. Digital Integrated circuits;14.2;14.2. Diode current;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);531;14. Digital Integrated circuits;14.3;14.3. current in the given circuit;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);531;14. Digital Integrated circuits;14.4;14.4. n channel MOSFET inverter;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);529;15. Applications;15.1;15.1. Timing of a six digit display;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);529;15. Applications;15.10;15.10. ADC3511;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);529;15. Applications;15.11;15.11. ADC3511;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);529;15. Applications;15.12;15.12. ADD3501;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);529;15. Applications;15.4;15.4. Basic frequency counter;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);529;15. Applications;15.5;15.5. 4 decimal digit frequency counter;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);529;15. Applications;15.6;15.6. instrument to measure time period;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);529;15. Applications;15.9;15.9. ADC0804;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);528;16. A Simple Computer Design;16.1;16.1. size of PC IR ACC MAR MDR;correct;runtime; -45;Digital Principals And Applications(D. P. Leach And A. P. Malvino);528;16. A Simple Computer Design;16.6;16.6. Number of clock cycles needed to execute a program;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);290;2. The Laplace Transform;2.1;2.1. Laplace transform;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);290;2. The Laplace Transform;2.3;2.3. Laplace transform;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);425;3. Inversion by Partial Fractions;3.1;3.1. Inverse laplace transform;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);425;3. Inversion by Partial Fractions;3.2;3.2. Inverse laplace transform;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);425;3. Inversion by Partial Fractions;3.3;3.3. Inverse laplace transform;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);425;3. Inversion by Partial Fractions;3.4;3.4. Inverse laplace transform;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);425;3. Inversion by Partial Fractions;3.5;3.5. Inverse laplace transform;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);425;3. Inversion by Partial Fractions;3.6;3.6. Inverse laplace transform;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);292;4. Further Properties of Transforms;4.1;4.1. Final value theorem;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);292;4. Further Properties of Transforms;4.2;4.2. Final value theorem;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);292;4. Further Properties of Transforms;4.4;4.4. Laplace transform;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);294;5. Response of First Order Systems;5.1;5.1. First order systems;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);294;5. Response of First Order Systems;5.2;5.2. First order systems;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);426;6. Physical Examples of First Order Systems;6.1;6.1. First order systems;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);427;7. Response of First Order Systems in Series;7.1;7.1. First order systems;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);430;10. Controllers and Final Control Elements;10.1;10.1. Control system;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);431;12. Closed Loop Transfer functions;12.1;12.1. Transfer functions;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);431;12. Closed Loop Transfer functions;12.2;12.2. Transfer functions;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);432;14. Stability;14.1;14.1. Stability;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);432;14. Stability;14.2;14.2. Stability;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);432;14. Stability;14.3;14.3. Stability;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);432;14. Stability;14.4;14.4. Stability;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);476;15. Root Locus;15.1;15.1. Root locus;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);476;15. Root Locus;15.2;15.2. Root locus;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);477;16. Introduction To Frequency Response;16.1;16.1. Frequency Response;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);477;16. Introduction To Frequency Response;16.2;16.2. Frequency Response;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);477;16. Introduction To Frequency Response;16.4;16.4. Bode diagram;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);477;16. Introduction To Frequency Response;16.5;16.5. Bode diagram;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);485;17. Control System Design By Frequeny Response;17.1;17.1. Frequency Response;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);485;17. Control System Design By Frequeny Response;17.3;17.3. Tuning Rules;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);485;17. Control System Design By Frequeny Response;17.4;17.4. Tuning Rules;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);479;18. Advanced Control Strategies;18.3;18.3. Tuning Rules;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);479;18. Advanced Control Strategies;18.5;18.5. Internal Model Control;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);479;18. Advanced Control Strategies;18.6;18.6. Internal Model Control;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);486;19. Controller Tuning And Process Identification;19.1;19.1. Tuning Rules;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);486;19. Controller Tuning And Process Identification;19.2;19.2. Tuning Rules;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);478;20. Control Valves;20.1;20.1. Control Valves;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);478;20. Control Valves;20.2;20.2. Control Valves;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);478;20. Control Valves;20.3;20.3. Control Valves;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);480;22. Sampling And Z Transforms;22.1;22.1. Z transforms;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);480;22. Sampling And Z Transforms;22.2;22.2. Z transforms;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);481;24. Stability;24.1;24.1. Stability;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);482;26. Sampled Data Control Of A First Order Process With Transport Lag;26.1.a;26.1.a. Sampled data system;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);482;26. Sampled Data Control Of A First Order Process With Transport Lag;26.1.b;26.1.b. Sampled data system;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);483;29. Transfer Function Matrix;29.1;29.1. Transfer function matrix;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);483;29. Transfer Function Matrix;29.2;29.2. Transfer function matrix;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);484;30. Multivariable Control;30.1;30.1. Multivariable control;correct;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);484;30. Multivariable Control;30.2;30.2. Multivariable control;error;runtime; -46;Process Systems Analysis And Control(S. E. LeBlanc And D. R. Coughanowr);484;30. Multivariable Control;30.3;30.3. Multivariable control;error;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);345;1. Number System and Codes;1.1;1.1. converts no to base 10;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);345;1. Number System and Codes;1.10;1.10. Division of Two Binary Numbers;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);345;1. Number System and Codes;1.2;1.2. converts binary number to base 10;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);345;1. Number System and Codes;1.3;1.3. convert decimal number to base 8;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);345;1. Number System and Codes;1.4;1.4. Convert decimal value in base 10 to base 8;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);345;1. Number System and Codes;1.5;1.5. convert decimal number to base 2;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);345;1. Number System and Codes;1.6;1.6. Convert Octal number to Base 2;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);345;1. Number System and Codes;1.7;1.7. Adds two binary numbers;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);345;1. Number System and Codes;1.8;1.8. Subtracts Two Binary numbers;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);345;1. Number System and Codes;1.9;1.9. Multiplies two Binary numbers;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);519;2. Sets Relations and Lattices;2.1;2.1. Set Of All even Numbers;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);519;2. Sets Relations and Lattices;2.11;2.11. Partial Ordering Divisibilty Relation;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);519;2. Sets Relations and Lattices;2.12;2.12. Ordering Relation;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);519;2. Sets Relations and Lattices;2.15;2.15. Lattice Of subsets;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);519;2. Sets Relations and Lattices;2.16;2.16. glb and ulb;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);519;2. Sets Relations and Lattices;2.2;2.2. Subsets Of a Faces of a die;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);519;2. Sets Relations and Lattices;2.4;2.4. Relation between two sets;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);519;2. Sets Relations and Lattices;2.5;2.5. Equivalence relation;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);519;2. Sets Relations and Lattices;2.6;2.6. Equivalence relation 2;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);519;2. Sets Relations and Lattices;2.7;2.7. Function Check;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);524;3. Switching Algebra And Its Applications;3.1;3.1. Simplify 1;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);524;3. Switching Algebra And Its Applications;3.10;3.10. Tabulate the Function of 2 variables;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);524;3. Switching Algebra And Its Applications;3.11;3.11. NOR;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);524;3. Switching Algebra And Its Applications;3.12;3.12. Transmission function;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);524;3. Switching Algebra And Its Applications;3.13;3.13. Air Conditioning System;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);524;3. Switching Algebra And Its Applications;3.14;3.14. DeMorgans Law;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);524;3. Switching Algebra And Its Applications;3.2;3.2. Simplify 2;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);524;3. Switching Algebra And Its Applications;3.3;3.3. Prove the identity;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);524;3. Switching Algebra And Its Applications;3.4;3.4. Determine The Output of expression;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);524;3. Switching Algebra And Its Applications;3.5;3.5. Simplify 3;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);524;3. Switching Algebra And Its Applications;3.6;3.6. Simplify 4;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);524;3. Switching Algebra And Its Applications;3.7;3.7. Expand the Expression;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);524;3. Switching Algebra And Its Applications;3.8;3.8. Expand the Expression 2;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);524;3. Switching Algebra And Its Applications;3.9;3.9. POS;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);530;4. Minimization Of Switching Functions;4.1;4.1. Irredundant expressions;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);530;4. Minimization Of Switching Functions;4.10;4.10. Cyclic Prime Implicant map;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);530;4. Minimization Of Switching Functions;4.2;4.2. Irredundant expressions 2;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);530;4. Minimization Of Switching Functions;4.3;4.3. Reduce Expression;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);530;4. Minimization Of Switching Functions;4.4;4.4. BCD to Excess 3 Convertor;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);530;4. Minimization Of Switching Functions;4.5;4.5. 5 variable Kmap;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);530;4. Minimization Of Switching Functions;4.6;4.6. Prime Implicants;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);530;4. Minimization Of Switching Functions;4.7;4.7. Prime Implicants 2;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);530;4. Minimization Of Switching Functions;4.8;4.8. Prime Implicants Of a Function;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);530;4. Minimization Of Switching Functions;4.9;4.9. Prime Implicants Of a Function 2;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);534;5. Logical Design;5.1;5.1. Odd Parity Bit Generator;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -48;Switching And Finite Automata Theory( Z. Kohavi);534;5. Logical Design;5.2;5.2. Serial To Parallel converter;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -48;Switching And Finite Automata Theory( Z. Kohavi);534;5. Logical Design;5.3;5.3. Transmission function for a network;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -48;Switching And Finite Automata Theory( Z. Kohavi);534;5. Logical Design;5.4;5.4. 4 Input Contact Network;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -48;Switching And Finite Automata Theory( Z. Kohavi);534;5. Logical Design;5.5;5.5. Minimal contact Network;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);536;6. Functional Decomposition And Symmetric Functions;6.1;6.1. Function Decomposition;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);536;6. Functional Decomposition And Symmetric Functions;6.3;6.3. Muliplicity;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);536;6. Functional Decomposition And Symmetric Functions;6.6;6.6. Symmetric;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);536;6. Functional Decomposition And Symmetric Functions;6.7;6.7. Symmetric 2;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);538;7. Threshold Logic;7.1;7.1. weighted Sum;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -48;Switching And Finite Automata Theory( Z. Kohavi);538;7. Threshold Logic;7.2;7.2. Inequalities;error;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);538;7. Threshold Logic;7.3;7.3. Unate Functions;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);538;7. Threshold Logic;7.4;7.4. three cube representation;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);538;7. Threshold Logic;7.5;7.5. True Vertex;error;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);539;8. Reliable Design And Fault Diagnosis;8.1;8.1. NOR Logic Circuit;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);539;8. Reliable Design And Fault Diagnosis;8.2;8.2. Path Sensitizing;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);539;8. Reliable Design And Fault Diagnosis;8.3;8.3. Two level OR AND Network;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);539;8. Reliable Design And Fault Diagnosis;8.4;8.4. Various errors Summarized;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);540;10. Capabilities Minimization and transformation Of Sequential Machines;10.1;10.1. Reducing machine;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);540;10. Capabilities Minimization and transformation Of Sequential Machines;10.2;10.2. Compaitability Graph;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);541;12. Structure Of Sequential Machines;12.10;12.10. Autonous Clock;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);541;12. Structure Of Sequential Machines;12.11;12.11. partition pair;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);541;12. Structure Of Sequential Machines;12.12;12.12. partition pair 2;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);541;12. Structure Of Sequential Machines;12.14;12.14. State Consistent Partitions;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);541;12. Structure Of Sequential Machines;12.4;12.4. Closed Partitions;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);541;12. Structure Of Sequential Machines;12.5;12.5. Output Consistent;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);541;12. Structure Of Sequential Machines;12.7;12.7. Dependence;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);541;12. Structure Of Sequential Machines;12.8;12.8. input Consistent Matrix;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);541;12. Structure Of Sequential Machines;12.9;12.9. Implementation of Input Consistent matrix;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);543;13. State Identificaiton And Fault Detection Experiments;13.1;13.1. Fault DetectionExeriment;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);544;14. Memory Definiteness Information Losslessness of Finite Automata;14.2;14.2. Synchronizing tree;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);544;14. Memory Definiteness Information Losslessness of Finite Automata;14.3;14.3. Contracted State Machine;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);544;14. Memory Definiteness Information Losslessness of Finite Automata;14.4;14.4. Testing Table;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);544;14. Memory Definiteness Information Losslessness of Finite Automata;14.6;14.6. Testing graph;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);544;14. Memory Definiteness Information Losslessness of Finite Automata;16.7;16.7. Testing Table 2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/48/CH16/EX16.7/: PATH DOES NOT EXIST -48;Switching And Finite Automata Theory( Z. Kohavi);545;15. Linear Sequential Machines;15.10;15.10. Reducable;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);545;15. Linear Sequential Machines;15.11;15.11. Linear Machine;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);545;15. Linear Sequential Machines;15.12;15.12. Linear Machine 2;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);545;15. Linear Sequential Machines;15.15;15.15. Commutative ring;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);545;15. Linear Sequential Machines;15.16;15.16. Identifying Whether the Ring is a Field Or not;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);545;15. Linear Sequential Machines;15.17;15.17. Finite Field;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);545;15. Linear Sequential Machines;15.3;15.3. Transfer function;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);545;15. Linear Sequential Machines;15.4;15.4. Impulse response;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);545;15. Linear Sequential Machines;15.5;15.5. Null Sequence;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);545;15. Linear Sequential Machines;15.6;15.6. Null Sequence 2;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);546;16. Finite State Recognizers;16.2;16.2. Prove the identity;correct;runtime; -48;Switching And Finite Automata Theory( Z. Kohavi);546;16. Finite State Recognizers;16.3;16.3. Prove the identity 2;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);218;2. Generalized Configurations and Functional Descriptions of measuring instruments;2.1;2.1. Error in measurement;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);208;3. Generalized Performance Characteristics Of Instruments;3.1;3.1. Gaussian distribution;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);208;3. Generalized Performance Characteristics Of Instruments;3.2;3.2. Combination of component errors in overall system;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);208;3. Generalized Performance Characteristics Of Instruments;3.5;3.5. First order instrument;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);208;3. Generalized Performance Characteristics Of Instruments;3.6;3.6. Step response of first order instrument;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);208;3. Generalized Performance Characteristics Of Instruments;3.7;3.7. Adequate frequency response conditions for first o;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);198;4. Motion and Dimensional Measurement;4.1;4.1. Resistance strain gage;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);198;4. Motion and Dimensional Measurement;4.10;4.10. Seismic pick ups;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);198;4. Motion and Dimensional Measurement;4.11;4.11. Accelerometers;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);198;4. Motion and Dimensional Measurement;4.12;4.12. Strain gage;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);198;4. Motion and Dimensional Measurement;4.2;4.2. Rosette;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);198;4. Motion and Dimensional Measurement;4.3;4.3. Strain gage;error;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);198;4. Motion and Dimensional Measurement;4.4;4.4. Capacitance pick ups;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);198;4. Motion and Dimensional Measurement;4.5;4.5. Piezoelectric transducer;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);198;4. Motion and Dimensional Measurement;4.7;4.7. Seismic vibrations;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);198;4. Motion and Dimensional Measurement;4.8;4.8. Seismic velocity pick ups;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);198;4. Motion and Dimensional Measurement;4.9;4.9. Piezoelectric transducer;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);188;5. Force Torque and Shaft power measurement;5.1;5.1. Load cell;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);188;5. Force Torque and Shaft power measurement;5.2;5.2. Load cell;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);188;5. Force Torque and Shaft power measurement;5.3;5.3. Load cell;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);188;5. Force Torque and Shaft power measurement;5.4;5.4. Piezoelectric transducer;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);188;5. Force Torque and Shaft power measurement;5.5;5.5. Torque measurement on rotating shaft;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);173;6. Pressure and sound measurement;6.1;6.1. manometers;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);173;6. Pressure and sound measurement;6.10;6.10. sound measurement;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);173;6. Pressure and sound measurement;6.2;6.2. manometers;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);173;6. Pressure and sound measurement;6.3;6.3. elastic transducers;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);173;6. Pressure and sound measurement;6.4;6.4. design of pressure transducers;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);173;6. Pressure and sound measurement;6.5;6.5. pressure gage;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);173;6. Pressure and sound measurement;6.6;6.6. high pressure measurement;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);173;6. Pressure and sound measurement;6.7;6.7. Mc Leod gage;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);173;6. Pressure and sound measurement;6.8;6.8. Knudsen gage;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);173;6. Pressure and sound measurement;6.9;6.9. sound measurement;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);175;7. Flow measurement;7.1;7.1. Flow measurement;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);175;7. Flow measurement;7.2;7.2. Anemometers;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);175;7. Flow measurement;7.3;7.3. Gross volume flow rate;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);175;7. Flow measurement;7.4;7.4. Gross volume flow rate;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);175;7. Flow measurement;7.5;7.5. Gross volume flow rate;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);175;7. Flow measurement;7.6;7.6. sonic nozzle;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);175;7. Flow measurement;7.7;7.7. venturi;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);175;7. Flow measurement;7.8;7.8. constant pressure drop;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);171;8. TEMPRATURE MEASUREMENT;8.1;8.1. thermocouple;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);171;8. TEMPRATURE MEASUREMENT;8.2;8.2. thermocouple and thermopile;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);171;8. TEMPRATURE MEASUREMENT;8.3;8.3. electrical resistance sensors;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);171;8. TEMPRATURE MEASUREMENT;8.4;8.4. thermistors;correct;runtime; -49;Measurement Systems(E. O. Doebelin And D. N. Manik);171;8. TEMPRATURE MEASUREMENT;8.5;8.5. pyrometers;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.1;2.1. intervals containing the roots of the equation;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.11;2.11. solution to the given equation by muller method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.12;2.12. solution by five itrations of muller method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.13;2.13. solution by chebeshev method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.14;2.14. solution by chebeshev method;error;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.15;2.15. solution by chebeshev method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.16;2.16. multipoint iteration;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.17;2.17. multipoint iteration;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.2;2.2. interval containing the roots;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.23;2.23. general iteration;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.24.1;2.24.1. solution by general iteration and aitken method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.24.2;2.24.2. solution by general iteration and aitken method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.25;2.25. solution by general iteration and aitken method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.26;2.26. solution to the eq with multiple roots;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.27;2.27. solution to the given transcendental equation;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.3;2.3. solution to the eq by bisection method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.4;2.4. solution to the eq by bisection method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.5;2.5. solution to the given equation;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.6;2.6. solution by secant and regula falsi;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.7;2.7. solution to the equation by newton raphson method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.8;2.8. solution to the equation by newton raphson method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);236;2. TRANSCENDENTAL AND POLINOMIAL EQUATIONS;2.9;2.9. solution to the equation by newton raphson method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);263;3. SYSTEM OF LINEAR ALGEBRIC EQUATIONS AND EIGENVALUE PROBLEMS;3.1;3.1. determinent;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);263;3. SYSTEM OF LINEAR ALGEBRIC EQUATIONS AND EIGENVALUE PROBLEMS;3.10;3.10. decomposition method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);263;3. SYSTEM OF LINEAR ALGEBRIC EQUATIONS AND EIGENVALUE PROBLEMS;3.11;3.11. inverse using LU decoposition;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);263;3. SYSTEM OF LINEAR ALGEBRIC EQUATIONS AND EIGENVALUE PROBLEMS;3.12;3.12. solution by decomposition method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);263;3. SYSTEM OF LINEAR ALGEBRIC EQUATIONS AND EIGENVALUE PROBLEMS;3.13;3.13. LU decomposition;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);263;3. SYSTEM OF LINEAR ALGEBRIC EQUATIONS AND EIGENVALUE PROBLEMS;3.14;3.14. cholesky method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);263;3. SYSTEM OF LINEAR ALGEBRIC EQUATIONS AND EIGENVALUE PROBLEMS;3.15;3.15. cholesky method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);263;3. SYSTEM OF LINEAR ALGEBRIC EQUATIONS AND EIGENVALUE PROBLEMS;3.2;3.2. property A in the book;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);263;3. SYSTEM OF LINEAR ALGEBRIC EQUATIONS AND EIGENVALUE PROBLEMS;3.21;3.21. jacobi iteration method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);263;3. SYSTEM OF LINEAR ALGEBRIC EQUATIONS AND EIGENVALUE PROBLEMS;3.22;3.22. solution by gauss siedal method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);263;3. SYSTEM OF LINEAR ALGEBRIC EQUATIONS AND EIGENVALUE PROBLEMS;3.27;3.27. eigen vale and eigen vector;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);263;3. SYSTEM OF LINEAR ALGEBRIC EQUATIONS AND EIGENVALUE PROBLEMS;3.4;3.4. solution to the system of equations;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);263;3. SYSTEM OF LINEAR ALGEBRIC EQUATIONS AND EIGENVALUE PROBLEMS;3.5;3.5. solution by gauss elimination method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);263;3. SYSTEM OF LINEAR ALGEBRIC EQUATIONS AND EIGENVALUE PROBLEMS;3.6;3.6. solution by pivoted gauss elimination method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);263;3. SYSTEM OF LINEAR ALGEBRIC EQUATIONS AND EIGENVALUE PROBLEMS;3.8;3.8. solution by pivoted gauss elimination method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);263;3. SYSTEM OF LINEAR ALGEBRIC EQUATIONS AND EIGENVALUE PROBLEMS;3.9;3.9. solution using the inverse of the matrix;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);256;4. INTERPOLATION AND APPROXIMATION;4.15;4.15. forward and backward difference polynomial;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);256;4. INTERPOLATION AND APPROXIMATION;4.20;4.20. hermite interpolation;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);256;4. INTERPOLATION AND APPROXIMATION;4.21;4.21. piecewise linear interpolating polinomial;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);256;4. INTERPOLATION AND APPROXIMATION;4.22;4.22. piecewise quadratic interpolating polinomial;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);256;4. INTERPOLATION AND APPROXIMATION;4.23;4.23. piecewise cubical interpolating polinomial;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);256;4. INTERPOLATION AND APPROXIMATION;4.3;4.3. linear interpolation polinomial;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);256;4. INTERPOLATION AND APPROXIMATION;4.31;4.31. linear approximation;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);256;4. INTERPOLATION AND APPROXIMATION;4.32;4.32. linear polinomial approximation;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);256;4. INTERPOLATION AND APPROXIMATION;4.34;4.34. least square straight fit;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);256;4. INTERPOLATION AND APPROXIMATION;4.35;4.35. least square approximation;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);256;4. INTERPOLATION AND APPROXIMATION;4.36;4.36. least square fit;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);256;4. INTERPOLATION AND APPROXIMATION;4.37;4.37. least square fit;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);256;4. INTERPOLATION AND APPROXIMATION;4.38;4.38. gram schmidt orthogonalisation;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);256;4. INTERPOLATION AND APPROXIMATION;4.39;4.39. gram schmidt orthogonalisation;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);256;4. INTERPOLATION AND APPROXIMATION;4.4;4.4. linear interpolation polinomial;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);256;4. INTERPOLATION AND APPROXIMATION;4.41;4.41. chebishev polinomial;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);256;4. INTERPOLATION AND APPROXIMATION;4.6;4.6. legrange linear interpolation polinomial;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);256;4. INTERPOLATION AND APPROXIMATION;4.7;4.7. polynomial of degree two;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);256;4. INTERPOLATION AND APPROXIMATION;4.8;4.8. solution by quadratic interpolation;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);256;4. INTERPOLATION AND APPROXIMATION;4.9;4.9. polinomial of degree two;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);255;5. DIFFERENTIATION AND INTEGRATION;5.1;5.1. linear interpolation;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);255;5. DIFFERENTIATION AND INTEGRATION;5.10;5.10. jacobian matrix of the given system;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);255;5. DIFFERENTIATION AND INTEGRATION;5.11;5.11. solution by trapizoidal and simpsons;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);255;5. DIFFERENTIATION AND INTEGRATION;5.12;5.12. integral approximation by mid point and two point;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);255;5. DIFFERENTIATION AND INTEGRATION;5.13;5.13. integral approximation by simpson three eight rule;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);255;5. DIFFERENTIATION AND INTEGRATION;5.15;5.15. quadrature formula;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);255;5. DIFFERENTIATION AND INTEGRATION;5.16;5.16. gauss legendary three point method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);255;5. DIFFERENTIATION AND INTEGRATION;5.17;5.17. gauss legendary method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);255;5. DIFFERENTIATION AND INTEGRATION;5.18;5.18. integral approximation by gauss chebishev;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);255;5. DIFFERENTIATION AND INTEGRATION;5.2;5.2. quadratic interpolation;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);255;5. DIFFERENTIATION AND INTEGRATION;5.20;5.20. integral approximation by gauss legurre method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);255;5. DIFFERENTIATION AND INTEGRATION;5.21;5.21. integral approximation by gauss legurre method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);255;5. DIFFERENTIATION AND INTEGRATION;5.22;5.22. integral approximation by gauss legurre method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);255;5. DIFFERENTIATION AND INTEGRATION;5.26;5.26. composite trapizoidal and composite simpson;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);255;5. DIFFERENTIATION AND INTEGRATION;5.27;5.27. integral approximation by gauss legurre method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);255;5. DIFFERENTIATION AND INTEGRATION;5.29;5.29. double integral using simpson rule;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);255;5. DIFFERENTIATION AND INTEGRATION;5.30;5.30. double integral using simpson rule;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);254;6. ORDINARY DIFFERENTIAL EQUATIONS INNITIAL VALUE PROBLEMS;6.12;6.12. solution ti IVP by back euler method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);254;6. ORDINARY DIFFERENTIAL EQUATIONS INNITIAL VALUE PROBLEMS;6.13;6.13. solution ti IVP by euler mid point method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);254;6. ORDINARY DIFFERENTIAL EQUATIONS INNITIAL VALUE PROBLEMS;6.15;6.15. solution ti IVP by taylor expansion;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);254;6. ORDINARY DIFFERENTIAL EQUATIONS INNITIAL VALUE PROBLEMS;6.17;6.17. solution ti IVP by modified euler cauchy and heun;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);254;6. ORDINARY DIFFERENTIAL EQUATIONS INNITIAL VALUE PROBLEMS;6.18;6.18. solution ti IVP by fourth order range kutta method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);254;6. ORDINARY DIFFERENTIAL EQUATIONS INNITIAL VALUE PROBLEMS;6.20;6.20. solution to the IVP systems;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);254;6. ORDINARY DIFFERENTIAL EQUATIONS INNITIAL VALUE PROBLEMS;6.21;6.21. solution ti IVP by second order range kutta method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);254;6. ORDINARY DIFFERENTIAL EQUATIONS INNITIAL VALUE PROBLEMS;6.25;6.25. solution ti IVP by third order adamsbashfort meth;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);254;6. ORDINARY DIFFERENTIAL EQUATIONS INNITIAL VALUE PROBLEMS;6.27;6.27. solution ti IVP by third order adams moult method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);254;6. ORDINARY DIFFERENTIAL EQUATIONS INNITIAL VALUE PROBLEMS;6.3;6.3. solution to the system of equations;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);254;6. ORDINARY DIFFERENTIAL EQUATIONS INNITIAL VALUE PROBLEMS;6.32;6.32. solution by numerov method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);254;6. ORDINARY DIFFERENTIAL EQUATIONS INNITIAL VALUE PROBLEMS;6.4;6.4. solution ti the IVP;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);254;6. ORDINARY DIFFERENTIAL EQUATIONS INNITIAL VALUE PROBLEMS;6.9;6.9. euler method to solve the IVP;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);257;7. ORDINARY DIFFERENTIAL EQUATIONS BOUNDARY VALUE PROBLEM;7.1;7.1. solution to the BVP by shooting method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);257;7. ORDINARY DIFFERENTIAL EQUATIONS BOUNDARY VALUE PROBLEM;7.11;7.11. solution to the BVP by finite differences;error;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);257;7. ORDINARY DIFFERENTIAL EQUATIONS BOUNDARY VALUE PROBLEM;7.3;7.3. solution to the BVP by shooting method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);257;7. ORDINARY DIFFERENTIAL EQUATIONS BOUNDARY VALUE PROBLEM;7.4;7.4. solution to the BVP by shooting method;correct;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);257;7. ORDINARY DIFFERENTIAL EQUATIONS BOUNDARY VALUE PROBLEM;7.5;7.5. solution to the BVP;error;runtime; -50;Numerical Methods For Scientific And Engineering Computation(M. K. Jain, S. R. K. Iyengar And R. K. Jain);257;7. ORDINARY DIFFERENTIAL EQUATIONS BOUNDARY VALUE PROBLEM;7.6;7.6. solution to the BVP by finite differences;error;runtime; -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);29;1. basic properties of fluids;1.2;1.2. force by tank;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);29;1. basic properties of fluids;1.3;1.3. density and weight of air;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);29;1. basic properties of fluids;1.4;1.4. reynolds number calculation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);29;1. basic properties of fluids;1.5;1.5. shearing stress calculation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);29;1. basic properties of fluids;1.6;1.6. final pressure calculation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);29;1. basic properties of fluids;1.7;1.7. ratio of speeds;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);29;1. basic properties of fluids;1.8;1.8. diameter of tube;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);29;1. basic properties of fluids;2;2. force by tank;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/51/CH2/EX2/: PATH DOES NOT EXIST -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);29;1. basic properties of fluids;3;3. density and weight of air;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/51/CH3/EX3/: PATH DOES NOT EXIST -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);29;1. basic properties of fluids;4;4. reynolds number calculation;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/51/CH4/EX4/: PATH DOES NOT EXIST -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);29;1. basic properties of fluids;5;5. shearing stress calculation;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/51/CH5/EX5/: PATH DOES NOT EXIST -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);29;1. basic properties of fluids;6;6. final pressure calculation;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/51/CH6/EX6/: PATH DOES NOT EXIST -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);29;1. basic properties of fluids;7;7. ratio of speeds;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/51/CH7/EX7/: PATH DOES NOT EXIST -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);29;1. basic properties of fluids;8;8. diameter of tube;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/51/CH8/EX8/: PATH DOES NOT EXIST -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);33;2. Fluids at rest pressure and its effects;2.1;2.1. pressure at interface;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);33;2. Fluids at rest pressure and its effects;2.10;2.10. tension in cable;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);33;2. Fluids at rest pressure and its effects;2.11;2.11. maximum acceleration calculation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);33;2. Fluids at rest pressure and its effects;2.2;2.2. pressure depth variation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);33;2. Fluids at rest pressure and its effects;2.3;2.3. pressure at bottom;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);33;2. Fluids at rest pressure and its effects;2.4;2.4. reading of gage;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);33;2. Fluids at rest pressure and its effects;2.5;2.5. pressure drop calculation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);33;2. Fluids at rest pressure and its effects;2.6;2.6. force on plane;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);33;2. Fluids at rest pressure and its effects;2.7;2.7. hydrostatic pressure force;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);33;2. Fluids at rest pressure and its effects;2.8;2.8. pressure prism concept;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);33;2. Fluids at rest pressure and its effects;2.9;2.9. force on curve;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);66;3. Fluids in motion Bernoulli equation;3.10;3.10. maximum height determination;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);66;3. Fluids in motion Bernoulli equation;3.11;3.11. pressure difference range;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);66;3. Fluids in motion Bernoulli equation;3.12;3.12. flow through channel;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);66;3. Fluids in motion Bernoulli equation;3.13;3.13. increased flowrate determination;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);66;3. Fluids in motion Bernoulli equation;3.15;3.15. stagnation pressure calculation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);66;3. Fluids in motion Bernoulli equation;3.17;3.17. stagnation pressure determination;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);66;3. Fluids in motion Bernoulli equation;3.6;3.6. pitot static tube;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);66;3. Fluids in motion Bernoulli equation;3.7;3.7. determination of flowrate;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);66;3. Fluids in motion Bernoulli equation;3.8;3.8. flowrate and pressure;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);70;4. Kinematics of fluid motion;4.6;4.6. delivery speed calculation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.1;5.1. Minimum Pumping capacity;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.11;5.11. Anchoring force determination;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.12;5.12. Anchoring force calculation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.13;5.13. Frictional force determination;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.15;5.15. nominal thrust calculation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.17;5.17. force determination;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.18;5.18. resisting torque calculation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.19;5.19. estimation of power;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.2;5.2. average velocity calculation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.20;5.20. Determination of power;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.21;5.21. work output calculation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.22;5.22. temperature change determination;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.23;5.23. volume flowrates comparison;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.24;5.24. useful work determination;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.25;5.25. flowrate and powerloss;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.26;5.26. nonuniform velocity profile;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.29;5.29. expanded air velocity;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.3;5.3. Mass Flowrate determination;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.5;5.5. change in depth;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.6;5.6. mass flowrate estimation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.7;5.7. Speed of water;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.8;5.8. Speed of plunger;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);71;5. Flow analysis using control volumes;5.9;5.9. change in depth;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);78;6. Flow Analysis of Using Differential Methods;6.10;6.10. flow in annulus;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);78;6. Flow Analysis of Using Differential Methods;6.4;6.4. inviscid flow pressure;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);78;6. Flow Analysis of Using Differential Methods;6.5;6.5. Volume rate calculation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);78;6. Flow Analysis of Using Differential Methods;6.7;6.7. pressure at elevation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);79;7. Dimensional Analysis Modelling and Similitude;7.5;7.5. prototype performance prediction;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);79;7. Dimensional Analysis Modelling and Similitude;7.6;7.6. reynolds number similarity;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);79;7. Dimensional Analysis Modelling and Similitude;7.7;7.7. predicting prototype performance;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);79;7. Dimensional Analysis Modelling and Similitude;7.8;7.8. froude number similarity;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);80;8. Pipe flow;8.1;8.1. calculating time required;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);80;8. Pipe flow;8.10;8.10. air flowrate determination;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);80;8. Pipe flow;8.11;8.11. flowrate through turbine;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);80;8. Pipe flow;8.12;8.12. minimum pipe diameter;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);80;8. Pipe flow;8.13;8.13. pipe diameter calculation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);80;8. Pipe flow;8.14;8.14. flowrate in reservoir;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);80;8. Pipe flow;8.15;8.15. diameter of nozzle;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);80;8. Pipe flow;8.2;8.2. laminar pipe flow;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);80;8. Pipe flow;8.3;8.3. net force calculation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);80;8. Pipe flow;8.4;8.4. turbulent pipe flow;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);80;8. Pipe flow;8.5;8.5. pressure drop calculation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);80;8. Pipe flow;8.6;8.6. minor losses calculation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);80;8. Pipe flow;8.7;8.7. duct size determination;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);80;8. Pipe flow;8.8;8.8. determining pressure drop;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);80;8. Pipe flow;8.9;8.9. determining head loss;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);81;9. External Flow Past Bodies;9.1;9.1. lift and drag;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);81;9. External Flow Past Bodies;9.10;9.10. speed of grain;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);81;9. External Flow Past Bodies;9.11;9.11. velocity of updraft;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);81;9. External Flow Past Bodies;9.12;9.12. drag and deceleration;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);81;9. External Flow Past Bodies;9.13;9.13. torque estimation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);81;9. External Flow Past Bodies;9.15;9.15. lift and power;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);81;9. External Flow Past Bodies;9.16;9.16. angular velocity determination;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);81;9. External Flow Past Bodies;9.5;9.5. boundary layer transition;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);81;9. External Flow Past Bodies;9.7;9.7. drag estimation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);82;10. Flow in Open Channels;10.2;10.2. elevation of surface;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);82;10. Flow in Open Channels;10.3;10.3. froude number determination;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);82;10. Flow in Open Channels;10.4;10.4. determining flow depth;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);82;10. Flow in Open Channels;10.7;10.7. flowrate estimation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);82;10. Flow in Open Channels;10.8;10.8. aspect ratio determination;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);82;10. Flow in Open Channels;10.9;10.9. hydraulic jump;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);83;11. Analysis of Compressible Flow;11.1;11.1. Internal Energy enthalphy;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);83;11. Analysis of Compressible Flow;11.11;11.11. fanno flow;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);83;11. Analysis of Compressible Flow;11.12;11.12. choked fanno flow;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);83;11. Analysis of Compressible Flow;11.13;11.13. effect of duct length on choked fanno flow;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);83;11. Analysis of Compressible Flow;11.14;11.14. unchoked fanno flow;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);83;11. Analysis of Compressible Flow;11.15;11.15. rayleigh flow;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);83;11. Analysis of Compressible Flow;11.18;11.18. supersonic flow;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);83;11. Analysis of Compressible Flow;11.19;11.19. converging diverging duct;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);83;11. Analysis of Compressible Flow;11.2;11.2. change in entropy;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);83;11. Analysis of Compressible Flow;11.3;11.3. speed of sound;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);83;11. Analysis of Compressible Flow;11.4;11.4. Mach cone;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);83;11. Analysis of Compressible Flow;11.5;11.5. mass flowrate determination;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);83;11. Analysis of Compressible Flow;11.6;11.6. mass flowrate calculation;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);83;11. Analysis of Compressible Flow;11.7;11.7. flow velocity determination;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);84;12. Pumps and Turbines;12.2;12.2. shaft power calculation;correct;runtime; -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);84;12. Pumps and Turbines;12.3;12.3. NPSH calculation;correct;runtime; -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);84;12. Pumps and Turbines;12.5;12.5. pump scaling laws;correct;runtime; -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);84;12. Pumps and Turbines;12.6;12.6. pelton wheel turbine;correct;runtime; -51;Fundamentals of Fluid Mechanics(B. R. Munson, D. F. Young And T. H. Okiishi);84;12. Pumps and Turbines;12.8;12.8. dental drill characteristics;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.1;1.1. Continuous Time Plot and Discrete Time Plot;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.11;1.11. Stability of the System;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.12;1.12. Convolution Sum of Two Sequences;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.13;1.13. Convolution of Two Signals;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.18;1.18. Cross Correlation of Two Sequences;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.19;1.19. Determination of Input Sequence;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.2;1.2. Continuous Time Plot and Discrete Time Plot;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.3.a;1.3.a. Evaluate the Summations;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.3.b;1.3.b. Evaluate the Summations;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.32.a;1.32.a. Plot Magnitude and Phase Response;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.37;1.37. Sketch Magnitude and Phase Response;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.38;1.38. Plot Magnitude and Phase Response;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.4.a;1.4.a. Check for Energy or Power Signals;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.4.d;1.4.d. Check for Energy or Power Signals;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.45;1.45. Filter to Eliminate High Frequency Component;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.5.a;1.5.a. Determining Periodicity of Signal;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.5.c;1.5.c. Determining Periodicity of Signal;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.5.d;1.5.d. Determining Periodicity of Signal;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.57.a;1.57.a. Discrete Convolution of Sequences;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.61;1.61. Fourier Transform;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.62;1.62. Fourier Transform;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.64.a;1.64.a. Frequency Response of LTI System;correct;runtime; -52;Digital Signal Processing(R. Babu);215;1. DISCRETE TIME SIGNALS AND LINEAR SYSTEMS;1.64.c;1.64.c. Frequency Response of LTI System;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.1;2.1. z Transform and ROC of Causal Sequence;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.10;2.10. z Transform Computation;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.11;2.11. z Transform of the Sequence;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.13.a;2.13.a. z Transform of Discrete Time Signals;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.13.b;2.13.b. z Transform of Discrete Time Signals;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.13.c;2.13.c. z Transform of Discrete Time Signals;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.13.d;2.13.d. z Transform of Discrete Time Signals;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.16;2.16. Impulse Response of the System;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.17;2.17. Pole Zero Plot of the Difference Equation;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.19;2.19. Frequency Response of the System;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.2;2.2. z Transform and ROC of Anticausal Sequence;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.20.a;2.20.a. Inverse z Transform Computation;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.22;2.22. Inverse z Transform Computation;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.23;2.23. Causal Sequence Determination;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.3;2.3. z Transform of the Sequence;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.34;2.34. Impulse Response of the System;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.35.a;2.35.a. Pole Zero Plot of the System;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.35.b;2.35.b. Unit Sample Response of the System;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.38;2.38. Determine Output Response;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.4;2.4. z Transform and ROC of the Signal;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.40;2.40. Input Sequence Computation;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.41.a;2.41.a. z Transform of the Signal;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.41.b;2.41.b. z Transform of the Signal;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.41.c;2.41.c. z Transform of the Signal;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.45;2.45. Pole Zero Pattern of the System;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.5;2.5. z Transform and ROC of the Signal;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.53.a;2.53.a. z Transform of the Sequence;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.53.b;2.53.b. z Transform of the Signal;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.53.c;2.53.c. z Transform of the Signal;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.53.d;2.53.d. z Transform of the Signal;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.54;2.54. z Transform of Cosine Signal;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.58;2.58. Impulse Response of the System;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.6;2.6. Stability of the System;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.7;2.7. z Transform of the Signal;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.8.a;2.8.a. z Transform of the Signal;correct;runtime; -52;Digital Signal Processing(R. Babu);212;2. THE Z TRANSFORM;2.9;2.9. z Transform of the Sequence;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.1;3.1. DFT and IDFT;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.11;3.11. DFT Computation;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.13;3.13. Circular Convolution;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.14;3.14. Circular Convolution;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.15;3.15. Determine Sequence x3;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.16;3.16. Circular Convolution;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.17;3.17. Circular Convolution;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.18;3.18. Output Response;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.2;3.2. DFT of the Sequence;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.20;3.20. Output Response;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.21;3.21. Linear Convolution;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.23.a;3.23.a. N Point DFT Computation;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.23.b;3.23.b. N Point DFT Computation;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.23.c;3.23.c. N Point DFT Computation;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.23.d;3.23.d. N Point DFT Computation;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.23.e;3.23.e. N Point DFT Computation;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.23.f;3.23.f. N Point DFT Computation;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.24;3.24. DFT of the Sequence;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.25;3.25. 8 Point Circular Convolution;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.26;3.26. Linear Convolution using DFT;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.27.a;3.27.a. Circular Convolution Computation;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.27.b;3.27.b. Circular Convolution Computation;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.3;3.3. 8 Point DFT;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.30;3.30. Calculate value of N;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.32;3.32. Sketch Sequence;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.36;3.36. Determine IDFT;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.4;3.4. IDFT of the given Sequence;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.7;3.7. Plot the Sequence;correct;runtime; -52;Digital Signal Processing(R. Babu);28;3. THE DISCRETE FOURIER TRANSFORM;3.9;3.9. Remaining Samples;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.10;4.10. 4 Point DFT of the Sequence;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.11;4.11. IDFT of the Sequence using DIT Algorithm;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.12;4.12. 8 Point DFT of the Sequence;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.13;4.13. 8 Point DFT of the Sequence;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.14;4.14. DFT using DIT Algorithm;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.15;4.15. DFT using DIF Algorithm;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.16.a;4.16.a. 8 Point DFT using DIT FFT;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.16.b;4.16.b. 8 Point DFT using DIT FFT;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.17;4.17. IDFT using DIF Algorithm;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.18;4.18. IDFT using DIT Algorithm;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.19;4.19. FFT Computation of the Sequence;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.20;4.20. 8 Point DFT by Radix 2 DIT FFT;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.21;4.21. DFT using DIT FFT Algorithm;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.22;4.22. Compute X using DIT FFT;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.23;4.23. DFT using DIF FFT Algorithm;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.24;4.24. 8 Point DFT of the Sequence;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.3;4.3. Shortest Sequence N Computation;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.4;4.4. Twiddle Factor Exponents Calculation;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.6;4.6. DFT using DIT Algorithm;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.8;4.8. DFT using DIF Algorithm;correct;runtime; -52;Digital Signal Processing(R. Babu);194;4. THE FAST FOURIER TRANSFORM;4.9;4.9. 8 Point DFT of the Sequence;correct;runtime; -52;Digital Signal Processing(R. Babu);209;5. INFINITE IMPULSE RESPONSE FILTERS;5.1;5.1. Order of the Filter Determination;correct;runtime; -52;Digital Signal Processing(R. Babu);209;5. INFINITE IMPULSE RESPONSE FILTERS;5.10;5.10. HPF Filter Design with given Specifications;correct;runtime; -52;Digital Signal Processing(R. Babu);209;5. INFINITE IMPULSE RESPONSE FILTERS;5.11;5.11. Impulse Invariant Method Filter Design;correct;runtime; -52;Digital Signal Processing(R. Babu);209;5. INFINITE IMPULSE RESPONSE FILTERS;5.12;5.12. Impulse Invariant Method Filter Design;correct;runtime; -52;Digital Signal Processing(R. Babu);209;5. INFINITE IMPULSE RESPONSE FILTERS;5.13;5.13. Impulse Invariant Method Filter Design;correct;runtime; -52;Digital Signal Processing(R. Babu);209;5. INFINITE IMPULSE RESPONSE FILTERS;5.15;5.15. Impulse Invariant Method Filter Design;correct;runtime; -52;Digital Signal Processing(R. Babu);209;5. INFINITE IMPULSE RESPONSE FILTERS;5.16;5.16. Bilinear Transformation Method Filter Design;correct;runtime; -52;Digital Signal Processing(R. Babu);209;5. INFINITE IMPULSE RESPONSE FILTERS;5.17;5.17. HPF Design using Bilinear Transform;correct;runtime; -52;Digital Signal Processing(R. Babu);209;5. INFINITE IMPULSE RESPONSE FILTERS;5.18;5.18. Bilinear Transformation Method Filter Design;correct;runtime; -52;Digital Signal Processing(R. Babu);209;5. INFINITE IMPULSE RESPONSE FILTERS;5.19;5.19. Single Pole LPF into BPF Conversion;correct;runtime; -52;Digital Signal Processing(R. Babu);209;5. INFINITE IMPULSE RESPONSE FILTERS;5.2;5.2. Order of Low Pass Butterworth Filter;correct;runtime; -52;Digital Signal Processing(R. Babu);209;5. INFINITE IMPULSE RESPONSE FILTERS;5.29;5.29. Pole Zero IIR Filter into Lattice Ladder Structure;correct;runtime; -52;Digital Signal Processing(R. Babu);209;5. INFINITE IMPULSE RESPONSE FILTERS;5.4;5.4. Analog Butterworth Filter Design;correct;runtime; -52;Digital Signal Processing(R. Babu);209;5. INFINITE IMPULSE RESPONSE FILTERS;5.5;5.5. Analog Butterworth Filter Design;correct;runtime; -52;Digital Signal Processing(R. Babu);209;5. INFINITE IMPULSE RESPONSE FILTERS;5.6;5.6. Order of Chebyshev Filter;correct;runtime; -52;Digital Signal Processing(R. Babu);209;5. INFINITE IMPULSE RESPONSE FILTERS;5.7;5.7. Chebyshev Filter Design;correct;runtime; -52;Digital Signal Processing(R. Babu);209;5. INFINITE IMPULSE RESPONSE FILTERS;5.8;5.8. Order of Type 1 Low Pass Chebyshev Filter;correct;runtime; -52;Digital Signal Processing(R. Babu);209;5. INFINITE IMPULSE RESPONSE FILTERS;5.9;5.9. Chebyshev Filter Design;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.1;6.1. Group Delay and Phase Delay;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.10;6.10. Hanning Window Filter Design;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.11;6.11. LPF Filter Design using Kaiser Window;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.12;6.12. BPF Filter Design using Kaiser Window;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.13.a;6.13.a. Digital Differentiator using Rectangular Window;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.13.b;6.13.b. Digital Differentiator using Hamming Window;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.14.a;6.14.a. Hilbert Transformer using Rectangular Window;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.14.b;6.14.b. Hilbert Transformer using Blackman Window;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.15;6.15. Filter Coefficients obtained by Sampling;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.16;6.16. Coefficients of Linear phase FIR Filter;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.17;6.17. BPF Filter Design using Sampling Method;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.18.a;6.18.a. Frequency Sampling Method FIR LPF Filter;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.18.b;6.18.b. Frequency Sampling Method FIR LPF Filter;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.19;6.19. Filter Coefficients Determination;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.20;6.20. Filter Coefficients using Hamming Window;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.21;6.21. LPF Filter using Rectangular Window;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.28;6.28. Filter Coefficients for Direct Form Structure;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.29;6.29. Lattice Filter Coefficients Determination;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.5;6.5. LPF Magnitude Response;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.6;6.6. HPF Magnitude Response;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.7;6.7. BPF Magnitude Response;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.8;6.8. BRF Magnitude Response;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.9.a;6.9.a. HPF Magnitude Response using Hanning Window;correct;runtime; -52;Digital Signal Processing(R. Babu);199;6. FINITE IMPULSE RESPONSE FILTERS;6.9.b;6.9.b. HPF Magnitude Response using Hamming Window;correct;runtime; -52;Digital Signal Processing(R. Babu);214;7. FINITE WORD LENGTH EFFECTS IN DIGITAL FILTERS;7.14;7.14. Variance of Output due to AD Conversion Process;correct;runtime; -52;Digital Signal Processing(R. Babu);214;7. FINITE WORD LENGTH EFFECTS IN DIGITAL FILTERS;7.2;7.2. Subtraction Computation;correct;runtime; -52;Digital Signal Processing(R. Babu);205;8. MULTIRATE SIGNAL PROCESSING;8.10;8.10. Two Band Polyphase Decomposition;correct;runtime; -52;Digital Signal Processing(R. Babu);205;8. MULTIRATE SIGNAL PROCESSING;8.9;8.9. Two Component Decomposition;correct;runtime; -52;Digital Signal Processing(R. Babu);197;9. STATISTICAL DIGITAL SIGNAL PROCESSING;9.7.a;9.7.a. Frequency Resolution Determination;correct;runtime; -52;Digital Signal Processing(R. Babu);197;9. STATISTICAL DIGITAL SIGNAL PROCESSING;9.7.b;9.7.b. Record Length Determination;correct;runtime; -52;Digital Signal Processing(R. Babu);197;9. STATISTICAL DIGITAL SIGNAL PROCESSING;9.8.a;9.8.a. Smallest Record Length Computation;correct;runtime; -52;Digital Signal Processing(R. Babu);197;9. STATISTICAL DIGITAL SIGNAL PROCESSING;9.8.b;9.8.b. Quality Factor Computation;correct;runtime; -52;Digital Signal Processing(R. Babu);204;11. DIGITAL SIGNAL PROCESSORS;11.3;11.3. Program for Integer Multiplication;correct;runtime; -52;Digital Signal Processing(R. Babu);204;11. DIGITAL SIGNAL PROCESSORS;11.5;11.5. Function Value Calculation;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);239;2. GENERAL PROPERTIES OF FEEDBACK AMPLIFIERS;2.1;2.1. feedback fraction;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);239;2. GENERAL PROPERTIES OF FEEDBACK AMPLIFIERS;2.2;2.2. Expected variations in closed loop gain;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);240;3. AMPLIFIERS WITHOUT FEEDBACK;3.1;3.1. Output voltage and gain of two stage amplifier;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);240;3. AMPLIFIERS WITHOUT FEEDBACK;3.2;3.2. single stage amplifier parameters;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);240;3. AMPLIFIERS WITHOUT FEEDBACK;3.3;3.3. Common mode rejection ratio and differential mode;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);241;4. FEEDBACK AMPLIFIER CIRCUITS;4.1;4.1. input resistance of a feedback amplifier;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);241;4. FEEDBACK AMPLIFIER CIRCUITS;4.2;4.2. input resistance of a feedback amplifier;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);241;4. FEEDBACK AMPLIFIER CIRCUITS;4.3;4.3. parameters of a feedback amplifier;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);241;4. FEEDBACK AMPLIFIER CIRCUITS;4.4;4.4. series voltage feedback circuit;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);242;5. MORE ABOUT FEEDBACK AMPLIFIERS;5.1;5.1. Voltage shunt feedback circuit;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);242;5. MORE ABOUT FEEDBACK AMPLIFIERS;5.2;5.2. amplifier parameters;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);242;5. MORE ABOUT FEEDBACK AMPLIFIERS;5.4;5.4. closed loop current gain input output resistance;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);242;5. MORE ABOUT FEEDBACK AMPLIFIERS;5.5;5.5. Voltage shunt feedback circuit;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);242;5. MORE ABOUT FEEDBACK AMPLIFIERS;5.6;5.6. feed back fraction;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);243;6. THE OP AMPS BASIC IDEAS AND CIRCUITS;6.1;6.1. design values of an inverting amplifier;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);243;6. THE OP AMPS BASIC IDEAS AND CIRCUITS;6.2;6.2. gain of a negative feedback amplifier;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);243;6. THE OP AMPS BASIC IDEAS AND CIRCUITS;6.4;6.4. non inverting amplifier;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);244;7. OP AMP NON IDEALITIES;7.1;7.1. Output voltage;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);244;7. OP AMP NON IDEALITIES;7.2;7.2. output offset voltage;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);244;7. OP AMP NON IDEALITIES;7.4;7.4. inverting voltage amplifier;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);244;7. OP AMP NON IDEALITIES;7.5;7.5. Full power bandwith frequency;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);245;8. SELECTED OP AMP APPLICATIONS;8.1;8.1. basic differential amplifier;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);245;8. SELECTED OP AMP APPLICATIONS;8.2;8.2. Instrumental amplifier;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);245;8. SELECTED OP AMP APPLICATIONS;8.3;8.3. wein bridge oscillator;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);246;9. FURTHER OP AMP APPLICATIONS;9.1;9.1. Design of phase shifter;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);246;9. FURTHER OP AMP APPLICATIONS;9.2;9.2. design of non inverting amplifier;correct;runtime; -53;Feedback Circuits And Operational Amplifiers(D. H. Horrocks);246;9. FURTHER OP AMP APPLICATIONS;9.3;9.3. low pass second order filter;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);384;1. Set Theory;1.13;1.13. Power sets;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);384;1. Set Theory;1.14;1.14. Power sets;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);384;1. Set Theory;1.18;1.18. Mathematical induction;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);384;1. Set Theory;1.8;1.8. inclusion exclusion principle;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);384;1. Set Theory;1.9;1.9. Inclusion exclusion principle;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);389;3. Functions and Algorithms;3.10;3.10. Polynomial evaluation;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);389;3. Functions and Algorithms;3.11;3.11. Greatest Common Divisor;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);389;3. Functions and Algorithms;3.8;3.8. Recursively defined functions;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);389;3. Functions and Algorithms;3.9;3.9. Cardinality;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);383;5. Vectors and Matrices;5.10;5.10. Determinants;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);383;5. Vectors and Matrices;5.13;5.13. Matrix solution of a system of linear equations;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);383;5. Vectors and Matrices;5.14;5.14. Inverse of a square matrix;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);383;5. Vectors and Matrices;5.2;5.2. Vector operations;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);383;5. Vectors and Matrices;5.3;5.3. Column vectors;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);383;5. Vectors and Matrices;5.5;5.5. Matrix addition and Scalar multiplication;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);383;5. Vectors and Matrices;5.6;5.6. Matrix multiplication;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);383;5. Vectors and Matrices;5.7;5.7. Matrix multiplication;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);383;5. Vectors and Matrices;5.8;5.8. Algebra of square matrices;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);383;5. Vectors and Matrices;5.9;5.9. Invertible matrices;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);382;6. Counting;6.1;6.1. Sum rule principle;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);382;6. Counting;6.14;6.14. Ordered partitions;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);382;6. Counting;6.15;6.15. Unordered partitions;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);382;6. Counting;6.16;6.16. Inclusion exclusion principle revisited;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);382;6. Counting;6.2;6.2. Product rule principle;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);382;6. Counting;6.3;6.3. Factorial notation;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);382;6. Counting;6.4;6.4. Binomial coefficients;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);382;6. Counting;6.5;6.5. Permutations;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);382;6. Counting;6.6;6.6. Permutations with repetitions;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);382;6. Counting;6.7;6.7. Combinations;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);382;6. Counting;6.8;6.8. Combinations;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);382;6. Counting;6.9;6.9. Combinations with repetitions;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);380;7. Probability Theory;7.1;7.1. Sample space and events;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);380;7. Probability Theory;7.10;7.10. Repeated trials with two outcomes;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);380;7. Probability Theory;7.12;7.12. Random variables;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);380;7. Probability Theory;7.13;7.13. Probability distribution of a random variable;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);380;7. Probability Theory;7.14;7.14. Probability distribution of a random variable;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);380;7. Probability Theory;7.15;7.15. Expectation of a random variable;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);380;7. Probability Theory;7.16;7.16. Variance and standard deviation of a random variable;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);380;7. Probability Theory;7.17;7.17. Binomial diatribution;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);380;7. Probability Theory;7.18;7.18. Chebyshev inequality;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);380;7. Probability Theory;7.19;7.19. Sample mean and Law of large numbers;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);380;7. Probability Theory;7.2;7.2. Finite probability spaces;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);380;7. Probability Theory;7.3;7.3. Equiprobable spaces;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);380;7. Probability Theory;7.4;7.4. Addition principle;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);380;7. Probability Theory;7.5;7.5. Conditional probability;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);380;7. Probability Theory;7.6;7.6. Multiplication theorem for conditional probability;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);380;7. Probability Theory;7.7;7.7. Independent events;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);380;7. Probability Theory;7.8;7.8. Independent events;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);380;7. Probability Theory;7.9;7.9. Independent repeated trials;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);394;8. Graph Theory;8.1;8.1. Paths and connectivity;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);394;8. Graph Theory;8.2;8.2. Minimum spanning tree;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);414;9. Directed graphs;9.6;9.6. Adjacency matrix;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);414;9. Directed graphs;9.8;9.8. Path matrix;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);413;11. Properties of the integers;11.12;11.12. Congruence relation;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);413;11. Properties of the integers;11.19;11.19. Linear congruence equation;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);413;11. Properties of the integers;11.2;11.2. Division algorithm;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);413;11. Properties of the integers;11.4;11.4. Primes;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);413;11. Properties of the integers;11.5;11.5. Greatest Common Divisor;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);413;11. Properties of the integers;11.6;11.6. Euclidean algorithm;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);413;11. Properties of the integers;11.9;11.9. Fundamental theorem of Arithmetic;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);412;12. Algebraic Systems;12.17;12.17. Roots of polynomial;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);412;12. Algebraic Systems;12.18;12.18. Roots of polynomial;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);412;12. Algebraic Systems;12.4;12.4. Properties of operations;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);415;15. Boolean Algebra;15.1;15.1. Basic definitions in boolean algebra;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);415;15. Boolean Algebra;15.2;15.2. Boolean algebra as lattices;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);411;16. Recurrence relations;16.14;16.14. Linear homogenous recurrence relations with constant coefficients;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);411;16. Recurrence relations;16.15;16.15. Solving linear homogenous recurrence relations with constant coefficients;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);411;16. Recurrence relations;16.16;16.16. Solving linear homogenous recurrence relations with constant coefficients;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);411;16. Recurrence relations;16.17;16.17. Solving linear homogenous recurrence relations with constant coefficients;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);411;16. Recurrence relations;16.18;16.18. Solving linear homogenous recurrence relations with constant coefficients;correct;runtime; -55;Discrete Mathematics(S. Lipschutz, M. Lipson And V. H. Patil);411;16. Recurrence relations;16.19;16.19. Solving general homogenous linear recurrence relations;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );260;1. Number systems and Errors;1.1;1.1. number system;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );248;2. Interpolation by polynomials;2.1;2.1. shifted power form;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );248;2. Interpolation by polynomials;2.2;2.2. second degree interpolating polynomial;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );248;2. Interpolation by polynomials;2.3;2.3. determine polynomial by newton formula;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );248;2. Interpolation by polynomials;2.5;2.5. Newtons formula;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );248;2. Interpolation by polynomials;2.7;2.7. find N;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );252;3. The solution of nonlinear equations;3.1;3.1. Root finding;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );252;3. The solution of nonlinear equations;3.10;3.10. Roots of polynomial equation;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );252;3. The solution of nonlinear equations;3.11;3.11. Roots of polynomial equation;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );252;3. The solution of nonlinear equations;3.12;3.12. Roots of polynomial equation;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );252;3. The solution of nonlinear equations;3.14;3.14. Roots of a polynomial equation;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );252;3. The solution of nonlinear equations;3.15;3.15. Roots of a polynomial equation;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );252;3. The solution of nonlinear equations;3.16;3.16. Roots of polynomial equation;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );252;3. The solution of nonlinear equations;3.17.a;3.17.a. Roots of a polynomial equation;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );252;3. The solution of nonlinear equations;3.2.a;3.2.a. finding roots;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );252;3. The solution of nonlinear equations;3.3;3.3. Fixed point iteration;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );252;3. The solution of nonlinear equations;3.4;3.4. Fixed point iteration;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );252;3. The solution of nonlinear equations;3.5;3.5. Secant method;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );252;3. The solution of nonlinear equations;3.8;3.8. Polynomial equations real roots;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );252;3. The solution of nonlinear equations;3.8.a;3.8.a. Roots of a polynomial equation;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );253;4. Matrices and Systems of linear Equations;4.1;4.1. matrix multiplication;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );253;4. Matrices and Systems of linear Equations;4.14;4.14. norm;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );253;4. Matrices and Systems of linear Equations;4.16;4.16. determinant;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );253;4. Matrices and Systems of linear Equations;4.17;4.17. determinant;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );253;4. Matrices and Systems of linear Equations;4.18;4.18. determinant;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );253;4. Matrices and Systems of linear Equations;4.19;4.19. Eigen values;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );253;4. Matrices and Systems of linear Equations;4.2;4.2. matrix multiplication;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );253;4. Matrices and Systems of linear Equations;4.20;4.20. Eigen values;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );253;4. Matrices and Systems of linear Equations;4.21;4.21. determinant;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );253;4. Matrices and Systems of linear Equations;4.22;4.22. eigen values;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );253;4. Matrices and Systems of linear Equations;4.3;4.3. properties of matrices;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );253;4. Matrices and Systems of linear Equations;4.4;4.4. matrix;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );253;4. Matrices and Systems of linear Equations;4.6;4.6. determinant;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );253;4. Matrices and Systems of linear Equations;4.7;4.7. matrix;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );253;4. Matrices and Systems of linear Equations;4.8;4.8. Backward substitution;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );249;5. systems of equations and unconstraned optimization;5.1;5.1. gradient;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );249;5. systems of equations and unconstraned optimization;5.2;5.2. Steep descent;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );251;6. Approximation;6.1;6.1. uniform aproximation;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );251;6. Approximation;6.11;6.11. polynomial of degree lessthan 3;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );251;6. Approximation;6.12;6.12. Least squares approximation;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );251;6. Approximation;6.2;6.2. distance at infinity;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );251;6. Approximation;6.3;6.3. aproximation;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );251;6. Approximation;6.5;6.5. approximate;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );250;7. differentiation and integration;7.1;7.1. integration;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );250;7. differentiation and integration;7.8;7.8. adaptive quadrature;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );237;8. THE SOLUTION OF DIFFERENTIAL EQUATIONS;8.1;8.1. Taylor series;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );237;8. THE SOLUTION OF DIFFERENTIAL EQUATIONS;8.5;8.5. Adamsbashforth3;correct;runtime; -60;Elementary Numerical Analysis: An Algorithmic Approach(S. D. Conte And C. de Boor );237;8. THE SOLUTION OF DIFFERENTIAL EQUATIONS;8.6;8.6. Modified euler method;correct;runtime; -61;Electronic Devices(T. L. Floyd);30;1. semiconductor basics;1.1;1.1. Different diode models;correct;runtime; -61;Electronic Devices(T. L. Floyd);31;2. diode applications;2.1;2.1. Average value half wave rectifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);31;2. diode applications;2.10;2.10. Negative diode limiter;correct;runtime; -61;Electronic Devices(T. L. Floyd);31;2. diode applications;2.11;2.11. Posiive Negative Limiter;correct;runtime; -61;Electronic Devices(T. L. Floyd);31;2. diode applications;2.12;2.12. Positive diode limiter;correct;runtime; -61;Electronic Devices(T. L. Floyd);31;2. diode applications;2.13;2.13. Negative Clamper;correct;runtime; -61;Electronic Devices(T. L. Floyd);31;2. diode applications;2.2.a;2.2.a. half wave rectifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);31;2. diode applications;2.2.b;2.2.b. half wave rectifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);31;2. diode applications;2.3;2.3. Rectifier peak value;correct;runtime; -61;Electronic Devices(T. L. Floyd);31;2. diode applications;2.4;2.4. Average value full wave rectifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);31;2. diode applications;2.5;2.5. PIV full wave;correct;runtime; -61;Electronic Devices(T. L. Floyd);31;2. diode applications;2.6;2.6. Bridge Rectifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);31;2. diode applications;2.7;2.7. Ripple Bridge rectifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);31;2. diode applications;2.8;2.8. Voltage Regulator;correct;runtime; -61;Electronic Devices(T. L. Floyd);31;2. diode applications;2.9;2.9. Load regulation percentage;correct;runtime; -61;Electronic Devices(T. L. Floyd);34;3. Special purpose diodes;3.1;3.1. Zener impedance;correct;runtime; -61;Electronic Devices(T. L. Floyd);34;3. Special purpose diodes;3.2;3.2. Zener Voltage;correct;runtime; -61;Electronic Devices(T. L. Floyd);34;3. Special purpose diodes;3.3;3.3. Temperature coefficient;correct;runtime; -61;Electronic Devices(T. L. Floyd);34;3. Special purpose diodes;3.4;3.4. Zener power dissipation;correct;runtime; -61;Electronic Devices(T. L. Floyd);34;3. Special purpose diodes;3.5;3.5. Zener voltage regulator;correct;runtime; -61;Electronic Devices(T. L. Floyd);34;3. Special purpose diodes;3.6;3.6. Regulation Variable load;correct;runtime; -61;Electronic Devices(T. L. Floyd);34;3. Special purpose diodes;3.7;3.7. Zener regulation;correct;runtime; -61;Electronic Devices(T. L. Floyd);34;3. Special purpose diodes;3.8;3.8. Zener limiting;correct;runtime; -61;Electronic Devices(T. L. Floyd);35;4. Bipolar Junction Transistors;4.1;4.1. DC beta;correct;runtime; -61;Electronic Devices(T. L. Floyd);35;4. Bipolar Junction Transistors;4.2;4.2. Current Voltage Analysis;correct;runtime; -61;Electronic Devices(T. L. Floyd);35;4. Bipolar Junction Transistors;4.3;4.3. Collector characteristic curve;correct;runtime; -61;Electronic Devices(T. L. Floyd);35;4. Bipolar Junction Transistors;4.4;4.4. DC loadline;correct;runtime; -61;Electronic Devices(T. L. Floyd);35;4. Bipolar Junction Transistors;4.5;4.5. Transistor rating;correct;runtime; -61;Electronic Devices(T. L. Floyd);35;4. Bipolar Junction Transistors;4.6;4.6. Maximum Transistor Rating;correct;runtime; -61;Electronic Devices(T. L. Floyd);35;4. Bipolar Junction Transistors;4.7;4.7. Derating Power maximum;correct;runtime; -61;Electronic Devices(T. L. Floyd);35;4. Bipolar Junction Transistors;4.8;4.8. Transistor amplification;correct;runtime; -61;Electronic Devices(T. L. Floyd);35;4. Bipolar Junction Transistors;4.9;4.9. Collector in saturation;correct;runtime; -61;Electronic Devices(T. L. Floyd);36;5. Transistor Bias Circuits;5.1;5.1. DC bias;correct;runtime; -61;Electronic Devices(T. L. Floyd);36;5. Transistor Bias Circuits;5.2;5.2. Input resistance;correct;runtime; -61;Electronic Devices(T. L. Floyd);36;5. Transistor Bias Circuits;5.3;5.3. Voltage divider bias;correct;runtime; -61;Electronic Devices(T. L. Floyd);36;5. Transistor Bias Circuits;5.4;5.4. Voltage bias PNP;correct;runtime; -61;Electronic Devices(T. L. Floyd);36;5. Transistor Bias Circuits;5.5;5.5. PNP Transistor;correct;runtime; -61;Electronic Devices(T. L. Floyd);36;5. Transistor Bias Circuits;5.6;5.6. Qpoint base bias;correct;runtime; -61;Electronic Devices(T. L. Floyd);36;5. Transistor Bias Circuits;5.7;5.7. Emitter bias;correct;runtime; -61;Electronic Devices(T. L. Floyd);36;5. Transistor Bias Circuits;5.8;5.8. Q point;correct;runtime; -61;Electronic Devices(T. L. Floyd);37;6. BJT Amplifiers;6.1;6.1. Linear amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);37;6. BJT Amplifiers;6.10;6.10. Darlington emitter follower;correct;runtime; -61;Electronic Devices(T. L. Floyd);37;6. BJT Amplifiers;6.11;6.11. Common base amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);37;6. BJT Amplifiers;6.12;6.12. Voltage gain decibel;correct;runtime; -61;Electronic Devices(T. L. Floyd);37;6. BJT Amplifiers;6.2;6.2. AC Emitter resistance;correct;runtime; -61;Electronic Devices(T. L. Floyd);37;6. BJT Amplifiers;6.3;6.3. Base voltage;correct;runtime; -61;Electronic Devices(T. L. Floyd);37;6. BJT Amplifiers;6.4;6.4. Emitter bypass capacitor;correct;runtime; -61;Electronic Devices(T. L. Floyd);37;6. BJT Amplifiers;6.5;6.5. Effect bypass capacitor;correct;runtime; -61;Electronic Devices(T. L. Floyd);37;6. BJT Amplifiers;6.6;6.6. Gain with load;correct;runtime; -61;Electronic Devices(T. L. Floyd);37;6. BJT Amplifiers;6.7;6.7. Gain swamped amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);37;6. BJT Amplifiers;6.8;6.8. Common emitter amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);37;6. BJT Amplifiers;6.9;6.9. Current gain;correct;runtime; -61;Electronic Devices(T. L. Floyd);38;7. Field Effect Transistors;7.1;7.1. cutoff FET;correct;runtime; -61;Electronic Devices(T. L. Floyd);38;7. Field Effect Transistors;7.10;7.10. Graphical analysis;correct;runtime; -61;Electronic Devices(T. L. Floyd);38;7. Field Effect Transistors;7.11;7.11. Voltage Divider bias;correct;runtime; -61;Electronic Devices(T. L. Floyd);38;7. Field Effect Transistors;7.12;7.12. Graph voltage divider;correct;runtime; -61;Electronic Devices(T. L. Floyd);38;7. Field Effect Transistors;7.13;7.13. DMOSFET;correct;runtime; -61;Electronic Devices(T. L. Floyd);38;7. Field Effect Transistors;7.14;7.14. EMOSFET;correct;runtime; -61;Electronic Devices(T. L. Floyd);38;7. Field Effect Transistors;7.15;7.15. DMOSFET bias;correct;runtime; -61;Electronic Devices(T. L. Floyd);38;7. Field Effect Transistors;7.16;7.16. EMOSFET bias;correct;runtime; -61;Electronic Devices(T. L. Floyd);38;7. Field Effect Transistors;7.17;7.17. EMOSFET drain current;correct;runtime; -61;Electronic Devices(T. L. Floyd);38;7. Field Effect Transistors;7.2;7.2. Drain current;correct;runtime; -61;Electronic Devices(T. L. Floyd);38;7. Field Effect Transistors;7.3;7.3. JFET current voltage;correct;runtime; -61;Electronic Devices(T. L. Floyd);38;7. Field Effect Transistors;7.4;7.4. JFET transconductance;correct;runtime; -61;Electronic Devices(T. L. Floyd);38;7. Field Effect Transistors;7.5;7.5. JFET input resistance;correct;runtime; -61;Electronic Devices(T. L. Floyd);38;7. Field Effect Transistors;7.6;7.6. Self bias;correct;runtime; -61;Electronic Devices(T. L. Floyd);38;7. Field Effect Transistors;7.7;7.7. Q point JFET;correct;runtime; -61;Electronic Devices(T. L. Floyd);38;7. Field Effect Transistors;7.8;7.8. Self bias Q point;correct;runtime; -61;Electronic Devices(T. L. Floyd);38;7. Field Effect Transistors;7.9;7.9. Midpoint bias;correct;runtime; -61;Electronic Devices(T. L. Floyd);39;8. FET Amplifiers;8.1;8.1. Voltage gain;correct;runtime; -61;Electronic Devices(T. L. Floyd);39;8. FET Amplifiers;8.10;8.10. Common gate amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);39;8. FET Amplifiers;8.2;8.2. Rds effect;correct;runtime; -61;Electronic Devices(T. L. Floyd);39;8. FET Amplifiers;8.3;8.3. External source resistance;correct;runtime; -61;Electronic Devices(T. L. Floyd);39;8. FET Amplifiers;8.4;8.4. Unloaded amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);39;8. FET Amplifiers;8.5;8.5. AC load effect;correct;runtime; -61;Electronic Devices(T. L. Floyd);39;8. FET Amplifiers;8.6;8.6. Input resistance;correct;runtime; -61;Electronic Devices(T. L. Floyd);39;8. FET Amplifiers;8.7;8.7. DMOSFET amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);39;8. FET Amplifiers;8.8;8.8. MOSFET Q points;error;file_not_found;/var/www/scilab_in/uploads-backup/61/CH8/EX8.8/ : NO SCILAB FILE INSIDE -61;Electronic Devices(T. L. Floyd);39;8. FET Amplifiers;8.9;8.9. EMOSFET amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);40;9. Power Amplifiers;9.1;9.1. classA power amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);40;9. Power Amplifiers;9.2;9.2. class A efficiency;correct;runtime; -61;Electronic Devices(T. L. Floyd);40;9. Power Amplifiers;9.3;9.3. class AB pushpull;correct;runtime; -61;Electronic Devices(T. L. Floyd);40;9. Power Amplifiers;9.4;9.4. Single supply pushpull;correct;runtime; -61;Electronic Devices(T. L. Floyd);40;9. Power Amplifiers;9.5;9.5. Power of amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);40;9. Power Amplifiers;9.6;9.6. MOSFET pushpull amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);40;9. Power Amplifiers;9.7;9.7. class C amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);40;9. Power Amplifiers;9.8;9.8. class C efficiency;correct;runtime; -61;Electronic Devices(T. L. Floyd);41;10. Amplifier Frequency Response;10.1;10.1. Gain in decibel;correct;runtime; -61;Electronic Devices(T. L. Floyd);41;10. Amplifier Frequency Response;10.10;10.10. input RC circuit BJT;correct;runtime; -61;Electronic Devices(T. L. Floyd);41;10. Amplifier Frequency Response;10.11;10.11. Critical frequency BJT output;correct;runtime; -61;Electronic Devices(T. L. Floyd);41;10. Amplifier Frequency Response;10.12;10.12. FET capacitors;correct;runtime; -61;Electronic Devices(T. L. Floyd);41;10. Amplifier Frequency Response;10.13;10.13. Critical frequency FET input;correct;runtime; -61;Electronic Devices(T. L. Floyd);41;10. Amplifier Frequency Response;10.14;10.14. Critical frequency FET input;correct;runtime; -61;Electronic Devices(T. L. Floyd);41;10. Amplifier Frequency Response;10.15;10.15. Bandwidth;correct;runtime; -61;Electronic Devices(T. L. Floyd);41;10. Amplifier Frequency Response;10.16;10.16. Bandwidth transistor;correct;runtime; -61;Electronic Devices(T. L. Floyd);41;10. Amplifier Frequency Response;10.17;10.17. Bandwidth 2stage amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);41;10. Amplifier Frequency Response;10.18;10.18. Bandwidth 2stage amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);41;10. Amplifier Frequency Response;10.2;10.2. Critical frequency;correct;runtime; -61;Electronic Devices(T. L. Floyd);41;10. Amplifier Frequency Response;10.3;10.3. Lower critical frequency;correct;runtime; -61;Electronic Devices(T. L. Floyd);41;10. Amplifier Frequency Response;10.4;10.4. Voltage gains;correct;runtime; -61;Electronic Devices(T. L. Floyd);41;10. Amplifier Frequency Response;10.5;10.5. Output RC circuit;correct;runtime; -61;Electronic Devices(T. L. Floyd);41;10. Amplifier Frequency Response;10.6;10.6. Bypass RC circuit BJT;correct;runtime; -61;Electronic Devices(T. L. Floyd);41;10. Amplifier Frequency Response;10.7;10.7. input RC circuit FET;correct;runtime; -61;Electronic Devices(T. L. Floyd);41;10. Amplifier Frequency Response;10.8;10.8. Low frequency response FET;correct;runtime; -61;Electronic Devices(T. L. Floyd);41;10. Amplifier Frequency Response;10.9;10.9. Low frequency response BJT;correct;runtime; -61;Electronic Devices(T. L. Floyd);42;11. Thyristors and Other Devices;11.1;11.1. Four layer diode;correct;runtime; -61;Electronic Devices(T. L. Floyd);42;11. Thyristors and Other Devices;11.2;11.2. Anode current;correct;runtime; -61;Electronic Devices(T. L. Floyd);42;11. Thyristors and Other Devices;11.3;11.3. Unijunction transistor;correct;runtime; -61;Electronic Devices(T. L. Floyd);42;11. Thyristors and Other Devices;11.4;11.4. turn on off UJT;correct;runtime; -61;Electronic Devices(T. L. Floyd);42;11. Thyristors and Other Devices;11.5;11.5. Critical angle;correct;runtime; -61;Electronic Devices(T. L. Floyd);43;12. The Operational Amplifier;12.1;12.1. CMRR opamp;correct;runtime; -61;Electronic Devices(T. L. Floyd);43;12. The Operational Amplifier;12.10;12.10. Gain and phase lag;correct;runtime; -61;Electronic Devices(T. L. Floyd);43;12. The Operational Amplifier;12.11;12.11. Closed loop bandwidth;correct;runtime; -61;Electronic Devices(T. L. Floyd);43;12. The Operational Amplifier;12.12;12.12. Amplifier bandwidth;correct;runtime; -61;Electronic Devices(T. L. Floyd);43;12. The Operational Amplifier;12.2;12.2. Slew rate;correct;runtime; -61;Electronic Devices(T. L. Floyd);43;12. The Operational Amplifier;12.3;12.3. Non inverting amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);43;12. The Operational Amplifier;12.4;12.4. Inverting amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);43;12. The Operational Amplifier;12.5;12.5. Impedance noninverting amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);43;12. The Operational Amplifier;12.6;12.6. Voltage follower impedance;correct;runtime; -61;Electronic Devices(T. L. Floyd);43;12. The Operational Amplifier;12.7;12.7. Impedance inverting amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);43;12. The Operational Amplifier;12.8;12.8. Open Loop gain;correct;runtime; -61;Electronic Devices(T. L. Floyd);43;12. The Operational Amplifier;12.9;12.9. phase RC lag;correct;runtime; -61;Electronic Devices(T. L. Floyd);44;13. Basic Opamp Circuits;13.1;13.1. Comparator;correct;runtime; -61;Electronic Devices(T. L. Floyd);44;13. Basic Opamp Circuits;13.2;13.2. Trigger points;correct;runtime; -61;Electronic Devices(T. L. Floyd);44;13. Basic Opamp Circuits;13.3;13.3. Comparator hysteris Zener bounding;correct;runtime; -61;Electronic Devices(T. L. Floyd);44;13. Basic Opamp Circuits;13.4;13.4. Summing amplifier unity gain;correct;runtime; -61;Electronic Devices(T. L. Floyd);44;13. Basic Opamp Circuits;13.5;13.5. Summing amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);44;13. Basic Opamp Circuits;13.6;13.6. Averaging amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);44;13. Basic Opamp Circuits;13.7;13.7. Scaling adder;correct;runtime; -61;Electronic Devices(T. L. Floyd);44;13. Basic Opamp Circuits;13.8;13.8. Opamp integrator;correct;runtime; -61;Electronic Devices(T. L. Floyd);44;13. Basic Opamp Circuits;13.9;13.9. Opamp differentiator;correct;runtime; -61;Electronic Devices(T. L. Floyd);45;14. Special Purpose Opamp Circuits;14.1;14.1. Gain setting resistor;correct;runtime; -61;Electronic Devices(T. L. Floyd);45;14. Special Purpose Opamp Circuits;14.10;14.10. Antilog amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);45;14. Special Purpose Opamp Circuits;14.2;14.2. Voltage gain Instrumentation amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);45;14. Special Purpose Opamp Circuits;14.3;14.3. Isolation amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);45;14. Special Purpose Opamp Circuits;14.4;14.4. Voltage gain Isolation amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);45;14. Special Purpose Opamp Circuits;14.5;14.5. Transconductance OTA;correct;runtime; -61;Electronic Devices(T. L. Floyd);45;14. Special Purpose Opamp Circuits;14.6;14.6. Voltage gain OTA;correct;runtime; -61;Electronic Devices(T. L. Floyd);45;14. Special Purpose Opamp Circuits;14.7;14.7. Output OTA amplitude modulator;correct;runtime; -61;Electronic Devices(T. L. Floyd);45;14. Special Purpose Opamp Circuits;14.8;14.8. Output log amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);45;14. Special Purpose Opamp Circuits;14.9;14.9. Transistor log amplifier;correct;runtime; -61;Electronic Devices(T. L. Floyd);48;15. Active Filters;15.1;15.1. Band pass filter;correct;runtime; -61;Electronic Devices(T. L. Floyd);48;15. Active Filters;15.2;15.2. Butterworth response;correct;runtime; -61;Electronic Devices(T. L. Floyd);48;15. Active Filters;15.3;15.3. Sallen Key lowpass filter;correct;runtime; -61;Electronic Devices(T. L. Floyd);48;15. Active Filters;15.4;15.4. 4 pole filter;correct;runtime; -61;Electronic Devices(T. L. Floyd);48;15. Active Filters;15.5;15.5. Sallen Key highpass filter;correct;runtime; -61;Electronic Devices(T. L. Floyd);48;15. Active Filters;15.6;15.6. Cascaded filter;correct;runtime; -61;Electronic Devices(T. L. Floyd);48;15. Active Filters;15.7;15.7. State variable filter;correct;runtime; -61;Electronic Devices(T. L. Floyd);48;15. Active Filters;15.8;15.8. Band stop filter;correct;runtime; -61;Electronic Devices(T. L. Floyd);49;16. Oscillators;16.1;16.1. Wien bridge oscillator;correct;runtime; -61;Electronic Devices(T. L. Floyd);49;16. Oscillators;16.2;16.2. Phase shift oscillator;correct;runtime; -61;Electronic Devices(T. L. Floyd);49;16. Oscillators;16.3;16.3. FET Colpitts oscillator;correct;runtime; -61;Electronic Devices(T. L. Floyd);49;16. Oscillators;16.4;16.4. Triangular wave oscillator;correct;runtime; -61;Electronic Devices(T. L. Floyd);49;16. Oscillators;16.5;16.5. Sawtooth VCO;correct;runtime; -61;Electronic Devices(T. L. Floyd);49;16. Oscillators;16.6;16.6. 555 timer;correct;runtime; -61;Electronic Devices(T. L. Floyd);50;17. Voltage Regulators;17.1;17.1. Percentage line regulation;correct;runtime; -61;Electronic Devices(T. L. Floyd);50;17. Voltage Regulators;17.2;17.2. Load regulation percentage;correct;runtime; -61;Electronic Devices(T. L. Floyd);50;17. Voltage Regulators;17.3;17.3. Series regulator;correct;runtime; -61;Electronic Devices(T. L. Floyd);50;17. Voltage Regulators;17.4;17.4. Overload protection;correct;runtime; -61;Electronic Devices(T. L. Floyd);50;17. Voltage Regulators;17.5;17.5. Shunt regulator;correct;runtime; -61;Electronic Devices(T. L. Floyd);50;17. Voltage Regulators;17.6;17.6. Positive linear voltage regulator;correct;runtime; -61;Electronic Devices(T. L. Floyd);50;17. Voltage Regulators;17.7;17.7. External pass filter;correct;runtime; -61;Electronic Devices(T. L. Floyd);50;17. Voltage Regulators;17.8;17.8. Power rating 7824;correct;runtime; -61;Electronic Devices(T. L. Floyd);50;17. Voltage Regulators;17.9;17.9. Current regulator;correct;runtime; -61;Electronic Devices(T. L. Floyd);52;18. Programmable Analog Arrays;18.1;18.1. Switching capacitor;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.1;1.1. shifting and scaling of continuous time signal;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.10;1.10. periodicity of sinusoidal signal;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.11;1.11. periodicity of exponential sequence;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.16;1.16. fundamental period;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.2;1.2. shifting and scaling of discrete time signal;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.21;1.21. unit step signal;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.22;1.22. continuous time signal;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.23;1.23. discrete time signal;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.3;1.3. sampling of continuous time signal;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.31;1.31. first derivative of the signals;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.35;1.35. linearity;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.36;1.36. memoryless causal stable system;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.38;1.38. memoryless causal time invariant system;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.39;1.39. time invariancy;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.4;1.4. discrete time signal;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.41;1.41. linearity;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.5.a;1.5.a. even and odd components;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.5.b;1.5.b. even and odd components;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.5.c;1.5.c. even and odd components;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.5.d;1.5.d. even and odd components;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.6;1.6. even and odd components;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);134;1. Signals and Systems;1.9;1.9. periodicity of exponential signal;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);140;2. Linear Time Invariant Systems;2.10;2.10. output response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);140;2. Linear Time Invariant Systems;2.14.a;2.14.a. cascaded system;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);140;2. Linear Time Invariant Systems;2.14.b;2.14.b. BIBO stability;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);140;2. Linear Time Invariant Systems;2.15;2.15. eigenfunction of the system;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);140;2. Linear Time Invariant Systems;2.16;2.16. eigen value of the system;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);140;2. Linear Time Invariant Systems;2.28;2.28. output response of a discrete time system;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);140;2. Linear Time Invariant Systems;2.29.a;2.29.a. convolution of discrete signals;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);140;2. Linear Time Invariant Systems;2.29.b;2.29.b. convolution of discrete signals;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);140;2. Linear Time Invariant Systems;2.30;2.30. convolution of discrete signals;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);140;2. Linear Time Invariant Systems;2.34;2.34. output response without using convolution;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);140;2. Linear Time Invariant Systems;2.36;2.36. causality;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);140;2. Linear Time Invariant Systems;2.38;2.38. BIBO stability and causality;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);140;2. Linear Time Invariant Systems;2.4;2.4. output response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);140;2. Linear Time Invariant Systems;2.5;2.5. output response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);140;2. Linear Time Invariant Systems;2.6;2.6. convolution;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);140;2. Linear Time Invariant Systems;2.7.a;2.7.a. convolution of two rectangular pulse;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);140;2. Linear Time Invariant Systems;2.7.b;2.7.b. convolution of two rectangular pulse;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);140;2. Linear Time Invariant Systems;2.7.c;2.7.c. convolution of two rectangular pulse;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);140;2. Linear Time Invariant Systems;2.8;2.8. periodic convolution;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);140;2. Linear Time Invariant Systems;2.9;2.9. output response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.1.a;3.1.a. laplace transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.1.b;3.1.b. laplace transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.13;3.13. derivative and shifting property;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.16;3.16. inverse laplace transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.17;3.17. inverse laplace transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.18;3.18. inverse laplace transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.19;3.19. inverse laplace transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.20;3.20. inverse laplace transform by partial fractions;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.21;3.21. inverse laplace transform of time shifted signal;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.22;3.22. differentiation in s domain;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.24;3.24. output response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.25;3.25. impulse response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.27;3.27. cascaded system transfer function;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.28;3.28. first order differntial equation;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.29;3.29. impulse response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.3;3.3. laplace transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.30;3.30. causality and stability;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.34;3.34. bilateral laplace transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.36;3.36. unilateral laplace transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.37;3.37. unilateral laplace transform method;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.38;3.38. second order ODE;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.39;3.39. RC circuit;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.40;3.40. RC circuit response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.41;3.41. RLC circuit;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.42;3.42. circuit analysis;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.5;3.5. pole zero plot;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);67;3. Laplace transform and continuous time LTI systems;3.6;3.6. ROC and pole zero plot;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.1.a;4.1.a. z transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.1.b;4.1.b. z transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.10;4.10. z transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.12;4.12. differentiation property;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.15;4.15. inverse z transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.16;4.16. inverse z transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.18.a;4.18.a. power series expansion technique;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.18.b;4.18.b. power series expansion technique;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.19;4.19. inverse z transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.20;4.20. inverse z transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.21;4.21. inverse z transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.22;4.22. inverse z transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.23;4.23. inverse z transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.25;4.25. inverse z transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.26;4.26. output response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.27;4.27. output response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.28;4.28. impulse response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.29;4.29. impulse response and output;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.3;4.3. finite sequence z transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.31;4.31. impulse response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.32;4.32. impulse and step response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.35;4.35. unilateral z transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.37;4.37. unilateral z transform method;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.38;4.38. difference equation;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.4;4.4. pole zero plot;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.6.a;4.6.a. z transform and pole zero plot;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.6.b;4.6.b. z transform and pole zero plot;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.6.c;4.6.c. z transform and pole zero plot;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);68;4. The z transform and discrete time LTI systems;4.7;4.7. pole zero plot;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.10;5.10. differentiation property of fourier series;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.11;5.11. magnitude spectra of a periodic square wave;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.19;5.19. fourier transform of a rectangular pulse;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.20;5.20. fourier transform of a sinc function;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.21;5.21. fourier transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.22;5.22. fourier transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.23.a;5.23.a. fourier transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.23.b;5.23.b. fourier transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.23.c;5.23.c. fourier transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.23.d;5.23.d. fourier transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.23.e;5.23.e. fourier transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.25;5.25. fourier transform of a periodic impulse train;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.27;5.27. inverse fourier transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.29;5.29. fourier transform of a signum function;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.30;5.30. fourier transform of a step signal;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.32;5.32. inverse fourier transform using convolution;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.34;5.34. integration property;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.4.a;5.4.a. fourier series representation;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.4.b;5.4.b. fourier series representation;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.4.c;5.4.c. fourier series representation;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.4.d;5.4.d. fourier series representation;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.4.e;5.4.e. fourier series representation;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.40.a;5.40.a. fourier transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.40.b;5.40.b. fourier transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.42;5.42. fourier transform of a exponential signal;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.43;5.43. fourier transform of a guassian pulse;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.44;5.44. impulse response using fourier transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.45.a;5.45.a. output response using fourier transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.45.b;5.45.b. output response using fourier transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.46;5.46. harmonics in the output response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.47.a;5.47.a. bode plot;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.47.b;5.47.b. bode plot;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.47.c;5.47.c. bode plot;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.48;5.48. impulse response of a phase shifter;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.5;5.5. fourier series of a periodic square wave;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.52;5.52. output of a ideal LPF;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.53;5.53. output of a ideal LPF;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.54;5.54. ideal low pass filter;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.55;5.55. equivalent bandwidth;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.58;5.58. fourier spectrum;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.6;5.6. fourier series of a periodic square wave;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.7;5.7. fourier series of a periodic square wave;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.8;5.8. fourier series of a periodic impulse train;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);144;5. Fourier analysis of continuous time system and signals;5.9;5.9. differentiation property of fourier series;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.11;6.11. fourier transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.12;6.12. fourier transform of a rectangular pulse;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.14;6.14. fourier transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.15;6.15. inverse fourier transform of a rectangular pulse;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.17;6.17. inverse fourier transform of a impulse signal;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.18;6.18. fourier transform of constant signal;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.19;6.19. fourier transform of a sinusoidal sequence;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.22;6.22. fourier transform;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.25;6.25. inverse fourier transform using convolution;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.28;6.28. frequency response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.3;6.3. fourier coefficients;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.31;6.31. frequency response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.32;6.32. frequency response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.33;6.33. output response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.34;6.34. magnitude and phase response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.35;6.35. frequency response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.36;6.36. discrete time low pass filter;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.38;6.38. convertion of LPF to HPF;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.4;6.4. fourier coefficients of a periodic sequence;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.40;6.40. impulse response os a FIR filter;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.41;6.41. three point moving average discrete time filter;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.42;6.42. causal discrete time FIR filter;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.43;6.43. Rc low pass filter;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.44;6.44. frequency response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.45;6.45. bilinear transformation;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.49;6.49. N point DFT;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.5;6.5. fourier coefficients;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.50;6.50. DFT;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.55;6.55. DFT using matrices;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.56;6.56. DFT using matrices;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.57;6.57. decimation in time FFT algorithm;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.59;6.59. decimation in time FFT algorithm;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.6;6.6. discrete fourier series representation;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);128;6. Fourier analysis of discrete time system and signals;6.61;6.61. fourier spectrum using DFT;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.11;7.11. state equation for discrete time system;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.14;7.14. state equation for continuous time system;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.15;7.15. state equation for continuous time system;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.16;7.16. state equation for continuous time system;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.18;7.18. state equation for continuous time system;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.20;7.20. A power n;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.24;7.24. A power n;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.25;7.25. A power n;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.26;7.26. decomposition of matrix A;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.27;7.27. minimal polynomial;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.29;7.29. step response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.30;7.30. impulse response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.31;7.31. difference equation;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.32;7.32. stability;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.35;7.35. observability and controllability;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.36;7.36. finding vector x;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.37;7.37. finding vector y;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.38;7.38. observability and controllability;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.39;7.39. e power At;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.43;7.43. e power At;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.44;7.44. e power At;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.45;7.45. e power At;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.47;7.47. nilpotent matrix;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.48;7.48. second order ODE;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.49;7.49. RC circuit response;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.5;7.5. state space representation;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.50;7.50. stability;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.53;7.53. observability and controllability;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.54;7.54. observability and controllability;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.7;7.7. state equation for discrete system;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.8;7.8. state equation for discrete time system;correct;runtime; -62;Schaums Outlines Signals And Systems(H. P. Hsu);69;7. state space analysis;7.9;7.9. state equation for discrete time system;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);53;1. Introduction To Communication Systems;1.1;1.1. Fourier series;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);53;1. Introduction To Communication Systems;1.2;1.2. Evaluate a single pulse;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);55;2. Noise;2.1;2.1. RMS noise voltage;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);55;2. Noise;2.2;2.2. Noise voltage;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);55;2. Noise;2.3;2.3. Input noise resistance;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);55;2. Noise;2.4;2.4. Noise figure of amplifier;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);131;3. Amplitude Modulation;3.1;3.1. Frequency range by sidebands;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);131;3. Amplitude Modulation;3.2;3.2. Total power in modulated wave;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);131;3. Amplitude Modulation;3.3;3.3. Carrier power;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);131;3. Amplitude Modulation;3.4;3.4. Antenna current;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);131;3. Amplitude Modulation;3.5;3.5. Total radiated power;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);131;3. Amplitude Modulation;3.6;3.6. Modulation index;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);132;4. Single Sideband Techniques;4.1;4.1. Power savings;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);132;4. Single Sideband Techniques;4.2;4.2. Frequency;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);133;5. Frequency Modulation;5.1;5.1. Modulation index;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);133;5. Frequency Modulation;5.2;5.2. Carrier and modulating frequencies;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);133;5. Frequency Modulation;5.3;5.3. Bandwidth;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);133;5. Frequency Modulation;5.4;5.4. Equation of modulated wave;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);133;5. Frequency Modulation;5.5;5.5. Capacity reactance;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);133;5. Frequency Modulation;5.6;5.6. Total frequency variation;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);133;5. Frequency Modulation;5.7;5.7. RMS value of modulating voltage;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);304;6. Radio Receivers;6.1;6.1. Image frequency and Rejection ratio;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);304;6. Radio Receivers;6.2;6.2. Loaded Q and intermediate frequency;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);304;6. Radio Receivers;6.3;6.3. Maximum modulation index;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);305;7. Transmission Lines;7.1;7.1. Inductance and outer conductor diameter;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);305;7. Transmission Lines;7.2;7.2. Minimum value of characteristic impediance;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);305;7. Transmission Lines;7.3;7.3. Outer conductor diameter;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);305;7. Transmission Lines;7.4;7.4. Charactericstic impediance;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);305;7. Transmission Lines;7.5;7.5. Reactance and characteristic impedance;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);306;9. Antennas;9.1;9.1. Length of antenna;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);306;9. Antennas;9.2;9.2. Power delivered to isotropic antenna;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);306;9. Antennas;9.3;9.3. ERP;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);306;9. Antennas;9.4;9.4. Beamwidth;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);306;9. Antennas;9.5;9.5. Gain of antenna;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);307;10. Waveguides Resonators And Components;10.1;10.1. Cutoff frequency of dominant mode;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);307;10. Waveguides Resonators And Components;10.10;10.10. Ratio of cross section;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);307;10. Waveguides Resonators And Components;10.11;10.11. Voltage attenuation;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);307;10. Waveguides Resonators And Components;10.2;10.2. Lowest frequency;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);307;10. Waveguides Resonators And Components;10.3;10.3. Cutoff wavelength for dominant mode;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);307;10. Waveguides Resonators And Components;10.4;10.4. Greatest number of half waves;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);307;10. Waveguides Resonators And Components;10.5;10.5. Formula for cutoff wavelength;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);307;10. Waveguides Resonators And Components;10.6;10.6. Characteristic wave impediance;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);307;10. Waveguides Resonators And Components;10.7;10.7. Various parameters for TE10 and TM11;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);307;10. Waveguides Resonators And Components;10.8;10.8. Frequency;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);307;10. Waveguides Resonators And Components;10.9;10.9. Various parameters of circular waveguide;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);308;13. Pulse Communications;13.1;13.1. Capacity of 4 Khz telephone channel;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);308;13. Pulse Communications;13.2;13.2. Information carrying capacity;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);310;16. Radar Systems;16.1;16.1. Duty cycle of radar;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);310;16. Radar Systems;16.2;16.2. Average power;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);310;16. Radar Systems;16.3;16.3. Minimum receivable signal;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);310;16. Radar Systems;16.4;16.4. Maximum range of radar;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);310;16. Radar Systems;16.5;16.5. Peak transmitted pulse power;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);310;16. Radar Systems;16.6;16.6. Maximum range of deep space radar;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);310;16. Radar Systems;16.7;16.7. Lowest three blind speeds of radar;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);310;16. Radar Systems;16.8;16.8. Maximum active tracking range;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);310;16. Radar Systems;16.9;16.9. Doppler frequency;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);309;18. Introduction To Fiber Optic Technology;18.1;18.1. Critical angle;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);309;18. Introduction To Fiber Optic Technology;18.2;18.2. Bandwidth;correct;runtime; -63;Electronic Communication Systems(G. Kennedy And B. Davis);309;18. Introduction To Fiber Optic Technology;18.3;18.3. Responsivity;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.1.a;1.1.a. Check for periodicity;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.1.b;1.1.b. Check for periodicity;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.14.a;1.14.a. Check for causal system;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.18.a;1.18.a. Check for time invariant systems;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.18.b;1.18.b. Check for time invariant systems;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.18.c;1.18.c. Check for time invariant systems;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.19.a;1.19.a. Check for linear systems;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.19.b;1.19.b. Check for linear systems;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.20.b;1.20.b. Check for linear systems;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.21;1.21. Check for linear systems;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.22;1.22. Check for linear systems;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.25;1.25. Check for linear systems;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.27;1.27. Find energy of signal;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.28;1.28. Find power of signal;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.30;1.30. Find energy of signal;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.31.a;1.31.a. Check for periodicity;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.31.b;1.31.b. Check for periodicity;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.33;1.33. Find power of signal;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.34;1.34. Find energy of signal;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.39.a;1.39.a. Sketch continous time signal;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.39.b;1.39.b. Sketch continous time signal;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.4;1.4. Sketch and find power;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.43;1.43. Check for linear systems;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.47;1.47. Check for time invariant systems;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.49.a;1.49.a. Check for periodicity;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.49.b;1.49.b. Check for periodicity;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.5;1.5. Sketch and find energy;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.6;1.6. Sketch and find energy;correct;runtime; -67;Signals And Systems(S. Sharma );203;1. Introduction to signals and systems;1.8;1.8. Find power of signal;correct;runtime; -67;Signals And Systems(S. Sharma );195;2. Linear Time Invariant System;2.1;2.1. Convolution of two continous time functions;correct;runtime; -67;Signals And Systems(S. Sharma );195;2. Linear Time Invariant System;2.17.a;2.17.a. Check for causal system;correct;runtime; -67;Signals And Systems(S. Sharma );195;2. Linear Time Invariant System;2.17.b;2.17.b. Check for causal system;correct;runtime; -67;Signals And Systems(S. Sharma );195;2. Linear Time Invariant System;2.17.c;2.17.c. Check for causal system;correct;runtime; -67;Signals And Systems(S. Sharma );195;2. Linear Time Invariant System;2.19.a;2.19.a. Check for linear systems;correct;runtime; -67;Signals And Systems(S. Sharma );195;2. Linear Time Invariant System;2.19.b;2.19.b. Check for linear systems;correct;runtime; -67;Signals And Systems(S. Sharma );195;2. Linear Time Invariant System;2.2;2.2. Find responce of system;correct;runtime; -67;Signals And Systems(S. Sharma );195;2. Linear Time Invariant System;2.21.a;2.21.a. Check for linear systems;correct;runtime; -67;Signals And Systems(S. Sharma );195;2. Linear Time Invariant System;2.21.b;2.21.b. Check for linear systems;correct;runtime; -67;Signals And Systems(S. Sharma );195;2. Linear Time Invariant System;2.25;2.25. Check for linear systems;correct;runtime; -67;Signals And Systems(S. Sharma );195;2. Linear Time Invariant System;2.3;2.3. Find unit step responce of system;correct;runtime; -67;Signals And Systems(S. Sharma );195;2. Linear Time Invariant System;2.4;2.4. Convolution of two continous time functions;correct;runtime; -67;Signals And Systems(S. Sharma );195;2. Linear Time Invariant System;2.5;2.5. Evaluation of output of LTI system;correct;runtime; -67;Signals And Systems(S. Sharma );195;2. Linear Time Invariant System;2.59;2.59. Convolution of two discrete time signals;correct;runtime; -67;Signals And Systems(S. Sharma );195;2. Linear Time Invariant System;2.6;2.6. Find responce of system;correct;runtime; -67;Signals And Systems(S. Sharma );195;2. Linear Time Invariant System;2.7;2.7. Convolution of two discrete time signals;correct;runtime; -67;Signals And Systems(S. Sharma );195;2. Linear Time Invariant System;2.8;2.8. Find responce of system;correct;runtime; -67;Signals And Systems(S. Sharma );213;3. Fourier Analysis of Periodic and APeriodic Continous Time Signal;3.15;3.15. Fourier Transform;correct;runtime; -67;Signals And Systems(S. Sharma );213;3. Fourier Analysis of Periodic and APeriodic Continous Time Signal;3.31;3.31. Fourier Transform;correct;runtime; -67;Signals And Systems(S. Sharma );213;3. Fourier Analysis of Periodic and APeriodic Continous Time Signal;3.8;3.8. Fourier Transform;correct;runtime; -67;Signals And Systems(S. Sharma );213;3. Fourier Analysis of Periodic and APeriodic Continous Time Signal;3.9;3.9. Fourier Transform;correct;runtime; -67;Signals And Systems(S. Sharma );123;4. The Discrete Time Fourier Transform;4.1;4.1. DTFT computation;correct;runtime; -67;Signals And Systems(S. Sharma );123;4. The Discrete Time Fourier Transform;4.10;4.10. DTFT of cosine;correct;runtime; -67;Signals And Systems(S. Sharma );123;4. The Discrete Time Fourier Transform;4.12;4.12. DTFT of unit step;correct;runtime; -67;Signals And Systems(S. Sharma );123;4. The Discrete Time Fourier Transform;4.16;4.16. DTFT computation;correct;runtime; -67;Signals And Systems(S. Sharma );123;4. The Discrete Time Fourier Transform;4.2;4.2. DTFT computation;correct;runtime; -67;Signals And Systems(S. Sharma );123;4. The Discrete Time Fourier Transform;4.22;4.22. DTFT computation;correct;runtime; -67;Signals And Systems(S. Sharma );123;4. The Discrete Time Fourier Transform;4.3;4.3. DTFT computation of unit impluse;correct;runtime; -67;Signals And Systems(S. Sharma );123;4. The Discrete Time Fourier Transform;4.5;4.5. DTFT computation;correct;runtime; -67;Signals And Systems(S. Sharma );123;4. The Discrete Time Fourier Transform;4.9;4.9. Sketch discrete time signal;correct;runtime; -67;Signals And Systems(S. Sharma );201;5. Time and Frequency characterisation of signals and systems;5.1;5.1. Bode Plot;correct;runtime; -67;Signals And Systems(S. Sharma );201;5. Time and Frequency characterisation of signals and systems;5.2;5.2. Bode Plot;correct;runtime; -67;Signals And Systems(S. Sharma );202;6. Sampling And Laplace Transform;6.1;6.1. Find nyquist rate;correct;runtime; -67;Signals And Systems(S. Sharma );202;6. Sampling And Laplace Transform;6.2;6.2. Find nyquist rate;correct;runtime; -67;Signals And Systems(S. Sharma );202;6. Sampling And Laplace Transform;6.26;6.26. Laplace transform of signal;correct;runtime; -67;Signals And Systems(S. Sharma );202;6. Sampling And Laplace Transform;6.27.a;6.27.a. Laplace transform of function;correct;runtime; -67;Signals And Systems(S. Sharma );202;6. Sampling And Laplace Transform;6.27.b;6.27.b. Laplace transform of function;correct;runtime; -67;Signals And Systems(S. Sharma );202;6. Sampling And Laplace Transform;6.27.c;6.27.c. Laplace transform of function;correct;runtime; -67;Signals And Systems(S. Sharma );202;6. Sampling And Laplace Transform;6.27.d;6.27.d. Laplace transform of function;correct;runtime; -67;Signals And Systems(S. Sharma );202;6. Sampling And Laplace Transform;6.27.e;6.27.e. Laplace transform of function;correct;runtime; -67;Signals And Systems(S. Sharma );202;6. Sampling And Laplace Transform;6.4;6.4. Find nyquist rate;correct;runtime; -67;Signals And Systems(S. Sharma );202;6. Sampling And Laplace Transform;6.48;6.48. Find responce of system;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.1;7.1. z transform;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.10;7.10. z transform;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.11.a;7.11.a. z transform;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.11.b;7.11.b. z transform;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.12;7.12. z transform using differentiation property;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.13;7.13. z transform;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.18;7.18. Find Discrete time input signal;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.19;7.19. Inverse Z transform;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.2;7.2. z transform of unit impulse;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.24.a;7.24.a. Inverse Z transform using long division method;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.3;7.3. z transform of unit step;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.36;7.36. z transform;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.37;7.37. z transform;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.38;7.38. z transform;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.39;7.39. z transform using differentiation property;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.42.a;7.42.a. z transform of sequence;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.42.b;7.42.b. z transform of sequence;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.43;7.43. z transform;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.48.a;7.48.a. z transform;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.48.b;7.48.b. z transform;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.5;7.5. z transform of cosine;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.50;7.50. z transform of sequence;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.52;7.52. z transform of discrete signal;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.54;7.54. Inverse Z transform;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.56;7.56. Find Discrete time input signal;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.59.a;7.59.a. z transform;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.59.b;7.59.b. z transform;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.6;7.6. z transform;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.61.a;7.61.a. z transform of discrete signal;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.61.b;7.61.b. z transform of discrete signal;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.61.c;7.61.c. z transform of discrete signal;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.65;7.65. z transform;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.68.a;7.68.a. z transform of discrete signal;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.68.b;7.68.b. z transform of discrete signal;correct;runtime; -67;Signals And Systems(S. Sharma );121;7. The Z Transform;7.7;7.7. z transform of sequence;correct;runtime; -67;Signals And Systems(S. Sharma );46;8. Discrete Fourier Transform and Fast Fourier Transform;8.1;8.1. Convolution of two finite duration sequences;correct;runtime; -67;Signals And Systems(S. Sharma );46;8. Discrete Fourier Transform and Fast Fourier Transform;8.10;8.10. IDFT computation;correct;runtime; -67;Signals And Systems(S. Sharma );46;8. Discrete Fourier Transform and Fast Fourier Transform;8.11;8.11. DFT computation using FFT algorithm;correct;runtime; -67;Signals And Systems(S. Sharma );46;8. Discrete Fourier Transform and Fast Fourier Transform;8.12;8.12. DFT computation using FFT algorithm;correct;runtime; -67;Signals And Systems(S. Sharma );46;8. Discrete Fourier Transform and Fast Fourier Transform;8.13;8.13. DFT computation;correct;runtime; -67;Signals And Systems(S. Sharma );46;8. Discrete Fourier Transform and Fast Fourier Transform;8.14;8.14. DFT computation;correct;runtime; -67;Signals And Systems(S. Sharma );46;8. Discrete Fourier Transform and Fast Fourier Transform;8.15;8.15. DFT computation;correct;runtime; -67;Signals And Systems(S. Sharma );46;8. Discrete Fourier Transform and Fast Fourier Transform;8.16;8.16. DFT computation;correct;runtime; -67;Signals And Systems(S. Sharma );46;8. Discrete Fourier Transform and Fast Fourier Transform;8.17;8.17. DFT computation;correct;runtime; -67;Signals And Systems(S. Sharma );46;8. Discrete Fourier Transform and Fast Fourier Transform;8.2;8.2. Responce of an FIR filter;correct;runtime; -67;Signals And Systems(S. Sharma );46;8. Discrete Fourier Transform and Fast Fourier Transform;8.3;8.3. DFT and IDFT;correct;runtime; -67;Signals And Systems(S. Sharma );46;8. Discrete Fourier Transform and Fast Fourier Transform;8.4;8.4. DFT computation;correct;runtime; -67;Signals And Systems(S. Sharma );46;8. Discrete Fourier Transform and Fast Fourier Transform;8.5;8.5. DFT computation;correct;runtime; -67;Signals And Systems(S. Sharma );46;8. Discrete Fourier Transform and Fast Fourier Transform;8.6;8.6. DFT of sequence;correct;runtime; -67;Signals And Systems(S. Sharma );46;8. Discrete Fourier Transform and Fast Fourier Transform;8.7;8.7. DFT computation;correct;runtime; -67;Signals And Systems(S. Sharma );46;8. Discrete Fourier Transform and Fast Fourier Transform;8.8;8.8. DFT computation;correct;runtime; -67;Signals And Systems(S. Sharma );46;8. Discrete Fourier Transform and Fast Fourier Transform;8.9;8.9. IDFT computation;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);61;1. Introduction to Electronics;1.1;1.1. Amplifier gain power and eficiency;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);61;1. Introduction to Electronics;1.2;1.2. Gain of transistor amplifier;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);61;1. Introduction to Electronics;1.3;1.3. Overall voltage gain of three stage amplifier;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);61;1. Introduction to Electronics;1.4;1.4. Bipolar junction transistor;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);61;1. Introduction to Electronics;1.5;1.5. DC gain 3dB frequency and frequency at which gain;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);61;1. Introduction to Electronics;1.6;1.6. Evaluation of tPHL;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);62;2. Operational Amplifiers;2.1;2.1. Closed loop and open loop gain;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);62;2. Operational Amplifiers;2.3;2.3. Design instrumentation amplifier;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);63;3. Diodes;3.1;3.1. Peak value of diode current and maximum reverse vo;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);63;3. Diodes;3.2;3.2. Values of Iand V for the circuit given;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);63;3. Diodes;3.3;3.3. Evaluating junction scaling constant;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);63;3. Diodes;3.4;3.4. To determine ID and VD;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);63;3. Diodes;3.5;3.5. Repeating example 4 using piecewise linear model;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);63;3. Diodes;3.6;3.6. Power supply ripple;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);63;3. Diodes;3.7;3.7. Percentage change in regulated voltage;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);63;3. Diodes;3.8;3.8. line regulation load regulation;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);63;3. Diodes;3.9;3.9. Value of capacitance C that will result in peak pe;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);72;4. MOS Field Effect Transistors;4.1;4.1. To determine operating point parameters;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);72;4. MOS Field Effect Transistors;4.10;4.10. Small signal analysis;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);72;4. MOS Field Effect Transistors;4.11;4.11. To determine all parameters of transistor amplifie;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);72;4. MOS Field Effect Transistors;4.12;4.12. Midband gain and upper 3dB frequency;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);72;4. MOS Field Effect Transistors;4.13;4.13. Coupling capacitor values;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);72;4. MOS Field Effect Transistors;4.2;4.2. Design of given circuit;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);72;4. MOS Field Effect Transistors;4.3;4.3. Design of given circuit;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);72;4. MOS Field Effect Transistors;4.4;4.4. Design of given circuit;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);72;4. MOS Field Effect Transistors;4.5;4.5. To determine all node voltages and currents throug;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);72;4. MOS Field Effect Transistors;4.6;4.6. Design of given circuit;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);72;4. MOS Field Effect Transistors;4.7;4.7. To determine drain currents and output voltage;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);72;4. MOS Field Effect Transistors;4.9;4.9. Design of given circuit;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);73;5. Bipolar Junction Transistor;5.1;5.1. Design of given circuit with current 2mA;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);73;5. Bipolar Junction Transistor;5.10;5.10. Analyse the circuit to find node voltages and bran;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);73;5. Bipolar Junction Transistor;5.11;5.11. Analyse the circuit to find node voltages and bran;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);73;5. Bipolar Junction Transistor;5.13;5.13. Design of bias network of the amplifier;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);73;5. Bipolar Junction Transistor;5.14;5.14. Analysis of transistor amplifier;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);73;5. Bipolar Junction Transistor;5.17;5.17. Amplifier parameters;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);73;5. Bipolar Junction Transistor;5.18;5.18. Midband gain and 3dB frequency;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);73;5. Bipolar Junction Transistor;5.19;5.19. To select values of capacitance required;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);73;5. Bipolar Junction Transistor;5.2;5.2. Consider a common Emitter circuit;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);73;5. Bipolar Junction Transistor;5.3;5.3. Determine RB;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);73;5. Bipolar Junction Transistor;5.4;5.4. Analyse the circuit to find node voltages and bran;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);73;5. Bipolar Junction Transistor;5.5;5.5. Analyse the circuit to find node voltages and bran;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);73;5. Bipolar Junction Transistor;5.7;5.7. Analyse the circuit to find node voltages and bran;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);73;5. Bipolar Junction Transistor;5.8;5.8. Analyse the circuit to find node voltages and bran;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);73;5. Bipolar Junction Transistor;5.9;5.9. Analyse the circuit to find node voltages and bran;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);93;6. single stage integrated circuit amplifiers;6.1;6.1. To find the operating point of NMOS transistor;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);93;6. single stage integrated circuit amplifiers;6.10;6.10. To determine AM ft fZ f3dB;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);93;6. single stage integrated circuit amplifiers;6.11;6.11. Avo Rin Rout Gi Gis Gv fH;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);93;6. single stage integrated circuit amplifiers;6.12;6.12. Comparison between Cascode amplifier and CS amplif;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);93;6. single stage integrated circuit amplifiers;6.13;6.13. Analysis of CC CE amplifier;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);93;6. single stage integrated circuit amplifiers;6.14;6.14. To determine required resistor values;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);93;6. single stage integrated circuit amplifiers;6.2;6.2. Comparison between NMOS transistor and npn transis;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);93;6. single stage integrated circuit amplifiers;6.3;6.3. Comparison between NMOS transistor and npn transis;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);93;6. single stage integrated circuit amplifiers;6.4;6.4. Design of the circuit with output current 100uA;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);93;6. single stage integrated circuit amplifiers;6.5;6.5. Determine 3dB frequency;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);93;6. single stage integrated circuit amplifiers;6.6;6.6. To determine midband gain and upper 3dB frequency;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);93;6. single stage integrated circuit amplifiers;6.7;6.7. Application of miller theorem;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);93;6. single stage integrated circuit amplifiers;6.8;6.8. Analysis of CMOS CS amplifier;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);93;6. single stage integrated circuit amplifiers;6.9;6.9. Analysis of CMOS CS amplifier;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);74;7. Differential and multistage amplifier;7.1;7.1. Analysis of differential amplifier;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);74;7. Differential and multistage amplifier;7.2;7.2. Analysis of Active loaded MOS differential amplifi;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);74;7. Differential and multistage amplifier;7.3;7.3. To determine all parameters for different transist;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);74;7. Differential and multistage amplifier;7.5;7.5. Analysis of given circuit;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);125;8. Feedback;8.1;8.1. Analysis of op amp connected in an inverting conf;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);125;8. Feedback;8.2;8.2. Feedback triple;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);125;8. Feedback;8.3;8.3. Small signal analysis;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);125;8. Feedback;8.4;8.4. Small signal analysis;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);75;9. Operational amplifier and data converter circuits;9.1;9.1. Design of two stage CMOS op amp;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);75;9. Operational amplifier and data converter circuits;9.2;9.2. To determine Av ft fP SR and PD of folded casc;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);75;9. Operational amplifier and data converter circuits;9.3;9.3. To determine input offset voltage;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);76;10. Digital CMOS logic circuits;10.1;10.1. To determine tPHL tPLH and tP;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);76;10. Digital CMOS logic circuits;10.2;10.2. WbyL ratios for the logic circuit;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);76;10. Digital CMOS logic circuits;10.3;10.3. To determine the parameters of pseudo NMOS inverte;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);76;10. Digital CMOS logic circuits;10.4;10.4. To determine parameters for NMOS transistor;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);77;11. Memory and advanced digital circuits;11.1;11.1. Min WbyL ratio to ensure flip flop will switch;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);77;11. Memory and advanced digital circuits;11.2;11.2. Design of two stage CMOS op amp;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);77;11. Memory and advanced digital circuits;11.3;11.3. Time required;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);126;12. Filters and tuned amplifiers;12.4;12.4. To design tuned amplifier;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);127;14. Output Stages and amplifier;14.1;14.1. To design a Class B Output Amplifier;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);127;14. Output Stages and amplifier;14.2;14.2. To determine quiescent current and power;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);127;14. Output Stages and amplifier;14.3;14.3. Redesign the output stage of Example 2;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);127;14. Output Stages and amplifier;14.4;14.4. To determine thermal resistance junction temperat;correct;runtime; -68;Microelectronic Circuits(A. S. Sedra And K. C. Smith);127;14. Output Stages and amplifier;14.5;14.5. To determine the maximum power dissipated;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);440;1. Semiconductor Diodes;1.1;1.1. Thermal Voltage calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);440;1. Semiconductor Diodes;1.2;1.2. Dc level resistance calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);440;1. Semiconductor Diodes;1.3;1.3. Ac resistance calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);440;1. Semiconductor Diodes;1.4;1.4. Zener voltage determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);440;1. Semiconductor Diodes;1.5;1.5. Wavelength determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.1;2.1. Q point using diode characteristics;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.10;2.10. Vo I1 Id1 and Id2 for parallel diode config;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.11;2.11. Resistor values;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.12;2.12. Output voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.13;2.13. Determine network currents;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.14;2.14. Output voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.15;2.15. Output voltage for positive logic AND;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.16.a;2.16.a. Sketch output and determine dc level;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.16.b;2.16.b. Sketch output and determine dc level for Si diode case;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.16.c;2.16.c. Determine dc level if Vm is 200V;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.17;2.17. Sketch output waveform;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.18;2.18. Sketch output waveform;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.19;2.19. Sketch output waveform;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.2;2.2. Vdq Vr and Idq by approx equivalent model;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.20;2.20. Sketch output waveform;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.21;2.21. Sketch output waveform using Ge diode;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.22;2.22. Sketch output waveform;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.23;2.23. Sketch output waveform using Si diode;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.24;2.24. Voltages and Power calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.25;2.25. Sketch output waveform;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.26.a;2.26.a. Vl Vr Iz Pz;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.26.b;2.26.b. Vl Vr Iz Pz with different Rl;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.27;2.27. Rl Il Range max power and zener increase;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.28;2.28. Range of Vi;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.3;2.3. Vdq Vr and Idq by ideal diode model;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.4;2.4. Vd Vr and Id;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.5;2.5. Vd Vr and Id with diode reversed;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.6;2.6. Vd Vr and Id for series diode config;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.7;2.7. Vo and Id calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.8;2.8. Id Vd2 and Vo calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);210;2. Diode Applications;2.9;2.9. I V1 V2 and Vo calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);439;3. Bipolar Junction Transistor;3.1;3.1. Determining Collector current and Vbe;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);439;3. Bipolar Junction Transistor;3.2;3.2. Determining Collector current;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.1;4.1. Fixed Bias Network characteristics;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.10;4.10. Icq and Vceq calculation for voltage divider;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.11;4.11. Icq and Vceq calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.12;4.12. Icq and Vceq calculation for a different beta;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.13;4.13. Ib and Vc calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.14;4.14. Network characteristics determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.15;4.15. Vc and Vb calculcation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.16;4.16. Vceq and Ie;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.17;4.17. Vcb and Ib for common base config;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.18;4.18. Vc and Vb calculcation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.19;4.19. Vcc Rc and Rb for fixed bias config;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.2;4.2. Saturation level;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.20;4.20. R1 and Rc;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.21;4.21. Rc Re and Rb;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.22;4.22. Resistor values for the netowrk;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.23;4.23. Rc Re R1 and R2;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.24;4.24. Rb and Rc;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.25;4.25. Determine proper operation of network;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.26;4.26. Determine proper operation of network;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.27;4.27. Vce for voltage divider config;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.28;4.28. Stabiliity factor and change in Ic;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.29;4.29. Stabiliity factor and change in Ic;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.3;4.3. Vcc Rc and Rb for fixed bias config;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.30;4.30. Determine Icq;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.4;4.4. Emitter bias Network characteristics;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.6;4.6. Saturation current;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.7;4.7. Vce and Ic for voltage divider config;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.8;4.8. Icq and Vcq calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);438;4. DC Biasing BJT;4.9;4.9. Icq and Vceq calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.1;5.1. Common base config characteristics;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.10;5.10. Emitter follower Network characteristics determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.11;5.11. Network characteristics determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.12;5.12. Network characteristics determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.13;5.13. Network characteristics determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.14;5.14. Fixed Bias Network characteristics;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.15;5.15. Av and Avs;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.16;5.16. Network characteristics determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.17;5.17. Network characteristics determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.18;5.18. Network characteristics determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.19;5.19. No load voltage gain;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.2;5.2. Zi Av and Ai for common emitter;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.20;5.20. Dc bias voltage and current;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.21;5.21. Input impedance;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.22;5.22. Ac current gain;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.23;5.23. Output impedance;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.24;5.24. Ac voltage gain;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.25;5.25. Dc bias voltage and current;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.26;5.26. Ac circuit values of Zi Zo Ai Av;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.27;5.27. Mirrored Current;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.28;5.28. Current through transistors;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.29;5.29. Constant current;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.3;5.3. Common emitter hybrid and common base model;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.30;5.30. Constant current;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.31;5.31. Network characteristics determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.32;5.32. Network characteristics determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.33;5.33. Determing parameters using hybrid equivalent model;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.34;5.34. Determing parameters using hybrid equivalent model;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.4;5.4. Network characteristics determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.5;5.5. Network characteristics determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.6;5.6. Network characteristics without Ce;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.7;5.7. Network characteristics with Ce;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.8;5.8. Network characteristics determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);437;5. BJT AC Analysis;5.9;5.9. Network characteristics determination with Ce;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);434;6. Field Effect Transistor;6.1;6.1. Sketching the transfer curve;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);434;6. Field Effect Transistor;6.2;6.2. Sketching the transfer curve;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);434;6. Field Effect Transistor;6.3;6.3. Sketching the transfer curve;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);434;6. Field Effect Transistor;6.4;6.4. Sketching the transfer curve and finding value of k;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);433;7. FET Biasing;7.1;7.1. Network characteristics determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);433;7. FET Biasing;7.10;7.10. Vds determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);433;7. FET Biasing;7.11;7.11. Idq Vdsq Calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);433;7. FET Biasing;7.12;7.12. Idq Vgsq and Vds calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);433;7. FET Biasing;7.13;7.13. Vd and Vc level determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);433;7. FET Biasing;7.14;7.14. Vd level determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);433;7. FET Biasing;7.15;7.15. Vdq and Idq level;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);433;7. FET Biasing;7.16;7.16. Rs determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);433;7. FET Biasing;7.17;7.17. Vdd and Rd determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);433;7. FET Biasing;7.18;7.18. Idq Vgsq and Vds calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);433;7. FET Biasing;7.19;7.19. Q point value of Id and Vgs;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);433;7. FET Biasing;7.2;7.2. Network characteristics determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);433;7. FET Biasing;7.20;7.20. Q point value of Id and Vgs;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);433;7. FET Biasing;7.3;7.3. Q point for network;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);433;7. FET Biasing;7.4;7.4. Network characteristics determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);433;7. FET Biasing;7.5;7.5. Network characteristics determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);433;7. FET Biasing;7.6;7.6. Network characteristics determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);433;7. FET Biasing;7.7;7.7. Idq Vgsq and Vds calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);433;7. FET Biasing;7.8;7.8. Idq Vgsq and Vds calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);433;7. FET Biasing;7.9;7.9. Idq Vgsq and Vd calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);424;8. FET Amplifiers;8.1;8.1. Calculation of gm for different Vgs;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);424;8. FET Amplifiers;8.10;8.10. JFET common gate configuration calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);424;8. FET Amplifiers;8.11;8.11. Network components determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);424;8. FET Amplifiers;8.12;8.12. E MOSFET components determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);424;8. FET Amplifiers;8.13;8.13. Rd value determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);424;8. FET Amplifiers;8.14;8.14. Rd and Rs determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);424;8. FET Amplifiers;8.15;8.15. Rd and Rs determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);424;8. FET Amplifiers;8.16;8.16. Network characteristics determination;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);424;8. FET Amplifiers;8.17;8.17. Input output impedance and output voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);424;8. FET Amplifiers;8.2;8.2. Calculation of gm for different Vgs and max gm;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);424;8. FET Amplifiers;8.3;8.3. gm vs Vgs;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);424;8. FET Amplifiers;8.4;8.4. gm vs Id;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);424;8. FET Amplifiers;8.5;8.5. Output impedance;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);424;8. FET Amplifiers;8.6;8.6. FET equivalent model;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);424;8. FET Amplifiers;8.7;8.7. JFET fix bias configuration calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);424;8. FET Amplifiers;8.8;8.8. JFET self bias configuration calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);424;8. FET Amplifiers;8.9;8.9. JFET source follower configuration calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);423;9. BJT and JFET frequency response;9.1;9.1. Log calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);423;9. BJT and JFET frequency response;9.10;9.10. Frequency and bode plot;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);423;9. BJT and JFET frequency response;9.11;9.11. Frequency and bode plot;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);423;9. BJT and JFET frequency response;9.12;9.12. Frequency;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);423;9. BJT and JFET frequency response;9.13;9.13. Frequency and bode plot;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);423;9. BJT and JFET frequency response;9.14;9.14. Frequency;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);423;9. BJT and JFET frequency response;9.15;9.15. Fourier transform and time;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);423;9. BJT and JFET frequency response;9.2;9.2. Log calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);423;9. BJT and JFET frequency response;9.3;9.3. Anti Log calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);423;9. BJT and JFET frequency response;9.4;9.4. Log calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);423;9. BJT and JFET frequency response;9.5;9.5. Magnitude gain calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);423;9. BJT and JFET frequency response;9.6;9.6. Power and voltage gain;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);423;9. BJT and JFET frequency response;9.7;9.7. Input power and input voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);423;9. BJT and JFET frequency response;9.8;9.8. Break frequency and bode plot;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);423;9. BJT and JFET frequency response;9.9;9.9. Frequency aand bode plot;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.1;10.1. Dc voltages and currents calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.10;10.10. Total offset voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.11;10.11. Input bias current;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.12;10.12. Cut off frequency;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.13;10.13. Maximum closed loop voltage gain;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.14;10.14. Maximum frequency;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.15;10.15. Current drawn calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.16;10.16. Output offset voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.17;10.17. Gain and input output impedance calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.18;10.18. Cut off frequency;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.19;10.19. Maximum frequency;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.2;10.2. Single ended output voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.20;10.20. Open loop voltage gain;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.21;10.21. CMRR calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.22;10.22. Output voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.3;10.3. Common mode gain;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.4;10.4. Common mode gain;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.5;10.5. Output voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.6;10.6. Output voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.7;10.7. Output voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.8;10.8. Output offset voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);422;10. Operational Amplifiers;10.9;10.9. Output offset voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);421;11. Op Amp Applications;11.1;11.1. Output voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);421;11. Op Amp Applications;11.10;11.10. Il and Vo calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);421;11. Op Amp Applications;11.11;11.11. Output voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);421;11. Op Amp Applications;11.12;11.12. Cut off frequency;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);421;11. Op Amp Applications;11.13;11.13. Cut off frequency of high pass filter;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);421;11. Op Amp Applications;11.14;11.14. Cut off frequency of band pass filter;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);421;11. Op Amp Applications;11.2;11.2. Output voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);421;11. Op Amp Applications;11.3;11.3. Output voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);421;11. Op Amp Applications;11.4;11.4. Output voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);421;11. Op Amp Applications;11.5;11.5. Connection of op amp stages;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);421;11. Op Amp Applications;11.6;11.6. Output voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);421;11. Op Amp Applications;11.7;11.7. Output voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);421;11. Op Amp Applications;11.8;11.8. Output voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);421;11. Op Amp Applications;11.9;11.9. Connection of unity gain ckt;error;file_not_found;/var/www/scilab_in/uploads-backup/69/CH11/EX11.9/ : NO SCILAB FILE INSIDE -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);420;12. Power Amplifiers;12.1;12.1. input output power and efficiency;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);420;12. Power Amplifiers;12.10;12.10. Input output dissipated power and efficiency;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);420;12. Power Amplifiers;12.11;12.11. Dissipated power and efficiency;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);420;12. Power Amplifiers;12.12;12.12. Max dissipated power and input voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);420;12. Power Amplifiers;12.13;12.13. Harmonic distortion components;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);420;12. Power Amplifiers;12.14;12.14. Total Harmonic distortion components;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);420;12. Power Amplifiers;12.15;12.15. Second Harmonic distortion;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);420;12. Power Amplifiers;12.16;12.16. Total Harmonic distortion and fundamental and total power;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);420;12. Power Amplifiers;12.17;12.17. Maximum dissipation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);420;12. Power Amplifiers;12.18;12.18. Max dissipated power;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);420;12. Power Amplifiers;12.2;12.2. Effective Resistance;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);420;12. Power Amplifiers;12.3;12.3. Turns ratio;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);420;12. Power Amplifiers;12.4;12.4. Ac power delivered;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);420;12. Power Amplifiers;12.5;12.5. input and dissipated power and efficiency;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);420;12. Power Amplifiers;12.6;12.6. Efficiency calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);420;12. Power Amplifiers;12.7;12.7. Input output power and efficiency;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);420;12. Power Amplifiers;12.8;12.8. Power and transmission dissipation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);420;12. Power Amplifiers;12.9;12.9. Efficiency calculation;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);419;13. Linear Digital ICs;13.1;13.1. frequency and output waveform;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);419;13. Linear Digital ICs;13.2;13.2. Period of output waveform;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);418;14. Feedback and oscillator circuits;14.1;14.1. input output impedance and voltage gain;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);418;14. Feedback and oscillator circuits;14.2;14.2. change in gain of feedback amplifier;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);418;14. Feedback and oscillator circuits;14.3;14.3. gain with and without feedback;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);418;14. Feedback and oscillator circuits;14.4;14.4. amplifier gain;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);418;14. Feedback and oscillator circuits;14.5;14.5. voltage gain;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);418;14. Feedback and oscillator circuits;14.6;14.6. voltage gain;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);418;14. Feedback and oscillator circuits;14.7;14.7. value of C;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);418;14. Feedback and oscillator circuits;14.8;14.8. resonant frequency and RC elements;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);418;14. Feedback and oscillator circuits;14.9;14.9. RC elements for wien bridge;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);417;15. Power Supplies;15.1;15.1. Measure output and filter voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);417;15. Power Supplies;15.10;15.10. regulated output voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);417;15. Power Supplies;15.11;15.11. regulated voltage and circuit current;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);417;15. Power Supplies;15.13;15.13. minimum input voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);417;15. Power Supplies;15.14;15.14. max value of load current;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);417;15. Power Supplies;15.15;15.15. regulated output voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);417;15. Power Supplies;15.16;15.16. regulated output voltage;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);417;15. Power Supplies;15.2;15.2. Voltage regulation value;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);417;15. Power Supplies;15.3;15.3. Ripple voltage and output voltage value;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);417;15. Power Supplies;15.4;15.4. Filter dc voltage value;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);417;15. Power Supplies;15.5;15.5. Ripple of capacitor;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);417;15. Power Supplies;15.6;15.6. dc voltage across 1k load;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);417;15. Power Supplies;15.7;15.7. dc ac and ripple values of output signal;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);417;15. Power Supplies;15.8;15.8. output voltage and zener current;correct;runtime; -69;Electronics Devices And Circuit Theory(R. L. Boylestad And L. Nashelsky);417;15. Power Supplies;15.9;15.9. regulated output voltage;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);317;1. Matrix Notation and Matrix Multiplication;1.3.1;1.3.1. Breakdown of elimination;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);317;1. Matrix Notation and Matrix Multiplication;1.3.2;1.3.2. Breakdown of elimination;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);317;1. Matrix Notation and Matrix Multiplication;1.4.1;1.4.1. Multiplication of Two Matrices;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);317;1. Matrix Notation and Matrix Multiplication;1.4.2;1.4.2. Multiplication with Row exchange matrix;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);317;1. Matrix Notation and Matrix Multiplication;1.4.3;1.4.3. Multiplication with Identity Matrix;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);317;1. Matrix Notation and Matrix Multiplication;1.4.4;1.4.4. Marix multiplication not commutative;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);317;1. Matrix Notation and Matrix Multiplication;1.4.5;1.4.5. Order of Elimination;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);317;1. Matrix Notation and Matrix Multiplication;1.5.1;1.5.1. Triangular factorization;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);317;1. Matrix Notation and Matrix Multiplication;1.5.2;1.5.2. To check LU equals to A;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);317;1. Matrix Notation and Matrix Multiplication;1.5.3;1.5.3. To check LU equals to A;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);317;1. Matrix Notation and Matrix Multiplication;1.5.4;1.5.4. If U equals to I then L equals to A;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);317;1. Matrix Notation and Matrix Multiplication;1.5.5;1.5.5. Spilting A to L and U;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);317;1. Matrix Notation and Matrix Multiplication;1.5.6;1.5.6. Solving for X using L and U;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);317;1. Matrix Notation and Matrix Multiplication;1.5.7;1.5.7. Elimination in a nutshell;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);317;1. Matrix Notation and Matrix Multiplication;1.6.1;1.6.1. Gauss Jordon method;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);317;1. Matrix Notation and Matrix Multiplication;1.6.2;1.6.2. Symmetric products;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);325;2. Vector Spaces;2.1.1;2.1.1. Vector Spaces and subspaces;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);325;2. Vector Spaces;2.1.2;2.1.2. Vector Spaces and subspaces;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);325;2. Vector Spaces;2.3.1;2.3.1. Linear Independence;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);325;2. Vector Spaces;2.3.2;2.3.2. Linear Independence;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);325;2. Vector Spaces;2.3.3;2.3.3. Linear Independence;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);325;2. Vector Spaces;2.3.4;2.3.4. Linear Independence;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);325;2. Vector Spaces;2.3.5;2.3.5. Linear Independence;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);325;2. Vector Spaces;2.3.6;2.3.6. Linear Independence;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);325;2. Vector Spaces;2.3.7;2.3.7. Linear Independence;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);325;2. Vector Spaces;2.3.8;2.3.8. Basis for a vector space;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);325;2. Vector Spaces;2.3.9;2.3.9. Basis for a vector space;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);325;2. Vector Spaces;2.4.1;2.4.1. The four fundamental subspaces;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);325;2. Vector Spaces;2.4.2;2.4.2. Inverse of a mxn matrix;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);325;2. Vector Spaces;2.5.1;2.5.1. Networks and discrete applied mathematics;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);326;3. Orthogonality;3.1.1;3.1.1. Orthogonal vectors;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);326;3. Orthogonality;3.1.2;3.1.2. Orthogonal vectors;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);326;3. Orthogonality;3.1.3;3.1.3. Orthogonal vectors;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);326;3. Orthogonality;3.2.1;3.2.1. Projections onto a line;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);326;3. Orthogonality;3.2.2;3.2.2. Projections onto a line;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);326;3. Orthogonality;3.2.3;3.2.3. Projections onto a line;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);326;3. Orthogonality;3.3.1;3.3.1. Projection matrices;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);326;3. Orthogonality;3.3.2;3.3.2. Least squares fitting of data;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);326;3. Orthogonality;3.4.1;3.4.1. Orthogonal matrices;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);326;3. Orthogonality;3.4.2;3.4.2. Orthogonal matrices;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);326;3. Orthogonality;3.4.3;3.4.3. Projection onto a plane;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);326;3. Orthogonality;3.4.4;3.4.4. Least squares fitting of data;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);326;3. Orthogonality;3.4.5;3.4.5. Gram Schmidt process;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);327;4. Determinants;4.3.1;4.3.1. Determinant of a matrix is the product of its pivots;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);327;4. Determinants;4.3.2;4.3.2. Calculation of determinant of a matrix by using cofactors;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);327;4. Determinants;4.3.3;4.3.3. Calculation of determinant of a matrix by using cofactors;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);327;4. Determinants;4.4.1;4.4.1. Inverse of a sum matrix is a difference matrix;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);327;4. Determinants;4.4.2;4.4.2. Cramers rule;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);328;5. Eigenvalues and Eigenvectors;5.1.1;5.1.1. Eigenvalues and eigenvectors;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);328;5. Eigenvalues and Eigenvectors;5.1.2;5.1.2. Eigenvalues and eigenvectors;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);328;5. Eigenvalues and Eigenvectors;5.2.1;5.2.1. Diagonalization;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);328;5. Eigenvalues and Eigenvectors;5.2.2;5.2.2. Diagonalization;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);328;5. Eigenvalues and Eigenvectors;5.2.3;5.2.3. Powers and Products;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);328;5. Eigenvalues and Eigenvectors;5.3.1;5.3.1. Difference equations;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);328;5. Eigenvalues and Eigenvectors;5.5.1;5.5.1. Complex matrices;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);328;5. Eigenvalues and Eigenvectors;5.5.2;5.5.2. Inner product of a complex matrix;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);346;6. Positive Definite Matrices;6.1.1;6.1.1. Definite versus indefinite;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);346;6. Positive Definite Matrices;6.1.3;6.1.3. Maxima Minima And Saddle points;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);346;6. Positive Definite Matrices;6.1.4;6.1.4. Maxima Minima And Saddle points;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);346;6. Positive Definite Matrices;6.2.2;6.2.2. Maxima Minima And Saddle points;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);346;6. Positive Definite Matrices;6.3.1;6.3.1. Singular value decomposition;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);346;6. Positive Definite Matrices;6.3.2;6.3.2. Singular value decomposition;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);346;6. Positive Definite Matrices;6.3.3;6.3.3. Polar decomposition;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);346;6. Positive Definite Matrices;6.3.4;6.3.4. Reverse polar decomposition;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);316;7. Computations with Matrices;7.4.1;7.4.1. Jacobi Method;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);316;7. Computations with Matrices;7.4.2;7.4.2. Gauss Seidel method;correct;runtime; -70;Linear Algebra And Its Applications(G. Strang);314;8. Linear Programming and Game Theory;8.2.2;8.2.2. Minimize cx subject to x greater than or equal to zero and Ax equals to b;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);22;2. Electromagnetic plane waves;2.6.5;2.6.5. Calculation of a Gold Film Coating;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);22;2. Electromagnetic plane waves;2.6.6;2.6.6. Computation of a Copper Film Coating;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);23;3. Electromagnetic plane waves;3.1.1;3.1.1. Line characteristic impedance and phase constant;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);23;3. Electromagnetic plane waves;3.2.1;3.2.1. reflection coefficient and transmissioncoefficient;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);23;3. Electromagnetic plane waves;3.3.1;3.3.1. Standing Wave Ratio;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);23;3. Electromagnetic plane waves;3.4.1;3.4.1. Line Impedance;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);23;3. Electromagnetic plane waves;3.5.1;3.5.1. Location of Voltage maxima and minima from load;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);23;3. Electromagnetic plane waves;3.5.2;3.5.2. Impedance with short circuit minima shift;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);23;3. Electromagnetic plane waves;3.6.1;3.6.1. Single Stub Matching;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);23;3. Electromagnetic plane waves;3.6.2;3.6.2. Double Stub Matching;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);106;4. microwave waveguides and components;4.1.1;4.1.1. TE10 in Rectangular Waveguide;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);106;4. microwave waveguides and components;4.1.2;4.1.2. TE10 mode in Rectangular Waveguide;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);106;4. microwave waveguides and components;4.2.1;4.2.1. TE10 Mode in Circular Waveguide;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);106;4. microwave waveguides and components;4.2.2;4.2.2. Wave Propagation in Circular Waveguide;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);106;4. microwave waveguides and components;4.5.1;4.5.1. Directional Coupler;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);106;4. microwave waveguides and components;4.5.2;4.5.2. Operation Of a Balanced Amplifier;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);107;5. microwave transistors and tunnel diodes;5.1.1;5.1.1. Elements of Hybrid Pi Common Emitter Circuit;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);107;5. microwave transistors and tunnel diodes;5.1.2;5.1.2. I V Characteristics of n p n transistor;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);107;5. microwave transistors and tunnel diodes;5.1.3;5.1.3. Silicon Bipolar Transistor;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);107;5. microwave transistors and tunnel diodes;5.1.4;5.1.4. Power Frequency Limitation;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);107;5. microwave transistors and tunnel diodes;5.2.1;5.2.1. Heterojunction Bipolar Transistor;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);107;5. microwave transistors and tunnel diodes;5.2.2;5.2.2. n Ge p GaAs n GaAs HBT;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);108;6. microwave field effect transistors;6.1.1;6.1.1. Pinch Off Voltage Of a Silicon JFET;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);108;6. microwave field effect transistors;6.1.2;6.1.2. current of a JFET;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);108;6. microwave field effect transistors;6.2.1;6.2.1. Pinch Off Voltage Of a MESFET;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);108;6. microwave field effect transistors;6.2.2;6.2.2. Current Voltage Characteristics Of a GaAs MESFET;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);108;6. microwave field effect transistors;6.2.3;6.2.3. CutOff frequency of a MESFET;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);108;6. microwave field effect transistors;6.3.1;6.3.1. Current of a HEMT;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);108;6. microwave field effect transistors;6.3.2;6.3.2. Sensitivity Of HEMT;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);108;6. microwave field effect transistors;6.4.1;6.4.1. Threshold Voltage of an Ideal MOSFET;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);108;6. microwave field effect transistors;6.4.2;6.4.2. Characteristics Of a MOSFET;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);108;6. microwave field effect transistors;6.6.1;6.6.1. Power Dissipation of a Three Phase CCD;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);108;6. microwave field effect transistors;6.6.2;6.6.2. Design of N Type Three Phase Surface Channel CCD;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);109;7. transferred electron devices;7.2.1;7.2.1. Conductivity of an n Type GaAs Gunn Diode;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);109;7. transferred electron devices;7.2.2;7.2.2. Charactristics of a GaAs Gunn Diode;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);109;7. transferred electron devices;7.3.1;7.3.1. Criterion of Mode Operation;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);109;7. transferred electron devices;7.4.1;7.4.1. Output power of an LSA Oscillator;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);111;8. Avalanche transit time Devices;8.2.1;8.2.1. CW Output Power Of an IMPATT Diode;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);111;8. Avalanche transit time Devices;8.3.1;8.3.1. Calculate the avalanche zone velocity;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);111;8. Avalanche transit time Devices;8.4.1;8.4.1. Breakdown voltage Of a BARITT Diode;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);111;8. Avalanche transit time Devices;8.5.1;8.5.1. UP Converter parametric Amplifier;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);112;9. microwave linear beam tubes O type;9.2.1;9.2.1. Klystron Amplifier;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);112;9. microwave linear beam tubes O type;9.3.1;9.3.1. Four Cavity Klystron;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);112;9. microwave linear beam tubes O type;9.3.2;9.3.2. Operation of a FourCavity Klystron;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);112;9. microwave linear beam tubes O type;9.3.3;9.3.3. Characteristics of Two Cavity Klystron;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);112;9. microwave linear beam tubes O type;9.3.4;9.3.4. Output Power of Four Cavity Klystron;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);112;9. microwave linear beam tubes O type;9.4.1;9.4.1. Reflex Klystron;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);112;9. microwave linear beam tubes O type;9.5.1;9.5.1. Operation of Travelling WAVE TUBE;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);112;9. microwave linear beam tubes O type;9.7.1;9.7.1. Gridded Travelling Wave Tube;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);113;10. Microwave crossed field tubes M type;10.1.1;10.1.1. Conventional Magnetron;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);113;10. Microwave crossed field tubes M type;10.1.1.A;10.1.1.A. Pulsed Magnetron;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);113;10. Microwave crossed field tubes M type;10.1.2;10.1.2. Linear Magnetron;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);113;10. Microwave crossed field tubes M type;10.1.2.a;10.1.2.a. Linear Magnetron;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);113;10. Microwave crossed field tubes M type;10.1.5;10.1.5. Inverted Coaxial Magnetron;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);113;10. Microwave crossed field tubes M type;10.1.6;10.1.6. Frequency Agile Magnetron;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);113;10. Microwave crossed field tubes M type;10.2.1;10.2.1. Crossed Field Amplifier;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);113;10. Microwave crossed field tubes M type;10.3.1;10.3.1. Amplitron characteristics;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);113;10. Microwave crossed field tubes M type;10.4.1;10.4.1. Carcinotron Characteristics;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);116;11. Strip lines;11.1.1;11.1.1. Characteristic Impedance of Microstrip line;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);116;11. Strip lines;11.2.1;11.2.1. Characteristics of a Parallel Strip Line;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);116;11. Strip lines;11.3.1;11.3.1. Characteristic Impedance of a Coplanar Stripline;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);116;11. Strip lines;11.4.1;11.4.1. Characteristic Impedance of a Shielded Strip Line;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);117;12. Monolithic Microwave Integrated Circuits;12.4.1;12.4.1. Resistance of a planar resistor;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);117;12. Monolithic Microwave Integrated Circuits;12.4.2;12.4.2. Planar Circular Spiral inductor;correct;runtime; -72;Microwave Devices And Circuits(S. Y. Liao);117;12. Monolithic Microwave Integrated Circuits;12.4.3;12.4.3. Planar Capacitor;correct;runtime; -73;Integrated Circuits(K. R. Botkar);283;2. Thick Film And Thin Film Hybrid ICs;2.1;2.1. Resistance;correct;runtime; -73;Integrated Circuits(K. R. Botkar);283;2. Thick Film And Thin Film Hybrid ICs;2.10;2.10. Absolute Coefficient;correct;runtime; -73;Integrated Circuits(K. R. Botkar);283;2. Thick Film And Thin Film Hybrid ICs;2.11;2.11. Ratio;correct;runtime; -73;Integrated Circuits(K. R. Botkar);283;2. Thick Film And Thin Film Hybrid ICs;2.2;2.2. Resistance Calculation;correct;runtime; -73;Integrated Circuits(K. R. Botkar);283;2. Thick Film And Thin Film Hybrid ICs;2.3;2.3. Sheet Resistivity;correct;runtime; -73;Integrated Circuits(K. R. Botkar);283;2. Thick Film And Thin Film Hybrid ICs;2.4;2.4. Design Capacitor;correct;runtime; -73;Integrated Circuits(K. R. Botkar);283;2. Thick Film And Thin Film Hybrid ICs;2.6;2.6. Capacitance;correct;runtime; -73;Integrated Circuits(K. R. Botkar);283;2. Thick Film And Thin Film Hybrid ICs;2.8;2.8. Thickness;correct;runtime; -73;Integrated Circuits(K. R. Botkar);283;2. Thick Film And Thin Film Hybrid ICs;2.9;2.9. Length;correct;runtime; -73;Integrated Circuits(K. R. Botkar);286;3. Semoconductor Devices Fundamentals;3.2;3.2. Resistivity;correct;runtime; -73;Integrated Circuits(K. R. Botkar);286;3. Semoconductor Devices Fundamentals;3.3;3.3. Resistivity of Intrinsic Ge;correct;runtime; -73;Integrated Circuits(K. R. Botkar);286;3. Semoconductor Devices Fundamentals;3.4;3.4. Hole Concentration;correct;runtime; -73;Integrated Circuits(K. R. Botkar);286;3. Semoconductor Devices Fundamentals;3.5;3.5. Resistivity of Cu;correct;runtime; -73;Integrated Circuits(K. R. Botkar);286;3. Semoconductor Devices Fundamentals;3.6;3.6. Bipolar Transistor Parameters;correct;runtime; -73;Integrated Circuits(K. R. Botkar);287;5. Monolithic Components;5.1;5.1. Transit Time;correct;runtime; -73;Integrated Circuits(K. R. Botkar);287;5. Monolithic Components;5.2;5.2. Unit gain frequency;correct;runtime; -73;Integrated Circuits(K. R. Botkar);287;5. Monolithic Components;5.3;5.3. Resistance and Sheet resistance;correct;runtime; -73;Integrated Circuits(K. R. Botkar);287;5. Monolithic Components;5.4;5.4. Capacitance per unit area;correct;runtime; -73;Integrated Circuits(K. R. Botkar);288;7. Operational Amplifier Characteristics;7.1;7.1. Bipolar Differential Amplifier Parameter;correct;runtime; -73;Integrated Circuits(K. R. Botkar);288;7. Operational Amplifier Characteristics;7.14;7.14. Effect on Output Voltage;correct;runtime; -73;Integrated Circuits(K. R. Botkar);288;7. Operational Amplifier Characteristics;7.15;7.15. Slew rate and Fmax;correct;runtime; -73;Integrated Circuits(K. R. Botkar);288;7. Operational Amplifier Characteristics;7.16;7.16. Largest Amplitude;correct;runtime; -73;Integrated Circuits(K. R. Botkar);288;7. Operational Amplifier Characteristics;7.17;7.17. Maximum allowable frequency;correct;runtime; -73;Integrated Circuits(K. R. Botkar);288;7. Operational Amplifier Characteristics;7.2;7.2. Rc and Re;correct;runtime; -73;Integrated Circuits(K. R. Botkar);288;7. Operational Amplifier Characteristics;7.4;7.4. Offset Voltage Change;correct;runtime; -73;Integrated Circuits(K. R. Botkar);288;7. Operational Amplifier Characteristics;7.5;7.5. Temperature Coefficient;correct;runtime; -73;Integrated Circuits(K. R. Botkar);300;8. Applications of Operational Amplifier;8.1;8.1. Device Temperature;correct;runtime; -73;Integrated Circuits(K. R. Botkar);300;8. Applications of Operational Amplifier;8.2;8.2. Device Temperature;correct;runtime; -73;Integrated Circuits(K. R. Botkar);300;8. Applications of Operational Amplifier;8.3;8.3. Device Temperature;correct;runtime; -73;Integrated Circuits(K. R. Botkar);300;8. Applications of Operational Amplifier;8.4;8.4. Device Temperature;correct;runtime; -73;Integrated Circuits(K. R. Botkar);300;8. Applications of Operational Amplifier;8.7;8.7. Output Voltage;correct;runtime; -73;Integrated Circuits(K. R. Botkar);300;8. Applications of Operational Amplifier;8.8;8.8. Vp and Vo;correct;runtime; -73;Integrated Circuits(K. R. Botkar);299;9. Active Filters;9.12;9.12. Unity gain frequency and Capacitor determination;correct;runtime; -73;Integrated Circuits(K. R. Botkar);299;9. Active Filters;9.6;9.6. Determine Q Fl and Fh;correct;runtime; -73;Integrated Circuits(K. R. Botkar);298;10. Special Purpose Amplifiers;10.3;10.3. Class B Power Amplifier;correct;runtime; -73;Integrated Circuits(K. R. Botkar);298;10. Special Purpose Amplifiers;10.4;10.4. Power Output;correct;runtime; -73;Integrated Circuits(K. R. Botkar);298;10. Special Purpose Amplifiers;10.8;10.8. LM4250 Parameters;correct;runtime; -73;Integrated Circuits(K. R. Botkar);298;10. Special Purpose Amplifiers;10.9;10.9. Common Emitter Amplifier Parameters;correct;runtime; -73;Integrated Circuits(K. R. Botkar);297;11. Nonlinear Circuit Application;11.11;11.11. Design Peak Detector;correct;runtime; -73;Integrated Circuits(K. R. Botkar);297;11. Nonlinear Circuit Application;11.4;11.4. Time taken;correct;runtime; -73;Integrated Circuits(K. R. Botkar);297;11. Nonlinear Circuit Application;11.5;11.5. Rise Time;correct;runtime; -73;Integrated Circuits(K. R. Botkar);296;12. Signal Generators;12.11;12.11. Design;correct;runtime; -73;Integrated Circuits(K. R. Botkar);296;12. Signal Generators;12.12;12.12. Generating pulse by 555 timer;correct;runtime; -73;Integrated Circuits(K. R. Botkar);296;12. Signal Generators;12.20;12.20. Waveform Generator;correct;runtime; -73;Integrated Circuits(K. R. Botkar);296;12. Signal Generators;12.6;12.6. 555 Timer;correct;runtime; -73;Integrated Circuits(K. R. Botkar);295;13. Voltage Regulators;13.14;13.14. Inductor and Capacitor;correct;runtime; -73;Integrated Circuits(K. R. Botkar);295;13. Voltage Regulators;13.3;13.3. Maximum Efficiency and Power;correct;runtime; -73;Integrated Circuits(K. R. Botkar);293;15. Phase Locked Loops;15.2;15.2. Output Signal Frequency;correct;runtime; -73;Integrated Circuits(K. R. Botkar);293;15. Phase Locked Loops;15.3;15.3. VCO and Phase detector;correct;runtime; -73;Integrated Circuits(K. R. Botkar);293;15. Phase Locked Loops;15.4;15.4. Second Order Butterworth Filter;correct;runtime; -73;Integrated Circuits(K. R. Botkar);293;15. Phase Locked Loops;15.5;15.5. Lock Range;correct;runtime; -73;Integrated Circuits(K. R. Botkar);291;16. Bipolar and MOS Digital Gate Circuits;16.12;16.12. NMOS operating region;correct;runtime; -73;Integrated Circuits(K. R. Botkar);291;16. Bipolar and MOS Digital Gate Circuits;16.13;16.13. Power Dissipation;correct;runtime; -73;Integrated Circuits(K. R. Botkar);291;16. Bipolar and MOS Digital Gate Circuits;16.14;16.14. AC Power;correct;runtime; -73;Integrated Circuits(K. R. Botkar);291;16. Bipolar and MOS Digital Gate Circuits;16.2;16.2. Noise Margin;correct;runtime; -73;Integrated Circuits(K. R. Botkar);291;16. Bipolar and MOS Digital Gate Circuits;16.3;16.3. Fanouts;correct;runtime; -73;Integrated Circuits(K. R. Botkar);289;17. Light Emitting Diodes and Liquid Crystal Displays;17.2;17.2. Viewing distance;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);177;1. Differential amplifiers;1.1;1.1. Vout and CMMR;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);177;1. Differential amplifiers;1.10;1.10. operating point voltage gain ip and op resistance;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);177;1. Differential amplifiers;1.11;1.11. output voltage and CMRR;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);177;1. Differential amplifiers;1.12;1.12. DC characteristics;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);177;1. Differential amplifiers;1.13;1.13. Aid Acm CMRR;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);177;1. Differential amplifiers;1.14;1.14. voltage gain and ip resistance and operating point;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);177;1. Differential amplifiers;1.15;1.15. collector current;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);177;1. Differential amplifiers;1.16;1.16. smallest and largest possible value of current;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);177;1. Differential amplifiers;1.17;1.17. Ri Ro differential and common mode voltage gain;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);177;1. Differential amplifiers;1.2;1.2. Icq and Vceq;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);177;1. Differential amplifiers;1.3;1.3. Aid and Acm and CMRR and Ri and Ro;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);177;1. Differential amplifiers;1.4;1.4. constant current I;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);177;1. Differential amplifiers;1.5;1.5. value of RE;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);177;1. Differential amplifiers;1.6;1.6. common mode op voltage and differential mode output;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);177;1. Differential amplifiers;1.7;1.7. Dc bias point and ip and op resistance;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);177;1. Differential amplifiers;1.8;1.8. Icq and Vceq voltage gain ip and op resistance;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);177;1. Differential amplifiers;1.9;1.9. operating point voltage gain ip and op resistance;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);178;2. Operational amplifier characteristic;2.1;2.1. value of R1;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);178;2. Operational amplifier characteristic;2.2;2.2. input bais current and input offset current;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);178;2. Operational amplifier characteristic;2.3;2.3. Compensating network;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);178;2. Operational amplifier characteristic;2.4;2.4. Total output offset and compensating resistance;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);178;2. Operational amplifier characteristic;2.5;2.5. change in output voltage;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);178;2. Operational amplifier characteristic;2.6;2.6. error voltage and output voltage;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);179;3. Basic application of Op amps;3.1;3.1. voltage;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);179;3. Basic application of Op amps;3.11;3.11. design practical differentiator;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);179;3. Basic application of Op amps;3.15;3.15. scaling adder circuit;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);179;3. Basic application of Op amps;3.16;3.16. op amp circuit;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);179;3. Basic application of Op amps;3.17;3.17. find ratio of Vout by Vin;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);179;3. Basic application of Op amps;3.18;3.18. output voltage in term of Vin1 and Vin2;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);179;3. Basic application of Op amps;3.19;3.19. range of gain;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);179;3. Basic application of Op amps;3.2;3.2. value of Rf;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);179;3. Basic application of Op amps;3.20;3.20. Value of Rg;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);179;3. Basic application of Op amps;3.21;3.21. transduer resistance;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);179;3. Basic application of Op amps;3.3;3.3. voltage gain ip and op resistance bandwidth;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);179;3. Basic application of Op amps;3.4;3.4. feedback resistance Rf;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);179;3. Basic application of Op amps;3.5;3.5. close loop gain ip and op resistance and bandwidth;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);179;3. Basic application of Op amps;3.6;3.6. output voltage;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);179;3. Basic application of Op amps;3.7;3.7. practical integrator;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);179;3. Basic application of Op amps;3.8;3.8. maximum change in output voltage and slew rate;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);179;3. Basic application of Op amps;3.9;3.9. safe frequency DC gain;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);180;4. Non linear application of op amps;4.1;4.1. threshold voltage;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);180;4. Non linear application of op amps;4.2;4.2. Calculate value of R1 and R2;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);180;4. Non linear application of op amps;4.3;4.3. time duration;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);180;4. Non linear application of op amps;4.4;4.4. calculate Vlt Vut and Vh;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);180;4. Non linear application of op amps;4.5;4.5. change in output voltage;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);181;6. Operational Transconductance Amplefier;6.1;6.1. calculate frequency;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);182;7. waveform generator;7.1;7.1. calculate Vlt Vut and frequency of oscillation;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);182;7. waveform generator;7.2;7.2. T equal to 2RfC;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);182;7. waveform generator;7.3;7.3. frequency of oscillation;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);182;7. waveform generator;7.4;7.4. wien bridge oscillator;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);182;7. waveform generator;7.5;7.5. triangular waveform;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);182;7. waveform generator;7.6;7.6. output frequency;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);182;7. waveform generator;7.7;7.7. monoshot using 741;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);183;8. Timer IC and Application;8.1;8.1. output pulse width;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);183;8. Timer IC and Application;8.2;8.2. output frequency and duty cycle;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);183;8. Timer IC and Application;8.3;8.3. timer;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);183;8. Timer IC and Application;8.4;8.4. design an astable multivibrator;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);183;8. Timer IC and Application;8.5;8.5. circuit design;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);183;8. Timer IC and Application;8.6;8.6. Monostable multivibrator;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);183;8. Timer IC and Application;8.7;8.7. 555 based square wave generater;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);184;9. Active filter;9.1;9.1. cut off frequency;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);184;9. Active filter;9.2;9.2. first order low pass filter;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);184;9. Active filter;9.3;9.3. second order low pass filter;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);184;9. Active filter;9.4;9.4. cutoff frequency and pass band voltage gain;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);184;9. Active filter;9.5;9.5. butterworth low pass filter;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);184;9. Active filter;9.6;9.6. second order butterworth filter;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);185;10. Voltage regulator;10.1;10.1. regulated dc supply;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);185;10. Voltage regulator;10.10;10.10. min and max output voltage for regulator;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);185;10. Voltage regulator;10.11;10.11. voltage IC 723;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);185;10. Voltage regulator;10.12;10.12. power dissipation in regulator;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);185;10. Voltage regulator;10.13;10.13. design a regulated power supply;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);185;10. Voltage regulator;10.14;10.14. current source using IC 7805;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);185;10. Voltage regulator;10.2;10.2. rms value of ripple;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);185;10. Voltage regulator;10.3;10.3. series regulator circuit;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);185;10. Voltage regulator;10.4;10.4. output voltage for regulator;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);185;10. Voltage regulator;10.5;10.5. power rating;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);185;10. Voltage regulator;10.6;10.6. adjustable voltage;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);186;11. Phase locked loop;11.1;11.1. free running frequency lock range capture range;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);186;11. Phase locked loop;11.2;11.2. frequency of oscillator and phase accumulator;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);187;12. DA and AD converter;12.1;12.1. resolution;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);187;12. DA and AD converter;12.10;12.10. digital output;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);187;12. DA and AD converter;12.11;12.11. conversion time;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);187;12. DA and AD converter;12.12;12.12. maximum frequency;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);187;12. DA and AD converter;12.2;12.2. final output voltage;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);187;12. DA and AD converter;12.3;12.3. Vofs and Vo;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);187;12. DA and AD converter;12.4;12.4. step size and analog output;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);187;12. DA and AD converter;12.5;12.5. full scale output;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);187;12. DA and AD converter;12.6;12.6. value of resistor and reference;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);187;12. DA and AD converter;12.7;12.7. resolution and digital output;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);187;12. DA and AD converter;12.8;12.8. quantizing error;correct;runtime; -74;Op-Amps and Linear Integrated Circuit(S. Sharma);187;12. DA and AD converter;12.9;12.9. calculate t2;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);225;1. Error Its sources Propagation and Analysis;1.1;1.1. Taylor series;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);225;1. Error Its sources Propagation and Analysis;1.10;1.10. Loss of significance errors;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);225;1. Error Its sources Propagation and Analysis;1.11;1.11. Loss of significance errors;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);225;1. Error Its sources Propagation and Analysis;1.3;1.3. Vector norms;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);225;1. Error Its sources Propagation and Analysis;1.4;1.4. Conversion to decimal;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);225;1. Error Its sources Propagation and Analysis;1.5;1.5. Error and relative error;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);225;1. Error Its sources Propagation and Analysis;1.6;1.6. Errors;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);225;1. Error Its sources Propagation and Analysis;1.7;1.7. Taylor series;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);225;1. Error Its sources Propagation and Analysis;1.8;1.8. Graph of polynomial;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);225;1. Error Its sources Propagation and Analysis;1.9;1.9. Error and Relative error;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);262;2. Rootfinding for Nonlinear equations;2.1;2.1. Bisection method;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);262;2. Rootfinding for Nonlinear equations;2.10;2.10. Aitken;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);262;2. Rootfinding for Nonlinear equations;2.11;2.11. Multiple roots;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);262;2. Rootfinding for Nonlinear equations;2.2;2.2. Newton method;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);262;2. Rootfinding for Nonlinear equations;2.3;2.3. Secant method;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);262;2. Rootfinding for Nonlinear equations;2.4;2.4. Muller method;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);262;2. Rootfinding for Nonlinear equations;2.6;2.6. Muller method;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);262;2. Rootfinding for Nonlinear equations;2.7;2.7. One point iteration method;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);262;2. Rootfinding for Nonlinear equations;2.8;2.8. One point Iteration method;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);224;3. Interpolation Theory;3.1;3.1. Lagrange formula;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);224;3. Interpolation Theory;3.2;3.2. Lagrange Formula;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);224;3. Interpolation Theory;3.3;3.3. Lagrange formula;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);224;3. Interpolation Theory;3.4;3.4. Divided differences;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);224;3. Interpolation Theory;3.6;3.6. Bessel Function;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);224;3. Interpolation Theory;3.7;3.7. Divided differences;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);224;3. Interpolation Theory;3.8;3.8. Newton forward difference;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);226;4. Approximation of functions;4.1;4.1. Error of approximating exponent of x;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);226;4. Approximation of functions;4.10;4.10. Near minimax approximation;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);226;4. Approximation of functions;4.11;4.11. Forced oscillation of error;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);226;4. Approximation of functions;4.2;4.2. Minimax Approximation problem;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);226;4. Approximation of functions;4.3;4.3. Least squares approximation problem;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);226;4. Approximation of functions;4.4;4.4. Weight functions;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);226;4. Approximation of functions;4.5;4.5. Formulae;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);226;4. Approximation of functions;4.6;4.6. Formulae for laguerre and legendre polynomials;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);226;4. Approximation of functions;4.7;4.7. Average error in approximation;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);226;4. Approximation of functions;4.8;4.8. Chebyshev expansion coefficients;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);226;4. Approximation of functions;4.9;4.9. Max errors in cubic chebyshev least squares approx;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);227;5. Numerical Integration;5.1;5.1. Integration;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);227;5. Numerical Integration;5.10;5.10. Simpson Integration error;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);227;5. Numerical Integration;5.11;5.11. Romberg Integration;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);227;5. Numerical Integration;5.12;5.12. Adaptive simpson;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);227;5. Numerical Integration;5.13;5.13. Integration;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);227;5. Numerical Integration;5.14;5.14. Integration;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);227;5. Numerical Integration;5.2;5.2. Trapezoidal rule for integration;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);227;5. Numerical Integration;5.3;5.3. Corrected trapezoidal rule;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);227;5. Numerical Integration;5.4;5.4. Simpson s rule for integration;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);227;5. Numerical Integration;5.5;5.5. Trapezoidal and simpson integration;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);227;5. Numerical Integration;5.6;5.6. Newton Cotes formulae;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);227;5. Numerical Integration;5.7;5.7. Gaussian Quadrature;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);227;5. Numerical Integration;5.8;5.8. Gaussian Legendre Quadrature;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);227;5. Numerical Integration;5.9;5.9. Integration;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);228;6. Numerical methods for ordinary differential equations;6.1;6.1. 1st order linear differential equation;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);228;6. Numerical methods for ordinary differential equations;6.10;6.10. Euler;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);228;6. Numerical methods for ordinary differential equations;6.11;6.11. Trapezoidal method;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);228;6. Numerical methods for ordinary differential equations;6.16;6.16. Adams Moulton method;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);228;6. Numerical methods for ordinary differential equations;6.21;6.21. Euler method;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);228;6. Numerical methods for ordinary differential equations;6.24;6.24. Trapezoidal method;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);228;6. Numerical methods for ordinary differential equations;6.31;6.31. Boundary value problem;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);228;6. Numerical methods for ordinary differential equations;6.4;6.4. Stability of solution;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);228;6. Numerical methods for ordinary differential equations;6.5;6.5. Euler method;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);228;6. Numerical methods for ordinary differential equations;6.6;6.6. Euler;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);228;6. Numerical methods for ordinary differential equations;6.7;6.7. Asymptotic error analysis;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);228;6. Numerical methods for ordinary differential equations;6.9;6.9. Midpoint and trapezoidal method;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);229;7. Linear Algebra;7.1;7.1. Orthonomal basis;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);229;7. Linear Algebra;7.2;7.2. Canonical forms;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);229;7. Linear Algebra;7.3;7.3. Orthonomal eigen vectors;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);229;7. Linear Algebra;7.4;7.4. Vector and matrix norms;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);229;7. Linear Algebra;7.5;7.5. Frobenious norm;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);229;7. Linear Algebra;7.6;7.6. Norm;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);229;7. Linear Algebra;7.7;7.7. Inverse exists;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);261;8. Numerical solution of systems of linear equations;8.10;8.10. Gauss Jacobi method;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);261;8. Numerical solution of systems of linear equations;8.11;8.11. Gauss seidel mathod;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);261;8. Numerical solution of systems of linear equations;8.13;8.13. Conjugate gradient method;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);261;8. Numerical solution of systems of linear equations;8.2;8.2. LU decomposition;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);261;8. Numerical solution of systems of linear equations;8.4;8.4. LU decomposition;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);261;8. Numerical solution of systems of linear equations;8.5;8.5. Choleski Decomposition;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);261;8. Numerical solution of systems of linear equations;8.6;8.6. LU decomposition;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);261;8. Numerical solution of systems of linear equations;8.7;8.7. Error analysis;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);261;8. Numerical solution of systems of linear equations;8.8;8.8. Residual correction method;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);261;8. Numerical solution of systems of linear equations;8.9;8.9. Residual correction method;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);230;9. The Matrix Eigenvalue Problem;9.1;9.1. Eigenvalues;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);230;9. The Matrix Eigenvalue Problem;9.11;9.11. QR factorisation;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);230;9. The Matrix Eigenvalue Problem;9.12;9.12. Tridiagonal Matrix;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);230;9. The Matrix Eigenvalue Problem;9.13;9.13. Planner Rotation Orthogonal Matrix;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);230;9. The Matrix Eigenvalue Problem;9.14;9.14. Eigen values of a symmetric tridiagonal Matrix;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);230;9. The Matrix Eigenvalue Problem;9.15;9.15. Sturm Sequence property;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);230;9. The Matrix Eigenvalue Problem;9.16;9.16. QR Method;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);230;9. The Matrix Eigenvalue Problem;9.18;9.18. Calculation of Eigen vectors and Inverse iteration;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);230;9. The Matrix Eigenvalue Problem;9.19;9.19. Inverse Iteration;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);230;9. The Matrix Eigenvalue Problem;9.2;9.2. Eigen values and matrix norm;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);230;9. The Matrix Eigenvalue Problem;9.3;9.3. Bounds for perturbed eigen values;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);230;9. The Matrix Eigenvalue Problem;9.4;9.4. Eigenvalues of nonsymmetric matrix;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);230;9. The Matrix Eigenvalue Problem;9.5;9.5. Stability of eigenvalues for nonsymmetric matrices;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);230;9. The Matrix Eigenvalue Problem;9.7;9.7. Rate of convergence;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);230;9. The Matrix Eigenvalue Problem;9.8;9.8. Rate of convergence after extrapolation;correct;runtime; -75;An Introduction To Numerical Analysis(K. E. Atkinson);230;9. The Matrix Eigenvalue Problem;9.9;9.9. Householder matrix;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);196;1. Introduction;1.1;1.1. Example 1;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);196;1. Introduction;1.3;1.3. Example 3;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);196;1. Introduction;1.4;1.4. Example 4;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);196;1. Introduction;1.5;1.5. Example 5;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);377;2. Inductance and Resistance of Transmission Lines;2.1;2.1. self GMD Calculation;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);377;2. Inductance and Resistance of Transmission Lines;2.2;2.2. Reactance Of ACSR conductors;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);377;2. Inductance and Resistance of Transmission Lines;2.3;2.3. Inductance Of Composite Conductor Lines;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);377;2. Inductance and Resistance of Transmission Lines;2.5;2.5. VoltageDrop and FluxLinkage Calculations;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);377;2. Inductance and Resistance of Transmission Lines;2.6;2.6. Mutual Inductance Calculation;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);377;2. Inductance and Resistance of Transmission Lines;2.7;2.7. Bundled Conductor Three Phase Line;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);387;3. Capacitance of Transmission Lines;3.1;3.1. Capacitance of a single phase line;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);387;3. Capacitance of Transmission Lines;3.2;3.2. Charging current of a threephase line;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);387;3. Capacitance of Transmission Lines;3.3;3.3. Double circuit three phase transmission line;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);352;4. Representation of Power System Components;4.1;4.1. Per Unit Reactance Diagram;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);352;4. Representation of Power System Components;4.2;4.2. Per Unit Calculation;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);352;4. Representation of Power System Components;4.3;4.3. Excitation EMF and Reactive Power Calculation;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);352;4. Representation of Power System Components;4.4;4.4. Power Factor And Load Angle Calculation;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);833;5. Characteristics and Performance of Power Transmission Lines;5.1;5.1. SendingEnd voltage and voltage regulation;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);833;5. Characteristics and Performance of Power Transmission Lines;5.10;5.10. MVA rating of the shunt reactor;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);833;5. Characteristics and Performance of Power Transmission Lines;5.11;5.11. SendingEnd voltage and maximum power delivered;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);833;5. Characteristics and Performance of Power Transmission Lines;5.2;5.2. Voltage at the power station end;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);833;5. Characteristics and Performance of Power Transmission Lines;5.3;5.3. Problem with mixed end condition;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);833;5. Characteristics and Performance of Power Transmission Lines;5.4;5.4. Medium Transmission line system;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);833;5. Characteristics and Performance of Power Transmission Lines;5.5;5.5. Maximum permissible length and and Frequency;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);833;5. Characteristics and Performance of Power Transmission Lines;5.6;5.6. Incident and Reflected voltages;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);833;5. Characteristics and Performance of Power Transmission Lines;5.7;5.7. Tabulate characteristics using different methods;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);833;5. Characteristics and Performance of Power Transmission Lines;5.8;5.8. Torque angle and Station powerfactor;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);833;5. Characteristics and Performance of Power Transmission Lines;5.9;5.9. Power Voltage and Compensating equipment rating;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);755;6. Load Flow Studies;6.1;6.1. Ybus using singular transformation;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);755;6. Load Flow Studies;6.2;6.2. Ybus of a sample system;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);755;6. Load Flow Studies;6.3;6.3. Approximate load flow solution;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);755;6. Load Flow Studies;6.4;6.4. Bus voltages using GS iterations;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);755;6. Load Flow Studies;6.5;6.5. Reactive power injected using GS iterations;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);755;6. Load Flow Studies;6.6;6.6. Load flow solution using the NR method;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);755;6. Load Flow Studies;6.7;6.7. Ybus after including regulating transformer;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);755;6. Load Flow Studies;6.8;6.8. Decoupled NR method and FDLF method;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);756;7. Optimal System Operation;7.1;7.1. Incremental cost and load sharing;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);756;7. Optimal System Operation;7.2;7.2. Savings by optimal scheduling;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);756;7. Optimal System Operation;7.3;7.3. Economical operation;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);756;7. Optimal System Operation;7.4;7.4. Generation and losses incurred;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);756;7. Optimal System Operation;7.5;7.5. Savings on coordination of losses;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);756;7. Optimal System Operation;7.6;7.6. Loss formula coefficients calculation;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);756;7. Optimal System Operation;7.7;7.7. Optimal generation schedule for hydrothermal system;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);731;8. Automatic Generation and Voltage Control;8.1;8.1. Frequency change Calculation;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);731;8. Automatic Generation and Voltage Control;8.2;8.2. Load sharing and System Frequency;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);723;9. Symmetrical Fault Analysis;9.1;9.1. Fault Current Calculation;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);723;9. Symmetrical Fault Analysis;9.2;9.2. Subtransient and Momentary current Calculation;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);723;9. Symmetrical Fault Analysis;9.3;9.3. Subtransient Current Calculation;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);723;9. Symmetrical Fault Analysis;9.4;9.4. Maximum MVA Calculation;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);723;9. Symmetrical Fault Analysis;9.5;9.5. Short Circuit Solution;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);723;9. Symmetrical Fault Analysis;9.6;9.6. Short Circuit Solution using Algorithm;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);723;9. Symmetrical Fault Analysis;9.7;9.7. Current Injection Method;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);723;9. Symmetrical Fault Analysis;9.8;9.8. Zbus matrix building using Algorithm;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);723;9. Symmetrical Fault Analysis;9.9;9.9. PostFault Currents and Voltages Calculation;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);724;10. Symmetrical Components;10.1;10.1. Symmetrical components of line currents Calculation;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);724;10. Symmetrical Components;10.2;10.2. Sequence Network of the System;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);724;10. Symmetrical Components;10.3;10.3. Zero sequence Network;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);724;10. Symmetrical Components;10.4;10.4. Zero Sequence Network;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);725;11. Unsymmetrical Fault Analysis;11.1;11.1. LG and 3Phase faults Comparision;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);725;11. Unsymmetrical Fault Analysis;11.2;11.2. Grounding Resistor voltage and Fault Current;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);725;11. Unsymmetrical Fault Analysis;11.3;11.3. Fault and subtransient currents of the system;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);725;11. Unsymmetrical Fault Analysis;11.4;11.4. LL Fault Current;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);725;11. Unsymmetrical Fault Analysis;11.5;11.5. Double line to ground Fault;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);725;11. Unsymmetrical Fault Analysis;11.6;11.6. Bus Voltages and Currents Calculations;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);725;11. Unsymmetrical Fault Analysis;11.7;11.7. Short Circuit Current Calculations;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);797;12. Power System Stability;12.1;12.1. Calculation of stored kinetic energy and rotor acceleration;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);797;12. Power System Stability;12.10;12.10. Swing Curves For Sustained Fault and Cleared Fault at the Specified Time;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);797;12. Power System Stability;12.11;12.11. Swing Curves For Multimachines;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);797;12. Power System Stability;12.12;12.12. Swing Curves For Three Pole and Single Pole Switching;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);797;12. Power System Stability;12.2;12.2. steady state power limit;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);797;12. Power System Stability;12.3;12.3. Maximum Power Transferred;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);797;12. Power System Stability;12.4;12.4. Acceleration and Rotor angle;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);797;12. Power System Stability;12.5;12.5. Frequency Of Natural Oscilations;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);797;12. Power System Stability;12.6;12.6. Steady State Power Limit 2;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);797;12. Power System Stability;12.7;12.7. Critcal Clearing Angle;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);797;12. Power System Stability;12.8;12.8. Critcal Clearing Angle 2;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);797;12. Power System Stability;12.9;12.9. Critcal Clearing Angle 3;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);798;13. Power System Security;13.1;13.1. Generation Shift Factors and Line Outage Distribution Factors;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);835;14. An Introduction to State Estimation of Power Systems;14.1;14.1. Estimation of random variables;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);835;14. An Introduction to State Estimation of Power Systems;14.2;14.2. Estimation of random variables using WLSE;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);835;14. An Introduction to State Estimation of Power Systems;14.3;14.3. Estimation of random variables using WLSE 2;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);834;17. Voltage Stability;17.1;17.1. Reactive power sensitivity;correct;runtime; -83;Modern Power System Analysis(D. P. Kothari And I. J. Nagrath);834;17. Voltage Stability;17.2;17.2. Capacity of static VAR compensator;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);233;1. Introduction;1.1;1.1. efficiency and energy;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);353;2. Generating Stations;2.1;2.1. calorific value fuel;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);353;2. Generating Stations;2.10;2.10. level of reservoir;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);353;2. Generating Stations;2.11;2.11. excess power;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);353;2. Generating Stations;2.12;2.12. load factor;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);353;2. Generating Stations;2.13;2.13. installed capacity 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);353;2. Generating Stations;2.14;2.14. engine efficiency;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);353;2. Generating Stations;2.15;2.15. thermal efficiency;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);353;2. Generating Stations;2.16;2.16. overall efficiency;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);353;2. Generating Stations;2.17;2.17. nuclear power 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);353;2. Generating Stations;2.18;2.18. energy per second;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);353;2. Generating Stations;2.2;2.2. annual coal bill;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);353;2. Generating Stations;2.3;2.3. average load;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);353;2. Generating Stations;2.4;2.4. limiting value;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);353;2. Generating Stations;2.5;2.5. coal consumption per hour;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);353;2. Generating Stations;2.6;2.6. total energy available;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);353;2. Generating Stations;2.7;2.7. yearly gross output;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);353;2. Generating Stations;2.8;2.8. energy per hour;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);353;2. Generating Stations;2.9;2.9. maximum demand;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.1;3.1. energy per year;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.10;3.10. load curve;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.11;3.11. diversity and load factor;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.12;3.12. station load factor;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.13;3.13. 15 min peak;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.14;3.14. heat rate;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.15;3.15. load duration curve;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.16;3.16. utilisation factor;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.17;3.17. maximum load on feeder;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.18;3.18. daily load cycle;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.19;3.19. installed capacity;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.2;3.2. load factor;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.20;3.20. capacity factor;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.21;3.21. steam plant capacity;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.22;3.22. generated units;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.3;3.3. annual load factor;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.4;3.4. maximum energy;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.5;3.5. diesel station;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.6;3.6. reserve capacity;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.7;3.7. connected load;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.8;3.8. feeder max demand;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);355;3. Variable Load on Power Stations;3.9;3.9. max capacity;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);391;4. Economics of Power Generation;4.1;4.1. annual depreciation charge;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);391;4. Economics of Power Generation;4.10;4.10. a b c form;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);391;4. Economics of Power Generation;4.11;4.11. overall generation cost;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);391;4. Economics of Power Generation;4.12;4.12. private and public supply;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);391;4. Economics of Power Generation;4.13;4.13. steam and hydro;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);391;4. Economics of Power Generation;4.14;4.14. unit cost;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);391;4. Economics of Power Generation;4.15;4.15. generation cost;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);391;4. Economics of Power Generation;4.16;4.16. hours of operation;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);391;4. Economics of Power Generation;4.2;4.2. payment for sinking fund;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);391;4. Economics of Power Generation;4.3;4.3. value after 20years;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);391;4. Economics of Power Generation;4.4;4.4. fixed and running charges;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);391;4. Economics of Power Generation;4.5;4.5. cost per unit;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);391;4. Economics of Power Generation;4.6;4.6. load factor values;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);391;4. Economics of Power Generation;4.7;4.7. cost per kWh;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);391;4. Economics of Power Generation;4.8;4.8. reserve capacity and kWh;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);391;4. Economics of Power Generation;4.9;4.9. two part form;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);615;5. Tariff;5.1;5.1. simple tariff 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);615;5. Tariff;5.10;5.10. monthly bill 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);615;5. Tariff;5.11;5.11. cost at varying pf;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);615;5. Tariff;5.12;5.12. difference in cost annually;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);615;5. Tariff;5.13;5.13. cheaper alternative;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);615;5. Tariff;5.2;5.2. flat rate 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);615;5. Tariff;5.3;5.3. economical tariff;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);615;5. Tariff;5.4;5.4. number of units;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);615;5. Tariff;5.5;5.5. two part 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);615;5. Tariff;5.6;5.6. substation and consumer;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);615;5. Tariff;5.7;5.7. solving for L;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);615;5. Tariff;5.8;5.8. annual bill 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);615;5. Tariff;5.9;5.9. annual saving 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);616;6. Power factor improvement;6.1;6.1. extra power supplied;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);616;6. Power factor improvement;6.10;6.10. total annual bill;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);616;6. Power factor improvement;6.11;6.11. synchronous motor power factor;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);616;6. Power factor improvement;6.12;6.12. annual saving 5;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);616;6. Power factor improvement;6.13;6.13. economical pf operation;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);616;6. Power factor improvement;6.14;6.14. annual saving 6;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);616;6. Power factor improvement;6.15;6.15. annual saving 9;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);616;6. Power factor improvement;6.16;6.16. annual bill 3;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);616;6. Power factor improvement;6.17;6.17. annual saving 8;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);616;6. Power factor improvement;6.18;6.18. pfc equipment;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);616;6. Power factor improvement;6.19;6.19. phase advancers;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);616;6. Power factor improvement;6.2;6.2. capacitance in parallel;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);616;6. Power factor improvement;6.3;6.3. kw kva and pf;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);616;6. Power factor improvement;6.4;6.4. rating of capacitors;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);616;6. Power factor improvement;6.5;6.5. capacitance of each capacitor;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);616;6. Power factor improvement;6.6;6.6. annual saving 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);616;6. Power factor improvement;6.7;6.7. annual saving 3;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);616;6. Power factor improvement;6.8;6.8. net annual saving;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);616;6. Power factor improvement;6.9;6.9. motor power factor;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);669;7. Supply Systems;7.1;7.1. saving in feeder copper;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);669;7. Supply Systems;7.10;7.10. area of conductor 4;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);669;7. Supply Systems;7.4;7.4. additional load;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);669;7. Supply Systems;7.5;7.5. conductor volume comparision;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);669;7. Supply Systems;7.6;7.6. voltages in DC 2wire system;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);669;7. Supply Systems;7.7;7.7. area of conductor 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);669;7. Supply Systems;7.8;7.8. area of conductor 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);669;7. Supply Systems;7.9;7.9. area of conductor 3;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.1;8.1. string efficiency 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.10;8.10. string efficiency;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.11;8.11. string eff 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.12;8.12. v across each insulator;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.13;8.13. rms line voltage;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.14;8.14. conductor spacing;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.15;8.15. total corona loss;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.16;8.16. power loss;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.17;8.17. ground clearing 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.18;8.18. sag and vertical sag;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.19;8.19. vertical sag 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.2;8.2. string efficiency 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.20;8.20. sag in tr lines;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.21;8.21. safety factor;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.22;8.22. ground clearance 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.23;8.23. clearence from water level;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.24;8.24. sag;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.25;8.25. clearence from water level 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.26;8.26. clearence from ground;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.27;8.27. min clearance;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.3;8.3. string efficiency 3;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.4;8.4. voltage between busbars;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.5;8.5. string efficiency 4;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.6;8.6. string efficiency 5;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.7;8.7. string efficiency 6;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.8;8.8. voltage between conductors;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);617;8. Mechanical Design of Overhead Lines;8.9;8.9. string efficiency 7;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);618;9. Electrical Design of Overhead Lines;9.1;9.1. loop inductance per km 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);618;9. Electrical Design of Overhead Lines;9.10;9.10. loop inductance per km 4;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);618;9. Electrical Design of Overhead Lines;9.11;9.11. capacitance per km;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);618;9. Electrical Design of Overhead Lines;9.12;9.12. capacitance of each line conductor;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);618;9. Electrical Design of Overhead Lines;9.13;9.13. charging current per phase;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);618;9. Electrical Design of Overhead Lines;9.14;9.14. capacitance of line;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);618;9. Electrical Design of Overhead Lines;9.15;9.15. charging current per phase 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);618;9. Electrical Design of Overhead Lines;9.2;9.2. loop inductance per km 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);618;9. Electrical Design of Overhead Lines;9.3;9.3. inductance per phase per km 3;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);618;9. Electrical Design of Overhead Lines;9.4;9.4. inductance per phase per km 4;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);618;9. Electrical Design of Overhead Lines;9.5;9.5. inductance per phase per km 5;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);618;9. Electrical Design of Overhead Lines;9.6;9.6. loop inductance per km 3;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);618;9. Electrical Design of Overhead Lines;9.7;9.7. inductance per phase per km 4;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);618;9. Electrical Design of Overhead Lines;9.8;9.8. inductance per phase per km 6;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);618;9. Electrical Design of Overhead Lines;9.9;9.9. inductance per phase per km 7;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);619;10. Performance of Transmission Lines;10.1;10.1. transmission efficiency 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);619;10. Performance of Transmission Lines;10.10;10.10. supply pf for medium tr lines;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);619;10. Performance of Transmission Lines;10.11;10.11. nominal t method 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);619;10. Performance of Transmission Lines;10.12;10.12. nominal t method 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);619;10. Performance of Transmission Lines;10.13;10.13. nominal pi method 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);619;10. Performance of Transmission Lines;10.14;10.14. nominal pi method 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);619;10. Performance of Transmission Lines;10.15;10.15. long tr line;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);619;10. Performance of Transmission Lines;10.16;10.16. generalised contants 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);619;10. Performance of Transmission Lines;10.17;10.17. generalised contants 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);619;10. Performance of Transmission Lines;10.18;10.18. generalised contants 3;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);619;10. Performance of Transmission Lines;10.2;10.2. length of conductor;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);619;10. Performance of Transmission Lines;10.3;10.3. transmission efficiency 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);619;10. Performance of Transmission Lines;10.4;10.4. length of line;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);619;10. Performance of Transmission Lines;10.5;10.5. transmission eff;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);619;10. Performance of Transmission Lines;10.6;10.6. sending end pf;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);619;10. Performance of Transmission Lines;10.7;10.7. transmission efficiency 3;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);619;10. Performance of Transmission Lines;10.8;10.8. transmission efficiency 4;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);619;10. Performance of Transmission Lines;10.9;10.9. transmission efficiency 5;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.1;11.1. insulaiton resistance;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.10;11.10. economical conductor diameter;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.11;11.11. internal sheath diameter;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.12;11.12. rms safe working voltage;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.13;11.13. rms safe working voltage 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.14;11.14. max dielectric stress;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.15;11.15. intersheath grading 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.16;11.16. intersheath grading 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.17;11.17. three core cable Ic;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.18;11.18. three core cable Ic2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.19;11.19. kva taken by cable;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.2;11.2. insulation thickness;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.20;11.20. permissible current loading;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.21;11.21. loop testing fault location 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.22;11.22. loop testing fault location 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.23;11.23. loop testing fault location 3;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.24;11.24. distance from fault end;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.3;11.3. insulaiton resistance 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.4;11.4. cable capacitance;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.5;11.5. total charging kvar;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.6;11.6. total charging kvar 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.7;11.7. minimum dielectric stress;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.8;11.8. operating voltage;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);620;11. Underground Cables;11.9;11.9. charging current;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.1;13.1. PD at each point;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.10;13.10. minimum consumer voltage;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.11;13.11. currents and voltages;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.12;13.12. power loss in distributor2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.13;13.13. current supplied by stations;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.14;13.14. maximum voltage drop;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.15;13.15. currents supplied from two ends;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.16;13.16. voltage calculations;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.17;13.17. max voltage drop 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.19;13.19. concentrated and uniform loads;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.2;13.2. cross sectional area of conductor;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.20;13.20. loading;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.21;13.21. point of min potential;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.22;13.22. ring distributor;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.23;13.23. current tapping;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.24;13.24. currents and voltages;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.25;13.25. interconnector paramenters;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.26;13.26. voltage at loads;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.27;13.27. voltage at load end;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.28;13.28. voltage calculations 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.29;13.29. voltage across various loads;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.3;13.3. voltages across trams;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.30;13.30. voltage across various loads 3;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.31;13.31. break in lines;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.32;13.32. current in two machines;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.33;13.33. current and load calculations;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.34;13.34. current and load calculations 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.35;13.35. load on main generator;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.36;13.36. output of booster;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.4;13.4. voltage at tapping points;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.5;13.5. max voltage drop;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.6;13.6. x section of distributor;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.7;13.7. voltage at feeding points;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);642;13. D C Distribution;13.9;13.9. power loss in distributor;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);643;14. A C distribution;14.1;14.1. voltage drop in distributor;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);643;14. A C distribution;14.10;14.10. phase voltage calculation;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);643;14. A C distribution;14.11;14.11. voltages across lamps;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);643;14. A C distribution;14.2;14.2. phase difference and Vs;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);643;14. A C distribution;14.3;14.3. phase difference;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);643;14. A C distribution;14.4;14.4. thevenins theorem;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);643;14. A C distribution;14.5;14.5. line voltage at sending end;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);643;14. A C distribution;14.6;14.6. station voltages;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);643;14. A C distribution;14.7;14.7. current in nuetral;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);643;14. A C distribution;14.8;14.8. lamp and motor load;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);643;14. A C distribution;14.9;14.9. component currents;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);839;15. Voltage Control;15.1;15.1. Vs per phase;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);839;15. Voltage Control;15.2;15.2. sunchronous condensor capacity;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);621;17. Symmetrical Fault Calculations;17.1;17.1. short circuit current;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);621;17. Symmetrical Fault Calculations;17.10;17.10. sc kVA;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);621;17. Symmetrical Fault Calculations;17.11;17.11. reactor reactance;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);621;17. Symmetrical Fault Calculations;17.12;17.12. reactance of reactor;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);621;17. Symmetrical Fault Calculations;17.13;17.13. fault mva calculations 3;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);621;17. Symmetrical Fault Calculations;17.14;17.14. fault current fed by alternator;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);621;17. Symmetrical Fault Calculations;17.15;17.15. short circuit current calculations;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);621;17. Symmetrical Fault Calculations;17.2;17.2. percentage reactance;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);621;17. Symmetrical Fault Calculations;17.3;17.3. short circuit kva 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);621;17. Symmetrical Fault Calculations;17.4;17.4. fault mva calculations;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);621;17. Symmetrical Fault Calculations;17.5;17.5. fault mva calculations 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);621;17. Symmetrical Fault Calculations;17.6;17.6. reactance;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);621;17. Symmetrical Fault Calculations;17.7;17.7. short circuit mva;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);621;17. Symmetrical Fault Calculations;17.8;17.8. steady state input;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);621;17. Symmetrical Fault Calculations;17.9;17.9. short circuit mva 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);670;18. Unsymmetrical Fault Calculations;18.10;18.10. resistor and line currents;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);670;18. Unsymmetrical Fault Calculations;18.11;18.11. current calculations;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);670;18. Unsymmetrical Fault Calculations;18.12;18.12. current calculations 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);670;18. Unsymmetrical Fault Calculations;18.13;18.13. current calculations 3;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);670;18. Unsymmetrical Fault Calculations;18.14;18.14. impedance and voltage calculations;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);670;18. Unsymmetrical Fault Calculations;18.15;18.15. ratio of fault currents;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);670;18. Unsymmetrical Fault Calculations;18.16;18.16. fault current;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);670;18. Unsymmetrical Fault Calculations;18.17;18.17. fault current 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);670;18. Unsymmetrical Fault Calculations;18.18;18.18. fault current 3;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);670;18. Unsymmetrical Fault Calculations;18.19;18.19. fault current 4;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);670;18. Unsymmetrical Fault Calculations;18.20;18.20. reactance calculations;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);670;18. Unsymmetrical Fault Calculations;18.3;18.3. sequence currents;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);670;18. Unsymmetrical Fault Calculations;18.4;18.4. sequence components for voltage;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);670;18. Unsymmetrical Fault Calculations;18.5;18.5. sequence components calculations;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);670;18. Unsymmetrical Fault Calculations;18.6;18.6. zero sequence currents;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);670;18. Unsymmetrical Fault Calculations;18.7;18.7. with and without fuse;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);670;18. Unsymmetrical Fault Calculations;18.8;18.8. line current values;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);670;18. Unsymmetrical Fault Calculations;18.9;18.9. currents in three phases;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);622;19. Circuit Breakers;19.1;19.1. circuit breaker rating;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);622;19. Circuit Breakers;19.2;19.2. average rrrv;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);622;19. Circuit Breakers;19.3;19.3. natural frequency of oscillations;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);622;19. Circuit Breakers;19.4;19.4. voltage during chopping;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);623;20. Fuses;20.1;20.1. radius of wire;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);624;21. Protective relays;21.1;21.1. relay operating time;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);625;22. Protection of Alternators and Transformers;22.1;22.1. Merz Price principle;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);625;22. Protection of Alternators and Transformers;22.2;22.2. unprotected winding calculations;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);625;22. Protection of Alternators and Transformers;22.3;22.3. unprotected winding and r;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);625;22. Protection of Alternators and Transformers;22.4;22.4. earthing resistance r;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);625;22. Protection of Alternators and Transformers;22.5;22.5. turn ratio 1;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);625;22. Protection of Alternators and Transformers;22.6;22.6. turn ratio 2;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);627;26. Neutral Grounding;26.1;26.1. peterson coil reactance;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);627;26. Neutral Grounding;26.2;26.2. peterson coil rating;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);627;26. Neutral Grounding;26.3;26.3. reactance to nuetralize capacitance;correct;runtime; -98;Principles of Power Systems(V. K. Mehta And R. Mehta);627;26. Neutral Grounding;26.4;26.4. coil rating;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.1;2.1. laplace transform of step function;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.10;2.10. determinant of matrix;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.12;2.12. transpose of matrix;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.13;2.13. adjoint of matrix;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.14;2.14. equality of matrices;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.15;2.15. addition of matrices;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.16;2.16. conformability for multiplication of matrices;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.17;2.17. multiplication of matrices;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.18;2.18. inverse of 2x2 matrix;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.19;2.19. inverse of 3x3 matrix;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.2;2.2. laplace transform of exponential function;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.20;2.20. rank of a matrix;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.21;2.21. z transform;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.22;2.22. z transform;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.23;2.23. z transform;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.25;2.25. final value thereom;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.3;2.3. final value thereom;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.4;2.4. inverse laplace;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.5;2.5. partial fractions;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.7;2.7. inverse laplace transform;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.8;2.8. inverse laplace transform;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );124;2. Mathematical Foundation;2.9;2.9. inverse laplace transform;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );129;3. Transfer Functions Block Diagrams and Signal Flow Graphs;3.1;3.1. closed loop transfer function matrix;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );129;3. Transfer Functions Block Diagrams and Signal Flow Graphs;3.10;3.10. masons gain formula;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );129;3. Transfer Functions Block Diagrams and Signal Flow Graphs;3.11;3.11. masons gain formula;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );129;3. Transfer Functions Block Diagrams and Signal Flow Graphs;3.3;3.3. masons gain formula applied to SFG in figure 3 15;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );129;3. Transfer Functions Block Diagrams and Signal Flow Graphs;3.4;3.4. masons gain formula;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );129;3. Transfer Functions Block Diagrams and Signal Flow Graphs;3.5;3.5. masons gain formula;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );129;3. Transfer Functions Block Diagrams and Signal Flow Graphs;3.6;3.6. masons gain formula;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );129;3. Transfer Functions Block Diagrams and Signal Flow Graphs;3.7;3.7. masons gain formula;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );129;3. Transfer Functions Block Diagrams and Signal Flow Graphs;3.9;3.9. masons gain formula;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );130;4. Mathematical Modelling of Physical Systems;4.1;4.1. transfer fnuction of system;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );130;4. Mathematical Modelling of Physical Systems;4.2;4.2. transfer fnuction of electric network;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );130;4. Mathematical Modelling of Physical Systems;4.3;4.3. gear trains;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );130;4. Mathematical Modelling of Physical Systems;4.4;4.4. mass spring system;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );130;4. Mathematical Modelling of Physical Systems;4.5;4.5. mass spring system;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );130;4. Mathematical Modelling of Physical Systems;4.9;4.9. incremental encoder;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );135;5. State Variable Analysis;5.1;5.1. state transition equation;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );135;5. State Variable Analysis;5.12;5.12. ccf form;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );135;5. State Variable Analysis;5.13;5.13. ocf form;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );135;5. State Variable Analysis;5.14;5.14. dcf form;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );135;5. State Variable Analysis;5.18;5.18. system with identical eigen values;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );135;5. State Variable Analysis;5.19;5.19. controllability;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );135;5. State Variable Analysis;5.20;5.20. controllability;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );135;5. State Variable Analysis;5.21;5.21. observability;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );135;5. State Variable Analysis;5.7;5.7. characteristic equation from transfer function;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );135;5. State Variable Analysis;5.8;5.8. characteristic equation from state equation;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );135;5. State Variable Analysis;5.9;5.9. eigen values;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );137;6. Stability of Linear Control Systems;6.1;6.1. stability of open loop systems;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );137;6. Stability of Linear Control Systems;6.10;6.10. bilinear transformation method;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );137;6. Stability of Linear Control Systems;6.2;6.2. rouths tabulation to determine stability;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );137;6. Stability of Linear Control Systems;6.3;6.3. rouths tabulation to determine stability;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );137;6. Stability of Linear Control Systems;6.4;6.4. first element in any row of rouths tabulation is z;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );137;6. Stability of Linear Control Systems;6.5;6.5. elements in any row of rouths tabulations are all;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );137;6. Stability of Linear Control Systems;6.6;6.6. determining critical value of K;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );137;6. Stability of Linear Control Systems;6.7;6.7. determining critical value of K;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );137;6. Stability of Linear Control Systems;6.8;6.8. stability of closed loop systems;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );137;6. Stability of Linear Control Systems;6.9;6.9. bilinear transformation method;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );139;7. Time Domain Analysis of Control Systems;7.1;7.1. type of system;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );139;7. Time Domain Analysis of Control Systems;7.2;7.2. steady state errors from open loop tf;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );139;7. Time Domain Analysis of Control Systems;7.3;7.3. steady state errors from closed loop tf;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );139;7. Time Domain Analysis of Control Systems;7.4;7.4. steady state errors from closed loop tf;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );139;7. Time Domain Analysis of Control Systems;7.5;7.5. steady state errors from closed loop tf;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );139;7. Time Domain Analysis of Control Systems;7.6;7.6. steady state errors from closed loop tf;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );141;8. Root Locus Technique;8.1;8.1. poles and zeros;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );141;8. Root Locus Technique;8.10;8.10. intersection of root loci with real axis;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );141;8. Root Locus Technique;8.11;8.11. breakaway points;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );141;8. Root Locus Technique;8.12;8.12. breakaway points;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );141;8. Root Locus Technique;8.13;8.13. breakaway points;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );141;8. Root Locus Technique;8.14;8.14. breakaway points;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );141;8. Root Locus Technique;8.15;8.15. root sensitivity;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );141;8. Root Locus Technique;8.16;8.16. calculation of K on root loci;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );141;8. Root Locus Technique;8.17;8.17. properties of root loci;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );141;8. Root Locus Technique;8.18;8.18. effect of addition of poles to system;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );141;8. Root Locus Technique;8.19;8.19. effect of addition of zeroes to system;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );141;8. Root Locus Technique;8.2;8.2. root locus;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );141;8. Root Locus Technique;8.20;8.20. effect of moving poles near jw axis;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );141;8. Root Locus Technique;8.21;8.21. effect of moving poles awat from jw axis;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );141;8. Root Locus Technique;8.3;8.3. root locus;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );141;8. Root Locus Technique;8.4;8.4. root locus;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );141;8. Root Locus Technique;8.5;8.5. root locus;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );141;8. Root Locus Technique;8.8;8.8. angle of departure and angle of arrivals;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );141;8. Root Locus Technique;8.9;8.9. multiple order pole;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );145;9. Frequency Domain Analysis;9.1;9.1. nyquist plot;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );145;9. Frequency Domain Analysis;9.10;9.10. multiple loop systems;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );145;9. Frequency Domain Analysis;9.14;9.14. gain margin and phase margin;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );145;9. Frequency Domain Analysis;9.15;9.15. bode plot;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );145;9. Frequency Domain Analysis;9.17;9.17. relative stability;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );145;9. Frequency Domain Analysis;9.2;9.2. nyquist plot;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );145;9. Frequency Domain Analysis;9.3;9.3. stability of non minimum phase loop tf;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );145;9. Frequency Domain Analysis;9.4;9.4. stability of minimum phase loop tf;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );145;9. Frequency Domain Analysis;9.5;9.5. stability of non minimum phase loop tf;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );145;9. Frequency Domain Analysis;9.6;9.6. stability of non minimum phase loop tf;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );145;9. Frequency Domain Analysis;9.7;9.7. stability of non minimum phase loop tf;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );145;9. Frequency Domain Analysis;9.8;9.8. effect of addition of poles;correct;runtime; -104;Automatic Control Systems(B. C. Kuo And F. Golnaraghi );145;9. Frequency Domain Analysis;9.9;9.9. effect of addition of zeroes;correct;runtime; -116;Digital Telephony(J. C. Bellamy);281;3. Voice Digitization;3.1;3.1. Program to calculate quantization interval and bits needed to encode each sample;correct;runtime; -116;Digital Telephony(J. C. Bellamy);281;3. Voice Digitization;3.2;3.2. Program to calculate the minimum bit rate for a PCM encoder must provide for high fidelity;correct;runtime; -116;Digital Telephony(J. C. Bellamy);281;3. Voice Digitization;3.4;3.4. Program to calculate how many bits per sample can be saved by using DPCM;correct;runtime; -116;Digital Telephony(J. C. Bellamy);282;5. Digital Switching;5.1;5.1. Program to find the idle path in a three stage 8192 line switch;correct;runtime; -116;Digital Telephony(J. C. Bellamy);282;5. Digital Switching;5.2;5.2. Program to determine the implementaton complexity of the TS switch;correct;runtime; -116;Digital Telephony(J. C. Bellamy);282;5. Digital Switching;5.3;5.3. Program to determine the implementaton complexity of a 2048 channel;correct;runtime; -116;Digital Telephony(J. C. Bellamy);282;5. Digital Switching;5.5;5.5. Program to determine the implementaton complexity of a 131072 channel;correct;runtime; -116;Digital Telephony(J. C. Bellamy);347;6. Digital Modulation and Radio Systems;6.4;6.4. Program to determine system gain of 10Mbps 2Ghz digital microwave repeater using 4 PSK modulation;correct;runtime; -116;Digital Telephony(J. C. Bellamy);350;7. Network Synchronization Control and Management;7.2;7.2. Program to determine relative accuracy of maintaining a mutual slip rate ojective of one slip in 20hrs;correct;runtime; -116;Digital Telephony(J. C. Bellamy);350;7. Network Synchronization Control and Management;7.3;7.3. Program to determine the minimum and maximum input channel rate accommodated by an M12 multiplexer;correct;runtime; -116;Digital Telephony(J. C. Bellamy);360;8. Fiber Optic Transmission System;8.1;8.1. Program to determine the loss limit and the multimode dispersion limit of a graded index FOC;correct;runtime; -116;Digital Telephony(J. C. Bellamy);360;8. Fiber Optic Transmission System;8.2;8.2. Program to determine the loss limit and the chromatic dispersion limit of a high performance SMF FOC;correct;runtime; -116;Digital Telephony(J. C. Bellamy);360;8. Fiber Optic Transmission System;8.3;8.3. Program to determine the BDP of SMF system and DS SMF system using DFB LD;correct;runtime; -116;Digital Telephony(J. C. Bellamy);360;8. Fiber Optic Transmission System;8.4;8.4. Program to determine the difference in wavelength of two optical signal;correct;runtime; -116;Digital Telephony(J. C. Bellamy);360;8. Fiber Optic Transmission System;8.5;8.5. Program to determine the system gain;correct;runtime; -116;Digital Telephony(J. C. Bellamy);360;8. Fiber Optic Transmission System;8.6;8.6. Program to determine the range of SPE data rates that can be accomodated by the byte stuffing operation;correct;runtime; -116;Digital Telephony(J. C. Bellamy);361;9. Digital Mobile Telephony;9.1;9.1. Progam to determine the probability of maximum interference of a 64 channel CDMA system;correct;runtime; -116;Digital Telephony(J. C. Bellamy);362;10. Data and Asynchronous Transfer Mode Network;10.1;10.1. Program to determine the amount of transmission capacity;correct;runtime; -116;Digital Telephony(J. C. Bellamy);362;10. Data and Asynchronous Transfer Mode Network;10.3;10.3. Program to determine the probability that the delay of an ATM voice cell;correct;runtime; -116;Digital Telephony(J. C. Bellamy);459;11. Digital Subscriber Access;11.1;11.1. Program to determine the distance limit imposed by the need to echo E bit in a BRI ST interface;correct;runtime; -116;Digital Telephony(J. C. Bellamy);459;11. Digital Subscriber Access;11.2;11.2. Program to determine the theoretical maximum data rate of a prefectly equalized voiceband modem;correct;runtime; -116;Digital Telephony(J. C. Bellamy);460;12. Traffic Analysis;12.1;12.1. Program to calculate how often do two calls arrive with less than 1 milisec between them;correct;runtime; -116;Digital Telephony(J. C. Bellamy);460;12. Traffic Analysis;12.2;12.2. Program to calculate the probability that eight or more arrivals occur in an chosen 30 sec;correct;runtime; -116;Digital Telephony(J. C. Bellamy);460;12. Traffic Analysis;12.3;12.3. Program to calculate the probability that a 1000 bit data block experiences exaclty 4 errors while being transmitted over a link having error;correct;runtime; -116;Digital Telephony(J. C. Bellamy);460;12. Traffic Analysis;12.4;12.4. Program to calculate the percentage of total traffic carried by first five ckt and traffic carried by all other remaining;correct;runtime; -116;Digital Telephony(J. C. Bellamy);460;12. Traffic Analysis;12.5;12.5. Program to calculate how much traffic can the trunk group carry;correct;runtime; -122;Modern Control Engineering(K. Ogata);238;2. Mathematical Modelling of Control Systems;2.4;2.4. Convert State space to Transfer Function model;correct;runtime; -122;Modern Control Engineering(K. Ogata);238;2. Mathematical Modelling of Control Systems;2.a.11;2.a.11. State space to Transfer Function model SISO system;correct;runtime; -122;Modern Control Engineering(K. Ogata);238;2. Mathematical Modelling of Control Systems;2.a.12;2.a.12. State space to Transfer Function model MIMO system;correct;runtime; -122;Modern Control Engineering(K. Ogata);238;2. Mathematical Modelling of Control Systems;2.a.7;2.a.7. Transfer Function to Controllable State Space form;correct;runtime; -122;Modern Control Engineering(K. Ogata);238;2. Mathematical Modelling of Control Systems;2.b.14;2.b.14. Verifying linearization of a non linear system;correct;runtime; -122;Modern Control Engineering(K. Ogata);238;2. Mathematical Modelling of Control Systems;2.b.4;2.b.4. Step and Ramp response of different Controllers;correct;runtime; -122;Modern Control Engineering(K. Ogata);238;2. Mathematical Modelling of Control Systems;2.i.1;2.i.1. Series Parallel Feedback connection of Systems;correct;runtime; -122;Modern Control Engineering(K. Ogata);238;2. Mathematical Modelling of Control Systems;2.i.2;2.i.2. Transfer Function to State Space Model;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.10;5.10. Response to initial condition using syslin x0;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.12;5.12. Constructing Routh array;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.13;5.13. Constructing Routh array;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.2;5.2. Determining K and Kh for required step response;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.3;5.3. Step response of MIMO system;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.4;5.4. Second order systems with different damping ratio;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.5;5.5. Impulse Response of a Second order System;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.6;5.6. Unit Ramp response of a second order system;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.7;5.7. Response to step and exponential input;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.8;5.8. Response to initial condition;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.9;5.9. Response to initial conditions using state space;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.a.10;5.a.10. Step response characteristics;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.a.11;5.a.11. Step Response for different zeta and wn;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.a.12;5.a.12. Response to unit ramp and exponential input;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.a.13;5.a.13. Response to input r equals 2 plus t;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.a.14;5.a.14. Response to unit acceleration input;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.a.15;5.a.15. Step Responses for different zeta;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.a.16;5.a.16. Response to initial conditions;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.a.3;5.a.3. Verifying design to match given response curve;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.a.4;5.a.4. Determining K and k for required step response;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.a.5;5.a.5. Verifying design to match given response;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.a.8;5.a.8. Unit step response and partial fraction expansion;correct;runtime; -122;Modern Control Engineering(K. Ogata);264;5. Transient and Steady State Response Analysis;5.a.9;5.a.9. Effect of zeros on step response of a system;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.1;6.1. Root Locus;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.10;6.10. Design of parallel compensation by root locus;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.15;6.15. Design of lag compensator;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.16;6.16. Design of lag lead compensator;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.2;6.2. Root Locus;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.3;6.3. Root Locus;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.4;6.4. Root Locus;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.5;6.5. Root locus of system in state space;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.6.1;6.6.1. Design of a lead compensator using root locus;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.6.2;6.6.2. Step and ramp response of lead compensated systems;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.7.1;6.7.1. Design of a lag compensator using root locus;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.7.2;6.7.2. Step and ramp response of lag compensated system;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.8.1;6.8.1. Design of a lag lead compensator using root locus;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.8.2;6.8.2. Evaluating Lag Lead compensated system;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.9.1;6.9.1. Design of lag lead compensator using root locus 2;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.9.2;6.9.2. Evaluating Lag Lead compensated system;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.a.13.1;6.a.13.1. Lead Compensator Design Attempt 1;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.a.13.2;6.a.13.2. Lead Compensator Design Attempt 2;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.a.17;6.a.17. Design of lag lead compensator;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.a.18;6.a.18. Design of a compensator for a highly oscillactory system;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.a.6;6.a.6. Root locus;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.i.1;6.i.1. Finding the Gain K at any point on the root locus;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.i.2;6.i.2. Orthogonality Constant gain curves and Root Locus;correct;runtime; -122;Modern Control Engineering(K. Ogata);267;6. Control Systems Analysis and Design by Root Locus Method;6.i.3;6.i.3. Effect of adding poles or zeros on the root locus;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.1;7.1. Steady state sinusoidal output;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.10;7.10. Nyquist Plot;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.11;7.11. Nyquist Plot;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.12;7.12. Nyquist Plots of system in state space;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.13;7.13. Nyquist Plot of MIMO system;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.14;7.14. Nyquist Stability Check;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.19;7.19. Nyquist plot stability check;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.2;7.2. Steady state sinusoidal output lag and lead;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.20;7.20. Gain and phase margins for different K;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.21;7.21. Stability Margins;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.22;7.22. Correlating bandwidth and speed of response;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.23;7.23. Frequency charecteristics;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.24;7.24. Polar and Nichols plot with M circles;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.25;7.25. Verifying experimentally derived Transfer function;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.26.1;7.26.1. Design of Lead compensator with Bode plots;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.26.2;7.26.2. Evaluating Lead compensated system;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.27.1;7.27.1. Design of Lag compensator with Bode plots;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.27.2;7.27.2. Evaluating Lag compensated system;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.28.1;7.28.1. Design of Lag lead compensation with Bode plots;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.28.2;7.28.2. Evaluating Lag Lead compensated system;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.3;7.3. Bode Plot in Hz;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.4;7.4. Bode Plot with transport lag;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.5;7.5. Bode Plot in rad per s;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.6;7.6. Bode plot in rad per s;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.7;7.7. Bode Plot for a system in State Space;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.8;7.8. Polar Plot of a linear system;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.9;7.9. Polar Plot with transport lag;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.a.1;7.a.1. Bode plot;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.a.10;7.a.10. Nyquist Plot with transport lag;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.a.11;7.a.11. Nyquist Plot;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.a.12;7.a.12. Nyquist plot for positive omega;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.a.13;7.a.13. Nyquist plot with points at selected frequencies;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.a.14;7.a.14. Nyquist plot for positive and negative feedback;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.a.18;7.a.18. Verifying experimentally derived Transfer function;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.a.23;7.a.23. Nichols plot;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.a.3;7.a.3. Bode plot for system in state space;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.a.4;7.a.4. Bode plot for different gain K;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.a.8;7.a.8. Stability check;correct;runtime; -122;Modern Control Engineering(K. Ogata);265;7. Control Systems Analysis and Design by Frequency Response Method;7.i.1;7.i.1. Bode plot for 2nd order systems with varying zeta;correct;runtime; -122;Modern Control Engineering(K. Ogata);301;8. PID Controllers and Modified PID Controllers;8.1;8.1. Tuning a PID controller using Nichols Second Rule;correct;runtime; -122;Modern Control Engineering(K. Ogata);301;8. PID Controllers and Modified PID Controllers;8.2;8.2. Computation of Optimal solution 1;correct;runtime; -122;Modern Control Engineering(K. Ogata);301;8. PID Controllers and Modified PID Controllers;8.3;8.3. Computation of Optimal solution 2;correct;runtime; -122;Modern Control Engineering(K. Ogata);301;8. PID Controllers and Modified PID Controllers;8.4;8.4. Design of system with two degrees of freedom;correct;runtime; -122;Modern Control Engineering(K. Ogata);301;8. PID Controllers and Modified PID Controllers;8.5;8.5. Design of system with two degrees of freedom 2;correct;runtime; -122;Modern Control Engineering(K. Ogata);301;8. PID Controllers and Modified PID Controllers;8.a.12;8.a.12. Computing optimal solution;correct;runtime; -122;Modern Control Engineering(K. Ogata);301;8. PID Controllers and Modified PID Controllers;8.a.13;8.a.13. Design of system with two degrees of freedom;correct;runtime; -122;Modern Control Engineering(K. Ogata);301;8. PID Controllers and Modified PID Controllers;8.a.5;8.a.5. PID design;correct;runtime; -122;Modern Control Engineering(K. Ogata);301;8. PID Controllers and Modified PID Controllers;8.a.6;8.a.6. PID design;correct;runtime; -122;Modern Control Engineering(K. Ogata);301;8. PID Controllers and Modified PID Controllers;8.a.7.1;8.a.7.1. PID Design with Frequency Response;correct;runtime; -122;Modern Control Engineering(K. Ogata);301;8. PID Controllers and Modified PID Controllers;8.i.1;8.i.1. PID Design with Frequency Response;correct;runtime; -122;Modern Control Engineering(K. Ogata);302;9. Control Systems Analysis in State Space;9.1;9.1. Transfer function to controllable observable and jordon canonical forms;correct;runtime; -122;Modern Control Engineering(K. Ogata);302;9. Control Systems Analysis in State Space;9.14;9.14. State and ouput controllability and observability;correct;runtime; -122;Modern Control Engineering(K. Ogata);302;9. Control Systems Analysis in State Space;9.15;9.15. Observability;correct;runtime; -122;Modern Control Engineering(K. Ogata);302;9. Control Systems Analysis in State Space;9.2;9.2. Transformations in state space;correct;runtime; -122;Modern Control Engineering(K. Ogata);302;9. Control Systems Analysis in State Space;9.3;9.3. Conversion from state space to transfer function model;correct;runtime; -122;Modern Control Engineering(K. Ogata);302;9. Control Systems Analysis in State Space;9.4;9.4. Conversion from state space to transfer function model;correct;runtime; -122;Modern Control Engineering(K. Ogata);302;9. Control Systems Analysis in State Space;9.5;9.5. State transition matrix;correct;runtime; -122;Modern Control Engineering(K. Ogata);302;9. Control Systems Analysis in State Space;9.7;9.7. Finding e to the power At using laplace transforms;correct;runtime; -122;Modern Control Engineering(K. Ogata);302;9. Control Systems Analysis in State Space;9.9;9.9. Linear dependence of vectors;correct;runtime; -122;Modern Control Engineering(K. Ogata);302;9. Control Systems Analysis in State Space;9.a.16;9.a.16. Controllability and pole zero cancellation;correct;runtime; -122;Modern Control Engineering(K. Ogata);302;9. Control Systems Analysis in State Space;9.a.17;9.a.17. Controllability observability and pole zero cancellation;correct;runtime; -122;Modern Control Engineering(K. Ogata);302;9. Control Systems Analysis in State Space;9.a.5;9.a.5. Conversion from transfer function model to state space model;correct;runtime; -122;Modern Control Engineering(K. Ogata);302;9. Control Systems Analysis in State Space;9.b.3;9.b.3. Obtaining canonical form;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.1;10.1. Gain matrix using characteristic eq and Ackermanns formula;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.10;10.10. Design of quadratic optimal regulator system;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.11;10.11. Design of quadratic optimal regulator system;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.12;10.12. Design of quadratic optimal regulator system and finding the response;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.13;10.13. Design of quadratic optimal regulator system and finding the response;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.2;10.2. Gain matrix using ppol and Ackermanns formula;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.3;10.3. Response to initial condition;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.4;10.4. Design of servo system with integrator in the plant;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.5;10.5. Design of servo system without integrator in the plant;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.6;10.6. Observer Gain matrix using ch eq and Ackermanns formula;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.7;10.7. Designing a controller using a full order observer;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.8;10.8. Designing a controller using a minimum order observer;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.9;10.9. Design of quadratic optimal regulator system;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.a.13;10.a.13. Designing a regulator using a minimum order observer;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.a.14;10.a.14. Designing a regulator using a minimum and full order observer;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.a.17;10.a.17. Design of quadratic optimal regulator system and finding the response;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.a.5;10.a.5. Feedback gain for moving eigen values;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.a.6;10.a.6. Gain matrix determination;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.a.9;10.a.9. Transforming to canonical form;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.i.1;10.i.1. Designing a regulator using a minimum order observer;correct;runtime; -122;Modern Control Engineering(K. Ogata);303;10. Control Systems Design in State Space;10.i.2;10.i.2. Designing a control system with a minimum order observer;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);268;1. Introduction to Image Processing System;1.13;1.13. False contouring Scilab code;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);268;1. Introduction to Image Processing System;1.3;1.3. Program to calculate number of samples required for an image;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);269;2. 2D Signals and Systems;2.12;2.12. Frequency Response;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);269;2. 2D Signals and Systems;2.16;2.16. Frequency Response;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);270;3. Convolution and Correlation;3.1;3.1. 2D Linear Convlolution;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);270;3. Convolution and Correlation;3.11;3.11. Linear Convolution of any signal with an impule signal given rise to the same signal;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);270;3. Convolution and Correlation;3.12;3.12. Circular Convolution between two 2D matrices;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);270;3. Convolution and Correlation;3.13;3.13. Circular Convolution exspressed as linear convolution plus alias;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);270;3. Convolution and Correlation;3.14;3.14. Linear Cross correlation of a 2D matrix;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);270;3. Convolution and Correlation;3.15;3.15. Circular correlation between two signals;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);270;3. Convolution and Correlation;3.16;3.16. Circular correlation between two signals;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);270;3. Convolution and Correlation;3.17;3.17. Linear auto correlation of a 2D matrix;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);270;3. Convolution and Correlation;3.18;3.18. Linear Cross correlation of a 2D matrix;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);270;3. Convolution and Correlation;3.2;3.2. 2D Linear Convolution;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);270;3. Convolution and Correlation;3.3;3.3. 2D Linear Convolution;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);270;3. Convolution and Correlation;3.7;3.7. 2D Linear Convolution;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);270;3. Convolution and Correlation;3.8;3.8. 2D Linear Convolution;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);271;4. Image Transforms;4.10;4.10. Program to compute discrete cosine transform;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);271;4. Image Transforms;4.12;4.12. Program to perform KL tranform for the given 2D matrix;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);271;4. Image Transforms;4.13;4.13. Program to find the singular value decomposition of given matrix;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);271;4. Image Transforms;4.4;4.4. DFT of 4x4 grayscale image;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);271;4. Image Transforms;4.5;4.5. 2D DFT of 4X4 grayscale image;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);271;4. Image Transforms;4.6;4.6. Scilab code to intergchange phase information between two images;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);272;5. Image Enhancement;5.13;5.13. Scilab code to determine image negative;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);272;5. Image Enhancement;5.16;5.16. Scilab code that performs threshold operation;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);272;5. Image Enhancement;5.20;5.20. Program performs gray level slicing without background;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);272;5. Image Enhancement;5.5;5.5. Scilab code for brightness enhancement;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);272;5. Image Enhancement;5.7;5.7. Scilab code for brightness suppression;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);272;5. Image Enhancement;5.9;5.9. Scilab code for Contrast Manipulation;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);759;6. Image Restoration and Denoising;6.1;6.1. Scilab code to create motion blur;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);759;6. Image Restoration and Denoising;6.13;6.13. Scilab code to perform wiener filtering of the corrupted image;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);759;6. Image Restoration and Denoising;6.18;6.18. Scilab code to Perform Average Filtering operation;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);759;6. Image Restoration and Denoising;6.21;6.21. Scilab code to Perform median filtering;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);759;6. Image Restoration and Denoising;6.23;6.23. Scilab code to Perform median filtering of colour image;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);759;6. Image Restoration and Denoising;6.24;6.24. Scilab code to Perform Trimmed Average Filter;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);759;6. Image Restoration and Denoising;6.5;6.5. Scilab code performs inverse filtering;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);759;6. Image Restoration and Denoising;6.7;6.7. Scilab code performs inverse filtering;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);759;6. Image Restoration and Denoising;6.9;6.9. Scilab code performs Pseudo inverse filtering;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);274;7. Image Segmentation;7.23;7.23. Scilab code for Differentiation of Gaussian function;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);274;7. Image Segmentation;7.25;7.25. Scilab code for Differentiation of Gaussian Filter function;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);274;7. Image Segmentation;7.27;7.27. Scilab code for Edge Detection using Different Edge detectors;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);274;7. Image Segmentation;7.30;7.30. Scilab code to perform watershed transform;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);275;8. Object Recognition;8.4;8.4. To verify the given matrix is a covaraince matrix;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);275;8. Object Recognition;8.5;8.5. To compute the covariance of the given 2D data;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);275;8. Object Recognition;8.9;8.9. Develop a perceptron AND function with bipolar inputs and targets;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);276;9. Image Compression;9.59;9.59. Program performs Block Truncation Coding;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);276;9. Image Compression;9.9;9.9. Program performs Block Truncation Coding BTC;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);758;10. Binary Image Processing;10.17;10.17. Scilab Code for dilation and erosion process;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);758;10. Binary Image Processing;10.19;10.19. Scilab Code to perform an opening and closing operation on the image;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);278;11. Colur Image Processing;11.12;11.12. Read a Colour image and separate the colour image into red green and blue planes;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);278;11. Colur Image Processing;11.16;11.16. Compute the histogram of the colour image;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);278;11. Colur Image Processing;11.18;11.18. Perform histogram equalisation of the given RGB image;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);278;11. Colur Image Processing;11.21;11.21. This program performs median filtering of the colour image;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);278;11. Colur Image Processing;11.24;11.24. Fitlering only the luminance component;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);278;11. Colur Image Processing;11.28;11.28. Perform gamma correction for the given colour image;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);278;11. Colur Image Processing;11.30;11.30. Perform Pseudo Colouring Operation;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);278;11. Colur Image Processing;11.32;11.32. Read an RGB image and segment it using the threshold method;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);278;11. Colur Image Processing;11.4;11.4. Read an RGB image and extract the three colour components red green blue;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);279;12. Wavelet based Image Processing;12.42;12.42. Scilab code to generate different levels of a Gaussian pyramid;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);279;12. Wavelet based Image Processing;12.57;12.57. Scilab code to implement watermarking in spatial domain;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);279;12. Wavelet based Image Processing;12.63;12.63. Scilab code to implement wavelet based watermarking;correct;runtime; -125;Digital Image Processing(S. Jayaraman, S. Esakkirajan And T. Veerakumar);279;12. Wavelet based Image Processing;12.9;12.9. Scilab code to perform wavelet decomposition;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);395;1. INTRODUCTION TO ELECTRONICS;1.1;1.1. Resistor Range Calculation using Colour Band Sequence;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);395;1. INTRODUCTION TO ELECTRONICS;1.2;1.2. Resistor Range Calculation using Colour Band Sequence;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);396;2. CURRENT AND VOLTAGE SOURCES;2.1;2.1. Equivalent Current Source Representation;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);396;2. CURRENT AND VOLTAGE SOURCES;2.2;2.2. Equivalent Voltage Source Representation;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);396;2. CURRENT AND VOLTAGE SOURCES;2.3;2.3. Current Determination using Voltage Source and Current Source Representations;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);396;2. CURRENT AND VOLTAGE SOURCES;2.4;2.4. Output Voltage Determination;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);436;4. SEMICONDUCTOR DIODE;4.1;4.1. DC Voltage and PIV Calculation;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);436;4. SEMICONDUCTOR DIODE;4.2;4.2. DC Voltage and PIV Calculation;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);436;4. SEMICONDUCTOR DIODE;4.3.a;4.3.a. Peak Value of Current Calculation;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);436;4. SEMICONDUCTOR DIODE;4.3.b;4.3.b. DC or Average Value of Current Calculation;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);436;4. SEMICONDUCTOR DIODE;4.3.c;4.3.c. RMS Value of Current Calculation;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);436;4. SEMICONDUCTOR DIODE;4.3.d;4.3.d. Ripple Factor Determination;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);436;4. SEMICONDUCTOR DIODE;4.3.e;4.3.e. Rectification Efficiency Calculation;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);436;4. SEMICONDUCTOR DIODE;4.4;4.4. Maximum Permissible Current Determination;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);436;4. SEMICONDUCTOR DIODE;4.5;4.5. Capacitance Determination on changing Bias Voltage;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);500;5. TRANSISTORS;5.1;5.1. Collector and Base Currents Calculation;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);500;5. TRANSISTORS;5.2;5.2. Dynamic Input Resistance Determination;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);500;5. TRANSISTORS;5.3;5.3. Short Circuit Current Gain Determination;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);500;5. TRANSISTORS;5.4.a;5.4.a. Common Base Short Circuit Current Gain Calculation;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);500;5. TRANSISTORS;5.4.b;5.4.b. Common Emitter Short Circuit Current Gain Calculation;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);500;5. TRANSISTORS;5.5;5.5. DC Current Gain in Common Base Configuration;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);500;5. TRANSISTORS;5.6;5.6. Determination of Dynamic Output Resistance and AC and DC Current Gains;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);500;5. TRANSISTORS;5.7;5.7. Q Point Determination;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);500;5. TRANSISTORS;5.8;5.8. Calculation of Dynamic Drain Resistance of JFET;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);503;6. VACUUM TUBES;6.1;6.1. Dynamic Plate Resistance of the Diode Determination;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);503;6. VACUUM TUBES;6.2;6.2. Plotting of Static Plate Characteristics;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);582;7. TRANSISTOR BIASING AND STABILIZATION OF OPERATING POINT;7.1;7.1. Calculate Ic and Vce for given Circuit;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);582;7. TRANSISTOR BIASING AND STABILIZATION OF OPERATING POINT;7.10;7.10. Calculate the value of Rb;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);582;7. TRANSISTOR BIASING AND STABILIZATION OF OPERATING POINT;7.11;7.11. Calculate DC bias Voltages and Currents;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);582;7. TRANSISTOR BIASING AND STABILIZATION OF OPERATING POINT;7.12;7.12. Calculate Re and Vce in the Circuit;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);582;7. TRANSISTOR BIASING AND STABILIZATION OF OPERATING POINT;7.13;7.13. Calculate Ic and Vce for given Circuit;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);582;7. TRANSISTOR BIASING AND STABILIZATION OF OPERATING POINT;7.14;7.14. Calculate Ic and Vce for given Circuit;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);582;7. TRANSISTOR BIASING AND STABILIZATION OF OPERATING POINT;7.2;7.2. Calculate coordinates of Operating Point;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);582;7. TRANSISTOR BIASING AND STABILIZATION OF OPERATING POINT;7.3;7.3. Quiescent Operating Point Determination;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);582;7. TRANSISTOR BIASING AND STABILIZATION OF OPERATING POINT;7.4.a;7.4.a. Calculate value of Resistance Rb;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);582;7. TRANSISTOR BIASING AND STABILIZATION OF OPERATING POINT;7.4.b;7.4.b. Calculation of Collector Current Ic;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);582;7. TRANSISTOR BIASING AND STABILIZATION OF OPERATING POINT;7.5;7.5. Calculation of Ie and Vc in the Circuit;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);582;7. TRANSISTOR BIASING AND STABILIZATION OF OPERATING POINT;7.6;7.6. Calculate Minimum and Maximum Collector Currents;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);582;7. TRANSISTOR BIASING AND STABILIZATION OF OPERATING POINT;7.7;7.7. Calculate Values of the three Currents;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);582;7. TRANSISTOR BIASING AND STABILIZATION OF OPERATING POINT;7.8;7.8. Calculate Minimum and Maximum Ie and corresponding Vce;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);582;7. TRANSISTOR BIASING AND STABILIZATION OF OPERATING POINT;7.9;7.9. Determine the new Q Points;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);584;8. SMALL SIGNAL AMPLIFIERS;8.1;8.1. Determination of Hybrid Parameters;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);584;8. SMALL SIGNAL AMPLIFIERS;8.2.a;8.2.a. Calculation of Input Impedance of Amplifier;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);584;8. SMALL SIGNAL AMPLIFIERS;8.2.b;8.2.b. Calculation of Voltage Gain of Amplifier;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);584;8. SMALL SIGNAL AMPLIFIERS;8.2.c;8.2.c. Calculation of Current Gain of Amplifier;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);584;8. SMALL SIGNAL AMPLIFIERS;8.3.a;8.3.a. Calculation of Voltage Gain of Amplifier;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);584;8. SMALL SIGNAL AMPLIFIERS;8.3.b;8.3.b. Calculation of Input Impedance of Amplifier;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);584;8. SMALL SIGNAL AMPLIFIERS;8.3.c;8.3.c. Calculation of Q Point Parameters of Amplifier;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);584;8. SMALL SIGNAL AMPLIFIERS;8.4;8.4. Calculation of Voltage Gain of Amplifier;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);584;8. SMALL SIGNAL AMPLIFIERS;8.5;8.5. Calculation of Gain of Single Stage Amplifier;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);584;8. SMALL SIGNAL AMPLIFIERS;8.6;8.6. Calculation of Output Signal Voltage of FET Amplifier;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);589;9. MULTI STAGE AMPLIFIERS;9.1;9.1. Calculate overall Voltage Gain in dB;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);589;9. MULTI STAGE AMPLIFIERS;9.2;9.2. Calculate Voltage at the Output Terminal;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);589;9. MULTI STAGE AMPLIFIERS;9.3;9.3. To Plot the Frequency Response Curve;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);589;9. MULTI STAGE AMPLIFIERS;9.4.a;9.4.a. Calculate Input Impedance of Two Stage RC Coupled Amplifier;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);589;9. MULTI STAGE AMPLIFIERS;9.4.b;9.4.b. Calculate Ouput Impedance of Two Stage RC Coupled Amplifier;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);589;9. MULTI STAGE AMPLIFIERS;9.4.c;9.4.c. Calculate Voltage Gain of Two Stage RC Coupled Amplifier;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);589;9. MULTI STAGE AMPLIFIERS;9.5;9.5. Calculate Maximum Voltage Gain and Bandwidth of Triode Amplifier;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);594;10. POWER AMPLIFIERS;10.1;10.1. Calculation of Transformer Turns Ratio;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);594;10. POWER AMPLIFIERS;10.2;10.2. Calculation of Effective Resistance seen at Primary;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);594;10. POWER AMPLIFIERS;10.3.a;10.3.a. Calculation of 2nd 3rd and 4th Harmonic Distortions;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);594;10. POWER AMPLIFIERS;10.3.b;10.3.b. Percentage Increase in Power because of Distortion;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);602;11. TUNED VOLTAGE AMPLIFIERS;11.1.a;11.1.a. Calculation of Resonant Frequency;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);602;11. TUNED VOLTAGE AMPLIFIERS;11.1.b;11.1.b. Calculation of Impedance at Resonance;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);602;11. TUNED VOLTAGE AMPLIFIERS;11.1.c;11.1.c. Calculation of Current at Resonance;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);602;11. TUNED VOLTAGE AMPLIFIERS;11.1.d;11.1.d. Calculation of Voltage across each Component;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);602;11. TUNED VOLTAGE AMPLIFIERS;11.2;11.2. Calculation of Parameters of the Resonant Circuit at Resonance;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);602;11. TUNED VOLTAGE AMPLIFIERS;11.3;11.3. Calculation of Impedance Q and Bandwidth of Resonant Circuit;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);603;12. FEEDBACK IN AMPLIFIERS;12.1;12.1. Calculation of Gain of Negative Feedback Amplifier;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);603;12. FEEDBACK IN AMPLIFIERS;12.2;12.2. Calculation of Internal Gain and Feedback Gain;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);603;12. FEEDBACK IN AMPLIFIERS;12.3;12.3. Calculation of change in overall Gain of Feedback Amplifier;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);603;12. FEEDBACK IN AMPLIFIERS;12.4;12.4. Calculation of Input Impedance of the Feedback Amplifier;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);603;12. FEEDBACK IN AMPLIFIERS;12.5;12.5. Calculation of Feedback Factor and Percent change in overall Gain;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);604;13. OSCILLATORS;13.1;13.1. Calculate Frequency of Oscillation of Tuned Collector Oscillator;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);604;13. OSCILLATORS;13.2;13.2. Calculate Frequency of Oscillation of Phase Shift Oscillator;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);604;13. OSCILLATORS;13.3;13.3. Calculate Frequency of Oscillation of Wein Bridge Oscillator;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);605;14. ELECTRONIC INSTRUMENTS;14.1;14.1. Caculation of Series Resistance for coversion to Voltmeter;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);605;14. ELECTRONIC INSTRUMENTS;14.2;14.2. Calculation of Shunt Resistance;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);605;14. ELECTRONIC INSTRUMENTS;14.3;14.3. Designing of a Universal Shunt for making a Multi Range Milliammeter;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);605;14. ELECTRONIC INSTRUMENTS;14.4;14.4. Determination of Peak and RMS AC Voltage;correct;runtime; -132;Basic Electronics And Linear Circuits(N. N. Bhargava, D. C. Kulshreshtha And S. C. Gupta);605;14. ELECTRONIC INSTRUMENTS;14.5;14.5. Determination of Magnitude and Frequency of Voltage Fed to Y Input;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);501;1. Semiconductor Physics;1.1;1.1. Electron concentration;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);501;1. Semiconductor Physics;1.2;1.2. Intrinsic Silicon;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);501;1. Semiconductor Physics;1.3;1.3. Extrinsic n type Silicon;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);501;1. Semiconductor Physics;1.4;1.4. Contact difference of potential;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);501;1. Semiconductor Physics;1.7;1.7. Potential barrier;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);502;2. The p n Junction Diode;2.1;2.1. Ideal diodes;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);502;2. The p n Junction Diode;2.11;2.11. Solving a circuit with diode;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);502;2. The p n Junction Diode;2.12;2.12. Diode small signal model;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);502;2. The p n Junction Diode;2.13;2.13. Barrier capacitance;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);502;2. The p n Junction Diode;2.14;2.14. Change in capacitance;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);502;2. The p n Junction Diode;2.18;2.18. Diffusion length;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);502;2. The p n Junction Diode;2.19;2.19. Two diodes in series;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);502;2. The p n Junction Diode;2.2;2.2. Change in diode voltage;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);502;2. The p n Junction Diode;2.3;2.3. Germanium diode;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);502;2. The p n Junction Diode;2.4;2.4. Diode current;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);502;2. The p n Junction Diode;2.5;2.5. Change in diode voltage;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);502;2. The p n Junction Diode;2.6;2.6. Value of R;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);502;2. The p n Junction Diode;2.7;2.7. Solving a circuit with diode;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);502;2. The p n Junction Diode;2.8;2.8. Output voltage;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);502;2. The p n Junction Diode;2.9;2.9. Circuit parameters;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.10;3.10. Minimum and maximum value of zener diode current;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.11;3.11. Safe voltage range;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.12;3.12. Voltage regulator;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.13;3.13. Range of load current;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.14;3.14. Zener diode;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.15;3.15. Zener diode regulator;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.16;3.16. Zener diode;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.17;3.17. Avalanche diode;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.18;3.18. Zener diode;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.19;3.19. Zener diode;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.20;3.20. Regulation range of zener diode;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.21.a;3.21.a. Clipping circuits;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.21.b;3.21.b. Range of load current;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.22;3.22. Transfer characteristics;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.23;3.23. Clipping circuit;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.24;3.24. Transfer characteristics;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.25;3.25. Clipping circuit;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.26;3.26. Range of load current;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.27;3.27. Range of load current;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.28;3.28. Transfer characteristics;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.29;3.29. Output voltage;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.30;3.30. EX30;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.31;3.31. Output waveform;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.32;3.32. Clamping circuit;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.33;3.33. Clamping circuit;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.4;3.4. Full wave rectifier;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.5;3.5. Full wave bridge rectifier;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.6;3.6. Centre tapped full wave rectifier;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.7;3.7. Full scale reading;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);504;3. Application of Diodes;3.8;3.8. Full scale reading;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);505;4. Bipolar Junction Transistors;4.1;4.1. Value of Collector Current;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);505;4. Bipolar Junction Transistors;4.2;4.2. CE transistor;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);505;4. Bipolar Junction Transistors;4.3;4.3. CE transistor;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);505;4. Bipolar Junction Transistors;4.4;4.4. Region of Operation;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);505;4. Bipolar Junction Transistors;4.5;4.5. Saturation region;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);505;4. Bipolar Junction Transistors;4.6;4.6. Output voltages;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);505;4. Bipolar Junction Transistors;4.7;4.7. pnp transistor;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);505;4. Bipolar Junction Transistors;4.8;4.8. Solving a circuit with transistor;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);552;5. BJT Biasing and Stability;5.1;5.1. Fixed bias circuit;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);552;5. BJT Biasing and Stability;5.10;5.10. Self bias circuit;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);552;5. BJT Biasing and Stability;5.11;5.11. Stability factor;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);552;5. BJT Biasing and Stability;5.12;5.12. Variation of collector current;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);552;5. BJT Biasing and Stability;5.13;5.13. Current mirror;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);552;5. BJT Biasing and Stability;5.14;5.14. Widlar current source;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);552;5. BJT Biasing and Stability;5.15;5.15. Current Repeaters;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);552;5. BJT Biasing and Stability;5.16;5.16. Output current;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);552;5. BJT Biasing and Stability;5.17;5.17. Current mirror;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);552;5. BJT Biasing and Stability;5.18;5.18. Modified current mirror;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);552;5. BJT Biasing and Stability;5.2;5.2. Determination of Q point;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);552;5. BJT Biasing and Stability;5.3;5.3. Self biased circuit;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);552;5. BJT Biasing and Stability;5.4;5.4. Amplifier circuit;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);552;5. BJT Biasing and Stability;5.5;5.5. Determination of Q point;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);552;5. BJT Biasing and Stability;5.6;5.6. Amplifier circuit;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);552;5. BJT Biasing and Stability;5.7;5.7. Amplifier circuit;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);552;5. BJT Biasing and Stability;5.8;5.8. Q point voltage;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);552;5. BJT Biasing and Stability;5.9;5.9. Stability factor;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);554;6. BJT Ampilifiers;6.10;6.10. re model;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);554;6. BJT Ampilifiers;6.2;6.2. Bipolar Junction Transistor;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);554;6. BJT Ampilifiers;6.3;6.3. Hybrid h parameter model;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);554;6. BJT Ampilifiers;6.4;6.4. Bipolar Junction Transistor;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);554;6. BJT Ampilifiers;6.5;6.5. Simplified h parameter model;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);554;6. BJT Ampilifiers;6.6;6.6. Hybrid pi model;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);554;6. BJT Ampilifiers;6.7;6.7. CC amplifier;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);554;6. BJT Ampilifiers;6.8;6.8. Voltage gain;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);554;6. BJT Ampilifiers;6.9;6.9. Hybrid pi model;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);562;7. Field Effect Transistors Characteristics and Biasing;7.1;7.1. Transfer curve of FET;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);562;7. Field Effect Transistors Characteristics and Biasing;7.2;7.2. NMOS transistor;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);562;7. Field Effect Transistors Characteristics and Biasing;7.3;7.3. n channel JFET;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);562;7. Field Effect Transistors Characteristics and Biasing;7.4;7.4. Self bias configuration;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);562;7. Field Effect Transistors Characteristics and Biasing;7.5;7.5. Operating point;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);562;7. Field Effect Transistors Characteristics and Biasing;7.6;7.6. n channel enhancement type MOSFET;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);562;7. Field Effect Transistors Characteristics and Biasing;7.7;7.7. Operating point of MOSFET;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);564;8. FET Amplifiers;8.1;8.1. Transconductance;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);564;8. FET Amplifiers;8.2;8.2. Fixed bias CS amplifier;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);564;8. FET Amplifiers;8.3;8.3. Self bias CS amplifier;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);564;8. FET Amplifiers;8.4;8.4. JFET source follower;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);564;8. FET Amplifiers;8.5;8.5. Common gate JFET amplifier;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);564;8. FET Amplifiers;8.6;8.6. E MOSFET amplifier;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);574;9. Multistage Amplifiers;9.1;9.1. CE CC configuration;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);574;9. Multistage Amplifiers;9.2;9.2. Two stage amplifier;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);574;9. Multistage Amplifiers;9.3;9.3. CC CE composite pair;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);574;9. Multistage Amplifiers;9.4;9.4. FET cascade;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);574;9. Multistage Amplifiers;9.5;9.5. Three stage amplifier;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);574;9. Multistage Amplifiers;9.6;9.6. FET and BJT cascade;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);574;9. Multistage Amplifiers;9.7;9.7. Darlington emitter follower;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);574;9. Multistage Amplifiers;9.8;9.8. Cascode circuit;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);599;10. Frequency Response of Amplifiers;10.1;10.1. Bode plots;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);599;10. Frequency Response of Amplifiers;10.12;10.12. Dominant pole approximation;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);599;10. Frequency Response of Amplifiers;10.13;10.13. Cascode amplifier;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);599;10. Frequency Response of Amplifiers;10.15;10.15. Capacitances of transistor;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);599;10. Frequency Response of Amplifiers;10.16;10.16. Common emitter stage;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);599;10. Frequency Response of Amplifiers;10.17;10.17. Time constant method;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);599;10. Frequency Response of Amplifiers;10.18;10.18. Gain bandwidth product;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);599;10. Frequency Response of Amplifiers;10.19;10.19. Approximation of fH;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);599;10. Frequency Response of Amplifiers;10.2;10.2. Bode plots;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);599;10. Frequency Response of Amplifiers;10.20;10.20. Low and high 3 dB frequency;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);599;10. Frequency Response of Amplifiers;10.21;10.21. Dominant pole approximation;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);599;10. Frequency Response of Amplifiers;10.23;10.23. Time constant method;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);599;10. Frequency Response of Amplifiers;10.3;10.3. Pole of transfer function;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);599;10. Frequency Response of Amplifiers;10.4;10.4. Low frequency response;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);599;10. Frequency Response of Amplifiers;10.5;10.5. Single pole model;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);599;10. Frequency Response of Amplifiers;10.7;10.7. Upper half power frequency;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);632;11. Feedback Amplifiers;11.1;11.1. Feedback network;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);632;11. Feedback Amplifiers;11.11;11.11. Transfer ratio;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);632;11. Feedback Amplifiers;11.12;11.12. Gain with feedback;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);632;11. Feedback Amplifiers;11.13;11.13. Transfer ratio;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);632;11. Feedback Amplifiers;11.15;11.15. Small signal gain;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);632;11. Feedback Amplifiers;11.16;11.16. Closed loop parameters;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);632;11. Feedback Amplifiers;11.17;11.17. Feedback in MOSFETs;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);632;11. Feedback Amplifiers;11.18;11.18. Open and closed loop gain;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);632;11. Feedback Amplifiers;11.19;11.19. Closed loop parameters;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);632;11. Feedback Amplifiers;11.2;11.2. Amount of feedback;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);632;11. Feedback Amplifiers;11.20;11.20. Closed loop parameters;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);632;11. Feedback Amplifiers;11.21;11.21. Voltage gain;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);632;11. Feedback Amplifiers;11.22;11.22. Feedback in FETs;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);632;11. Feedback Amplifiers;11.3;11.3. Second harmonic distortion;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);632;11. Feedback Amplifiers;11.4;11.4. Closed loop parameters;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);632;11. Feedback Amplifiers;11.5;11.5. Noise reduction;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);632;11. Feedback Amplifiers;11.6;11.6. Non inverting configuration;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);632;11. Feedback Amplifiers;11.7;11.7. Upper 3 dB frequency;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);632;11. Feedback Amplifiers;11.9;11.9. Desensitivity;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);636;12. Oscillators;12.1;12.1. Phase shift oscillator;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);636;12. Oscillators;12.2;12.2. Wien Bridge oscillator;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);636;12. Oscillators;12.3;12.3. Hartley oscillator;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);637;13. Power Amplifiers and Voltage Regulators;13.1;13.1. Series fed amplifier;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);637;13. Power Amplifiers and Voltage Regulators;13.2;13.2. Transformer turn ratio;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);637;13. Power Amplifiers and Voltage Regulators;13.3;13.3. Class A amplifier;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);637;13. Power Amplifiers and Voltage Regulators;13.4;13.4. Class B push pull amplifier;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);637;13. Power Amplifiers and Voltage Regulators;13.5;13.5. Class B output stage;correct;runtime; -135;Electronic Devices And Circuits(B. Kumar And S. B. Jain);637;13. Power Amplifiers and Voltage Regulators;13.6;13.6. Thermal considerations;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);369;2. INTRODUCTION TO SIGNALS;2.1;2.1. problem1;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);369;2. INTRODUCTION TO SIGNALS;2.3b;2.3b. problem3b;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);369;2. INTRODUCTION TO SIGNALS;2.4;2.4. problem4;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);369;2. INTRODUCTION TO SIGNALS;2.5;2.5. problem5;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);369;2. INTRODUCTION TO SIGNALS;2.6a;2.6a. problem6a;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);369;2. INTRODUCTION TO SIGNALS;2.6b;2.6b. problem6b;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);369;2. INTRODUCTION TO SIGNALS;2.6c;2.6c. problem6c;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);369;2. INTRODUCTION TO SIGNALS;2.6d;2.6d. problem6d;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);369;2. INTRODUCTION TO SIGNALS;2.6e;2.6e. problem2e;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);369;2. INTRODUCTION TO SIGNALS;2.6f;2.6f. problem6f;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);1412;3. ANALYSIS AND TRANSMISSION OF SIGNALS;3.1;3.1. problem1;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);1412;3. ANALYSIS AND TRANSMISSION OF SIGNALS;3.2;3.2. problem2;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);1412;3. ANALYSIS AND TRANSMISSION OF SIGNALS;3.3;3.3. problem3;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);1412;3. ANALYSIS AND TRANSMISSION OF SIGNALS;3.7;3.7. problem7;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);1410;4. AMPLITUDE MODULATION;4.5;4.5. problem5;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);1411;5. ANGLE MODULATION;5.1;5.1. problem1;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);1411;5. ANGLE MODULATION;5.2;5.2. problem2;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);1411;5. ANGLE MODULATION;5.3a;5.3a. problem3a;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);1411;5. ANGLE MODULATION;5.3b;5.3b. problem3b;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);1411;5. ANGLE MODULATION;5.4;5.4. problem4;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);1411;5. ANGLE MODULATION;5.5;5.5. problem5;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);367;6. SAMPLING AND PULSE CODE MODULATION;6.2;6.2. problem2;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);367;6. SAMPLING AND PULSE CODE MODULATION;6.3;6.3. problem3;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);368;7. PRINCIPLES OF DIGITAL DATA TRANSMISSION;7.1;7.1. problem1;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);368;7. PRINCIPLES OF DIGITAL DATA TRANSMISSION;7.3;7.3. problem3;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);368;7. PRINCIPLES OF DIGITAL DATA TRANSMISSION;7.4;7.4. problem4;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);370;8. EMERGING DIGITAL COMMUNICATIONS TECHNOLOGIES;8.3;8.3. problem3;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);365;10. Introduction to Theory of Probability;10.1;10.1. problem1;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);365;10. Introduction to Theory of Probability;10.10;10.10. problem10;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);365;10. Introduction to Theory of Probability;10.11;10.11. problem11;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);365;10. Introduction to Theory of Probability;10.20;10.20. problem20;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);365;10. Introduction to Theory of Probability;10.21;10.21. problem21;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);365;10. Introduction to Theory of Probability;10.3;10.3. problem3;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);365;10. Introduction to Theory of Probability;10.4;10.4. problem4;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);365;10. Introduction to Theory of Probability;10.5;10.5. problem5;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);365;10. Introduction to Theory of Probability;10.6;10.6. problem6;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);365;10. Introduction to Theory of Probability;10.9;10.9. problem9;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);1414;11. RANDOM PROCESSES;11.2;11.2. Example 2 of chapter 11;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);1414;11. RANDOM PROCESSES;11.3;11.3. Example 3 of chapter 11;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);1414;11. RANDOM PROCESSES;11.7;11.7. Example 7 of chapter 11;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);1414;11. RANDOM PROCESSES;11.8a;11.8a. Example 8a of chapter 11;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);1414;11. RANDOM PROCESSES;11.8b;11.8b. Example 8b of chapter 11;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);372;12. BEHAVIOUR OF ANALOG SYSTEMS IN THE PRESENCE OF NOISE;12.1;12.1. problem1;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);372;12. BEHAVIOUR OF ANALOG SYSTEMS IN THE PRESENCE OF NOISE;12.10;12.10. find output SNR;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);372;12. BEHAVIOUR OF ANALOG SYSTEMS IN THE PRESENCE OF NOISE;12.11;12.11. find output SNR;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);372;12. BEHAVIOUR OF ANALOG SYSTEMS IN THE PRESENCE OF NOISE;12.2;12.2. find gamma threshold;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);372;12. BEHAVIOUR OF ANALOG SYSTEMS IN THE PRESENCE OF NOISE;12.3;12.3. find output SNR;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);372;12. BEHAVIOUR OF ANALOG SYSTEMS IN THE PRESENCE OF NOISE;12.4;12.4. prove the given expression;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);372;12. BEHAVIOUR OF ANALOG SYSTEMS IN THE PRESENCE OF NOISE;12.5;12.5. prove the given expression;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);372;12. BEHAVIOUR OF ANALOG SYSTEMS IN THE PRESENCE OF NOISE;12.6;12.6. show that PM is superior to FM by factor of 3;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);372;12. BEHAVIOUR OF ANALOG SYSTEMS IN THE PRESENCE OF NOISE;12.7;12.7. problem7;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);372;12. BEHAVIOUR OF ANALOG SYSTEMS IN THE PRESENCE OF NOISE;12.8;12.8. determine output SNR;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);371;13. BEHAVIOUR OF DIGITAL COMMUNICATION SYSTEMS IN THE PRESENCE OF NOISE;13.1;13.1. problem1;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);508;14. OPTIMUM SIGNAL DETECTION;14.1;14.1. Represent the given signal;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);508;14. OPTIMUM SIGNAL DETECTION;14.2;14.2. Example 2 of chapter 14;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);508;14. OPTIMUM SIGNAL DETECTION;14.7;14.7. Example 7 of chapter 14;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);366;15. INTRODUCTION TO INFORMATION THEORY;15.1;15.1. problem1;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);366;15. INTRODUCTION TO INFORMATION THEORY;15.2;15.2. problem2;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);366;15. INTRODUCTION TO INFORMATION THEORY;15.4;15.4. problem4;correct;runtime; -137;Modern Digital And Analog Communication System(B. P. Lathi);509;16. ERROR CORRECTING CODES;16.1;16.1. Linear block codes;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);580;1. Circuit Elements and Laws;1.1;1.1. calculating temperature coefficient of resistance;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);580;1. Circuit Elements and Laws;1.10;1.10. Inductive Circuit;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);580;1. Circuit Elements and Laws;1.14;1.14. plotting the votage across inductive coil;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);580;1. Circuit Elements and Laws;1.15;1.15. applying Kirchoffs voltage law;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);580;1. Circuit Elements and Laws;1.15;1.15. applying Kirchoffs voltage law;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);580;1. Circuit Elements and Laws;1.17;1.17. application of node current analysis;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);580;1. Circuit Elements and Laws;1.2;1.2. Resistance in series;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);580;1. Circuit Elements and Laws;1.22;1.22. Power consumed by resistances;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);580;1. Circuit Elements and Laws;1.24;1.24. Bridge Circuit;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);580;1. Circuit Elements and Laws;1.27;1.27. determining voltage and current through resistor;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);580;1. Circuit Elements and Laws;1.3;1.3. current distribution in parallel combination;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);580;1. Circuit Elements and Laws;1.4;1.4. Series Parallel Combination;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);580;1. Circuit Elements and Laws;1.5;1.5. calculating resistance with given rated power;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);580;1. Circuit Elements and Laws;1.6;1.6. Power;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);580;1. Circuit Elements and Laws;1.7;1.7. voltage distribution across resistors in series;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);580;1. Circuit Elements and Laws;1.9;1.9. ratio of power consumed in two resistors;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);585;2. Analysis of resistive circuits;2.1;2.1. calculating parameters in network of resistors;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);585;2. Analysis of resistive circuits;2.10;2.10. Condition for Maximum Power;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);585;2. Analysis of resistive circuits;2.11;2.11. calculating total power supplied to network;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);585;2. Analysis of resistive circuits;2.12;2.12. Mesh Analysis;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);585;2. Analysis of resistive circuits;2.13;2.13. finding I1 and I2 by nodal analysis;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);585;2. Analysis of resistive circuits;2.14;2.14. Power;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);585;2. Analysis of resistive circuits;2.15;2.15. current in resistance by norton theorem;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);585;2. Analysis of resistive circuits;2.16;2.16. Reciprocity theorem;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);585;2. Analysis of resistive circuits;2.17;2.17. determining power supplied to network;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);585;2. Analysis of resistive circuits;2.18;2.18. Thevenins Theorem;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);585;2. Analysis of resistive circuits;2.19;2.19. equivalent resistance using star delta transformation;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);585;2. Analysis of resistive circuits;2.2;2.2. Series parallel combination of resistors;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);585;2. Analysis of resistive circuits;2.3;2.3. determining source voltage for a circuit;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);585;2. Analysis of resistive circuits;2.4;2.4. Division of current;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);585;2. Analysis of resistive circuits;2.6;2.6. Superposition theorem;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);585;2. Analysis of resistive circuits;2.7;2.7. determinig circuit current by mesh analysis;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);585;2. Analysis of resistive circuits;2.8;2.8. Nodal Analysis;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);585;2. Analysis of resistive circuits;2.9;2.9. determining equivalent resistance in a circuit;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);590;3. AC circuits under steady state;3.13;3.13. finding capacitance;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);590;3. AC circuits under steady state;3.14;3.14. Current and power factor in inductive cicuit;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);590;3. AC circuits under steady state;3.18;3.18. Three Phase cicuit;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);590;3. AC circuits under steady state;3.19;3.19. finding line phase current and power;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);590;3. AC circuits under steady state;3.2;3.2. Frequency Period and Phase angle;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);590;3. AC circuits under steady state;3.3;3.3. calculating the cost for operating circuit;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);590;3. AC circuits under steady state;3.4;3.4. calculating rms voltage of voltage wave form;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);590;3. AC circuits under steady state;3.5;3.5. calculating true apparent reactive power;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);590;3. AC circuits under steady state;3.6;3.6. Inductor;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);590;3. AC circuits under steady state;3.7;3.7. calculating input current and voltage across elements;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);590;3. AC circuits under steady state;3.8;3.8. Phasor diagram;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);590;3. AC circuits under steady state;3.9;3.9. calculating current supplied by voltage source;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);595;4. Transient circuit analysis;4.10;4.10. Peak Overshoot;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);595;4. Transient circuit analysis;4.14;4.14. Voltage in an inductive circuit;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);595;4. Transient circuit analysis;4.15;4.15. calculating current as function of time;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);595;4. Transient circuit analysis;4.6;4.6. Time for Maximum current;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);596;5. Special forcing functions adn laplace transforms;5.1;5.1. expressing sinusoidal wave in unit step function;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);597;7. Diodes;7.1;7.1. range of vd for approximation;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);597;7. Diodes;7.13;7.13. finding average value of load current;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);597;7. Diodes;7.15;7.15. calculating average value of vl;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);597;7. Diodes;7.21;7.21. to check whether regulation is preserved;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);597;7. Diodes;7.3;7.3. finding id1 and id2;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);644;8. Bipolar junction transistors;8.1;8.1. finding leakage current at 90 degree C;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);644;8. Bipolar junction transistors;8.10;8.10. CB transistor;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);644;8. Bipolar junction transistors;8.11;8.11. finding maximum symmetrical swing in current;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);644;8. Bipolar junction transistors;8.13;8.13. finding Rf for maximum symmetrical swing;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);644;8. Bipolar junction transistors;8.14;8.14. CB collector characteristics;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);644;8. Bipolar junction transistors;8.15;8.15. maintaining transistor quiescent point at saturation;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);644;8. Bipolar junction transistors;8.16;8.16. Maximum symmetrical swing;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);644;8. Bipolar junction transistors;8.17;8.17. finding parameters for a silicon transistor;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);644;8. Bipolar junction transistors;8.2;8.2. Collector current;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);644;8. Bipolar junction transistors;8.20;8.20. Voltage and Current gain;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);644;8. Bipolar junction transistors;8.22;8.22. Graphical determiination of hfb and hob;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);644;8. Bipolar junction transistors;8.24;8.24. Two stage amplifier;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);644;8. Bipolar junction transistors;8.26;8.26. Power and Efficiency;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);644;8. Bipolar junction transistors;8.28;8.28. Q point;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);644;8. Bipolar junction transistors;8.4;8.4. Common base transistor;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);644;8. Bipolar junction transistors;8.5;8.5. finding Rb;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);644;8. Bipolar junction transistors;8.6;8.6. Emitter current and collector emitter voltage;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);644;8. Bipolar junction transistors;8.7;8.7. finding Ieq Rb and Vceq;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);644;8. Bipolar junction transistors;8.8;8.8. CE collector characteristics;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);644;8. Bipolar junction transistors;8.9;8.9. finding Icq Rb for Si and Ge;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);645;9. Field effect transistors;9.13;9.13. finding Rd;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);645;9. Field effect transistors;9.14;9.14. Drain current and Gate to source voltage;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);645;9. Field effect transistors;9.15;9.15. finding saturation current;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);645;9. Field effect transistors;9.18;9.18. Series connection of JFETs;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);645;9. Field effect transistors;9.3;9.3. calculating Idq;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);645;9. Field effect transistors;9.4;9.4. Self Bias;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);645;9. Field effect transistors;9.6;9.6. n channel enhancement mode MOSFET;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);645;9. Field effect transistors;9.7;9.7. finding Av Zin Zo Ai;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);645;9. Field effect transistors;9.8;9.8. Small signal equivalent cicuit;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);646;10. Operational amplifiers;10.2;10.2. Gain of practical inverting Op Amp;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);646;10. Operational amplifiers;10.5;10.5. prooving vs is equal to vo and finding Zin;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);647;11. Switching logic and circuits;11.10;11.10. Power dissipated by RTL;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);647;11. Switching logic and circuits;11.9;11.9. finding number of gates to be attached;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);648;13. Transformers;13.1;13.1. finding current to produce required flux;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);648;13. Transformers;13.10;13.10. Equivalent cicuits of transformers;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);648;13. Transformers;13.12;13.12. Circuit referred to low voltage side;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);648;13. Transformers;13.15;13.15. calculating line current and total load;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);648;13. Transformers;13.16;13.16. Voltage and Current ratings;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);648;13. Transformers;13.17;13.17. calculating the series equivalent resistance;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);648;13. Transformers;13.18;13.18. Open and Short Circuit tests;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);648;13. Transformers;13.20;13.20. Autotransformer;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);648;13. Transformers;13.22;13.22. Votage regulation at different power factors;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);648;13. Transformers;13.23;13.23. finding copper loss equivalent resistance and impedance;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);648;13. Transformers;13.3;13.3. finding self inductance and leakage inductance;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);648;13. Transformers;13.5;13.5. finding number of turns on primary;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);648;13. Transformers;13.6;13.6. Core loss and No load Power factor;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);648;13. Transformers;13.7;13.7. calculating values of Rc and Xm;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);648;13. Transformers;13.8;13.8. Voltage regulation and Efficiency;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.10;14.10. Compound generator;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.12;14.12. Efficiency and Prime mover Output;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.13;14.13. finding maximum efficiency and the load;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.14;14.14. Full load Speed;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.15;14.15. calculating the efficiency of motor;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.16;14.16. Speed of motor;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.17;14.17. calculating the applied voltage and current;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.18;14.18. Induction Motor;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.19;14.19. finding synchronous speed and percent slip;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.21;14.21. finding rotor speed and copper losses;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.22;14.22. Efficiency of Motor;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.23;14.23. calculating the motor efficiency;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.24;14.24. Rotor resistance and Starting Torque;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.25;14.25. calcuating current power torque and efficiency;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.28;14.28. Percent Voltage Regulation;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.30;14.30. Power factor for zreo voltage regulation;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.32;14.32. Power developed by genrator;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.33;14.33. calculating reactive power and overall power factor;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.35;14.35. calculating the voltage regulation;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.37;14.37. finding slip rotor speed torque loss;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.4;14.4. Voltage induced in armature winding;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.5;14.5. voltage induced in armature;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.6;14.6. Power developed by armature;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.7;14.7. calculating the electromagnetic torque developed;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);649;14. Electromechanics and electric machines;14.8;14.8. Inductor Voltage;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);668;18. Basic Measuring Instruments;18.1;18.1. finding shunt and series resistance;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);668;18. Basic Measuring Instruments;18.2;18.2. Required Number of turns;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);668;18. Basic Measuring Instruments;18.3;18.3. finding the control constant of spring;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);668;18. Basic Measuring Instruments;18.4;18.4. Measurement of Voltage and Current;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);668;18. Basic Measuring Instruments;18.5;18.5. finding the percentage error of instrument;correct;runtime; -147;Schaum's Outlines of Basic Electrical Engineering(J. J. Cathey And S. A. Nasar);668;18. Basic Measuring Instruments;18.6;18.6. Meter Error;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);441;1. Solution of equation and curve fitting;1.1;1.1. finding the roots of quadratic equations;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);441;1. Solution of equation and curve fitting;1.11;1.11. forming an equation with known roots;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);441;1. Solution of equation and curve fitting;1.12;1.12. forming an equation under restricted conditions;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);441;1. Solution of equation and curve fitting;1.13;1.13. finding the roots of equation containing one variable;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);441;1. Solution of equation and curve fitting;1.14;1.14. finding the roots of equation containing one variable;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);441;1. Solution of equation and curve fitting;1.15;1.15. finding the roots of equation containing one variable;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);441;1. Solution of equation and curve fitting;1.16;1.16. finding the roots of equation containing one variable;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);441;1. Solution of equation and curve fitting;1.17;1.17. finding the roots of equation containing one variable;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);441;1. Solution of equation and curve fitting;1.18;1.18. Finding the roots of equation containing one variable;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);441;1. Solution of equation and curve fitting;1.19;1.19. Finding the roots of equation containing one variable;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);441;1. Solution of equation and curve fitting;1.2;1.2. finding the roots of equation containing one variable;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);441;1. Solution of equation and curve fitting;1.20;1.20. Finding the roots of equation containing one variable;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);441;1. Solution of equation and curve fitting;1.21;1.21. Finding the roots of equation containing one variable;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);441;1. Solution of equation and curve fitting;1.22;1.22. Finding the roots of equation containing one variable;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);441;1. Solution of equation and curve fitting;1.23;1.23. Finding the solution of equation by drawing graphs;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);441;1. Solution of equation and curve fitting;1.24;1.24. Finding the solution of equation by drawing graphs;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);441;1. Solution of equation and curve fitting;1.25;1.25. Finding the solution of equation by drawing graphs;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);441;1. Solution of equation and curve fitting;1.3;1.3. finding the roots of equation containing one variable;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);441;1. Solution of equation and curve fitting;1.6;1.6. finding the roots of equation containing one variable;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);441;1. Solution of equation and curve fitting;1.7;1.7. finding the roots of equation containing one variable;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.1;2.1. Calculating Determinant;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.16;2.16. product of two matrices;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.17;2.17. Product of two matrices;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.18;2.18. Product and inverse of matrices;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.19;2.19. Solving equation of matrices;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.2;2.2. Calculating Determinant;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.20;2.20. Nth power of a given matrix;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.23;2.23. Inverse of matrix;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.24.1;2.24.1. Rank of a matrix;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.24.2;2.24.2. Rank of a matrix;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.25;2.25. Inverse of matrix;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.26;2.26. eigen values vectors rank of matrix;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.28;2.28. Inverse of a matrix;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.3;2.3. Calculating Determinant;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.31;2.31. Solving equation using matrices;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.32;2.32. Solving equation using matrices;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.34.1;2.34.1. predicting nature of equation using rank of matrix;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.34.2;2.34.2. predicting nature of equation using rank of matrix;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.38;2.38. Inverse of a matrix;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.39;2.39. Transpose and product of matrices;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.4;2.4. Calculating Determinant;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.42;2.42. eigen values and vectors of given matrix;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.43;2.43. eigen values and vectors of given matrix;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.44;2.44. eigen values and vectors of given matrix;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.45;2.45. eigen values and characteristic equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.46;2.46. eigen values and characteristic equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.47;2.47. eigen values and characteristic equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.48;2.48. eigen values and vectors of given matrix;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.49;2.49. eigen values and vectors of given matrix;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.50;2.50. eigen values and vectors of given matrix;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.51;2.51. eigen values and vectors of given matrix;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.52;2.52. Hermitian matrix;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.53;2.53. tranpose and inverse of complex matrix;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;2.54;2.54. Unitary matrix;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);444;2. Determinants and Matrices;5.8;5.8. Partial derivative of given function;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/149/CH5/EX5.8/: PATH DOES NOT EXIST -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.10;4.10. proving the given differential equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.11;4.11. verify roles theorem;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.16;4.16. expansion using maclaurins series;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.17;4.17. expanding function as fourier series of sine term;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.18;4.18. expansion using maclaurins series;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.19;4.19. expansion using maclaurins series;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.20;4.20. expansion using taylors series;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.21;4.21. taylor series;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.22;4.22. evaluating limit;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.32;4.32. tangent to curve;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.34;4.34. finding equation of normal;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.35;4.35. finding angle of intersection of curve;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.37;4.37. prove given tangent statement;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.39;4.39. finding angle of intersection of curve;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.4.1;4.4.1. finding nth derivative;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.41;4.41. finding pedal equation of parabola;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.43;4.43. finding radius of curvature of cycloid;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.46;4.46. radius of curvature of cardoid;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.47;4.47. cordinates of centre of curvature;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.48;4.48. proof statement cycloid;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.5;4.5. finding nth derivative;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.52;4.52. maxima and minima;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.6;4.6. finding nth derivative;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.61;4.61. finding the asymptotes of curve;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.7;4.7. finding nth derivative;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.8;4.8. proving the given differential equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);449;4. Differentiation and Applications;4.9;4.9. proving the given differential equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);451;5. Partial Differentiation And Its Applications;5.14;5.14. Partial derivative of given function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);451;5. Partial Differentiation And Its Applications;5.25.1;5.25.1. Partial derivative of given function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);451;5. Partial Differentiation And Its Applications;5.25.2;5.25.2. Partial derivative of given function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);451;5. Partial Differentiation And Its Applications;5.25.3;5.25.3. Partial derivative of given function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);451;5. Partial Differentiation And Its Applications;5.26;5.26. Partial derivative of given function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);451;5. Partial Differentiation And Its Applications;5.30;5.30. Partial derivative of given function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);451;5. Partial Differentiation And Its Applications;5.5;5.5. Partial derivative of given function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;4.2.3;4.2.3. definite integral;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/149/CH4/EX4.2.3/: PATH DOES NOT EXIST -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;4.4.2;4.4.2. definite integral;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/149/CH4/EX4.4.2/: PATH DOES NOT EXIST -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;6.1.1;6.1.1. indefinite integral;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;6.1.2;6.1.2. indefinite integral;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;6.10;6.10. definite integral;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;6.12;6.12. Definite Integration of a function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;6.13;6.13. sum of infinite series;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;6.14;6.14. finding the limit of the function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;6.15;6.15. Definite Integration of a function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;6.16;6.16. Definite Integration of a function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;6.2.1;6.2.1. definite integral;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;6.2.2;6.2.2. Definite Integration of a function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;6.2.3;6.2.3. definite integral;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;6.24;6.24. Calculating the area under two curves;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;6.4.1;6.4.1. definite integral;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;6.5;6.5. definite integral;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;6.6.1;6.6.1. reducing indefinite integral to simpler form;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;6.7.1;6.7.1. Indefinite Integration of a function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;6.8;6.8. Getting the manual input of a variable and integration;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;6.9.1;6.9.1. Definite Integration of a function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);453;6. Integration and its Applications;6.9.2;6.9.2. Definite Integration of a function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);458;9. Infinite Series;9.1;9.1. to find the limit at infinity;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);458;9. Infinite Series;9.1.3;9.1.3. to find the limit at infinity;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);458;9. Infinite Series;9.10.1;9.10.1. to find the limit at infinity;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);458;9. Infinite Series;9.10.2;9.10.2. to find the limit at infinity;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);458;9. Infinite Series;9.11.1;9.11.1. to find the limit at infinity;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);458;9. Infinite Series;9.11.2;9.11.2. to find the limit at infinity;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);458;9. Infinite Series;9.2.1;9.2.1. to find the sum of series upto infinity;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);458;9. Infinite Series;9.2.2;9.2.2. to check for the type of series;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);458;9. Infinite Series;9.5.1;9.5.1. to check the type of infinite series;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);458;9. Infinite Series;9.5.2;9.5.2. to check the type of infinite series;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);458;9. Infinite Series;9.7.1;9.7.1. to check the type of infinite series;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);458;9. Infinite Series;9.7.3;9.7.3. to check the type of infinite series;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);458;9. Infinite Series;9.8.1;9.8.1. to find the sum of series upto infinity;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);458;9. Infinite Series;9.8.2;9.8.2. to find the limit at infinity;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);443;10. Fourier Series;10.1;10.1. finding fourier series of given function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);443;10. Fourier Series;10.10;10.10. finding half range cosine series of given function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);443;10. Fourier Series;10.11;10.11. expanding function as fourier series of sine term;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);443;10. Fourier Series;10.12;10.12. finding fourier series of given function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);443;10. Fourier Series;10.13;10.13. finding complex form of fourier series;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);443;10. Fourier Series;10.14;10.14. practical harmonic analysis;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);443;10. Fourier Series;10.15;10.15. practical harmonic analysis;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);443;10. Fourier Series;10.16;10.16. practical harmonic analysis;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);443;10. Fourier Series;10.17;10.17. practical harmonic analysis;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);443;10. Fourier Series;10.2;10.2. finding fourier series of given function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);443;10. Fourier Series;10.3;10.3. finding fourier series of given function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);443;10. Fourier Series;10.4;10.4. finding fourier series of given function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);443;10. Fourier Series;10.5;10.5. finding fourier series of given function in interval minus pi to pi;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);443;10. Fourier Series;10.6;10.6. finding fourier series of given function in interval minus l to l;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);443;10. Fourier Series;10.7;10.7. finding fourier series of given function in interval minus pi to pi;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);443;10. Fourier Series;10.8;10.8. finding fourier series of given function in interval minus pi to pi;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);443;10. Fourier Series;10.9;10.9. finding half range sine series of given function;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);455;13. Linear Differential Equations;13.1;13.1. solvinf linear differential equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);455;13. Linear Differential Equations;13.10;13.10. finding particular integral;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);455;13. Linear Differential Equations;13.11;13.11. solving the given linear equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);455;13. Linear Differential Equations;13.12;13.12. solving the given linear equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);455;13. Linear Differential Equations;13.13;13.13. solving the given linear equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);455;13. Linear Differential Equations;13.14;13.14. solving the given linear equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);455;13. Linear Differential Equations;13.2;13.2. solving linear differential equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);455;13. Linear Differential Equations;13.3;13.3. solving linear differential equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);455;13. Linear Differential Equations;13.4;13.4. solving linear differential equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);455;13. Linear Differential Equations;13.5;13.5. finding particular integral;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);455;13. Linear Differential Equations;13.6;13.6. finding particular integral;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);455;13. Linear Differential Equations;13.7;13.7. finding particular integral;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);455;13. Linear Differential Equations;13.8;13.8. finding particular integral;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);455;13. Linear Differential Equations;13.9;13.9. finding particular integral;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.1.1;21.1.1. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.1.2;21.1.2. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.1.3;21.1.3. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.10.1;21.10.1. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.10.3;21.10.3. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.11.1;21.11.1. finding inverse laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.11.2;21.11.2. finding inverse laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.12.1;21.12.1. finding inverse laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.12.3;21.12.3. finding inverse laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.13.1;21.13.1. finding inverse laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.13.2;21.13.2. finding inverse laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.14.1;21.14.1. finding inverse laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.14.2;21.14.2. finding inverse laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.15.1;21.15.1. finding inverse laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.15.2;21.15.2. finding inverse laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.16.1;21.16.1. finding inverse laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.16.2;21.16.2. finding inverse laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.16.3;21.16.3. finding inverse laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.17.1;21.17.1. finding inverse laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.17.2;21.17.2. finding inverse laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.19.1;21.19.1. finding inverse laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.19.2;21.19.2. finding inverse laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.2.1;21.2.1. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.2.2;21.2.2. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.2.3;21.2.3. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.28.1;21.28.1. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.28.2;21.28.2. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.34;21.34. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.4.1;21.4.1. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.4.2;21.4.2. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.5;21.5. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.7;21.7. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.8.1;21.8.1. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.8.2;21.8.2. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.8.3;21.8.3. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.8.4;21.8.4. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.9.1;21.9.1. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);442;21. Laplace Transform;21.9.2;21.9.2. finding laplace transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);445;22. Integral Transform;22.1;22.1. finding fourier sine integral;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);445;22. Integral Transform;22.2;22.2. finding fourier transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);445;22. Integral Transform;22.3;22.3. finding fourier transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);445;22. Integral Transform;22.4;22.4. finding fourier sine transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);445;22. Integral Transform;22.5;22.5. finding fourier cosine transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);445;22. Integral Transform;22.6;22.6. finding fourier sine transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);454;23. Statistical Methods;23.1;23.1. Calculating cumulative frequencies of given using iterations on matrices;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);454;23. Statistical Methods;23.10;23.10. Calculating mean and standard deviation of different statistical data when put together;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);454;23. Statistical Methods;23.12;23.12. Calculating median and quartiles of given statistical data performing iterations on matrices;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);454;23. Statistical Methods;23.13;23.13. Calculating coefficient of correlation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);454;23. Statistical Methods;23.2;23.2. Calculating mean of of statistical data performing iterations matrices;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);454;23. Statistical Methods;23.3;23.3. Analysis of statistical data performing iterations on matrices;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);454;23. Statistical Methods;23.4;23.4. Analysis of statistical data;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);454;23. Statistical Methods;23.5;23.5. Finding the missing frequency of given statistical data using given constants;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);454;23. Statistical Methods;23.6;23.6. Calculating average speed;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);454;23. Statistical Methods;23.7;23.7. Calculating mean and standard deviation performing iterations on matrices;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);454;23. Statistical Methods;23.8;23.8. Calculating mean and standard deviation performing iterations on matrices;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);454;23. Statistical Methods;23.9;23.9. Analysis of statistical data performing iterations on matrices;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);450;24. Numerical Methods;24.1;24.1. finding the roots of equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);450;24. Numerical Methods;24.10;24.10. solving equations by guass elimination method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);450;24. Numerical Methods;24.12;24.12. solving equations by guass elimination method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);450;24. Numerical Methods;24.13;24.13. solving equations by guass elimination method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);450;24. Numerical Methods;24.3;24.3. finding the roots of equation by the method of false statement;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);450;24. Numerical Methods;24.4;24.4. finding rea roots of equation by regula falsi method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);450;24. Numerical Methods;24.5;24.5. real roots of equation by newtons method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);450;24. Numerical Methods;24.6;24.6. real roots of equation by newtons method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);450;24. Numerical Methods;24.7;24.7. evaluating square root by newtons iterative method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);452;26. Difference Equations and Z Transform;26.10;26.10. solving difference equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);452;26. Difference Equations and Z Transform;26.11;26.11. solving difference equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);452;26. Difference Equations and Z Transform;26.12;26.12. solving simultanious difference equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);452;26. Difference Equations and Z Transform;26.15.2;26.15.2. Z transform;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);452;26. Difference Equations and Z Transform;26.16;26.16. evaluating u2 and u3;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);452;26. Difference Equations and Z Transform;26.2;26.2. finding difference equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);452;26. Difference Equations and Z Transform;26.3;26.3. solving difference equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);452;26. Difference Equations and Z Transform;26.4;26.4. solving difference equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);452;26. Difference Equations and Z Transform;26.6;26.6. firming fibonacci difference equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);452;26. Difference Equations and Z Transform;26.7;26.7. solving difference equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);452;26. Difference Equations and Z Transform;26.8;26.8. solving difference equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);446;27. Numerical Solution of Ordinary Differential Equations;27.1;27.1. solving ODE with picards method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);446;27. Numerical Solution of Ordinary Differential Equations;27.10;27.10. solving ODE using runge method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);446;27. Numerical Solution of Ordinary Differential Equations;27.11;27.11. solving ODE using runge kutta method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);446;27. Numerical Solution of Ordinary Differential Equations;27.12;27.12. solving ODE using runge kutta method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);446;27. Numerical Solution of Ordinary Differential Equations;27.13;27.13. solving ODE using runge kutta method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);446;27. Numerical Solution of Ordinary Differential Equations;27.14;27.14. solving ODE using milnes method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);446;27. Numerical Solution of Ordinary Differential Equations;27.15;27.15. solving ODE using runge kutta and milnes method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);446;27. Numerical Solution of Ordinary Differential Equations;27.16;27.16. solving ODE using adamsbashforth method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);446;27. Numerical Solution of Ordinary Differential Equations;27.17;27.17. solving ODE using runge kutta and adams method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);446;27. Numerical Solution of Ordinary Differential Equations;27.18;27.18. solving simultanious ODE using picards method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);446;27. Numerical Solution of Ordinary Differential Equations;27.19;27.19. solving ssecond ODE using runge kutta method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);446;27. Numerical Solution of Ordinary Differential Equations;27.2;27.2. solving ODE with picards method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);446;27. Numerical Solution of Ordinary Differential Equations;27.20;27.20. solving ODE using milnes method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);446;27. Numerical Solution of Ordinary Differential Equations;27.5;27.5. solving ODE using Eulers method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);446;27. Numerical Solution of Ordinary Differential Equations;27.6;27.6. solving ODE using Eulers method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);446;27. Numerical Solution of Ordinary Differential Equations;27.7;27.7. solving ODE using Modified Eulers method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);446;27. Numerical Solution of Ordinary Differential Equations;27.8;27.8. solving ODE using Modified Eulers method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);446;27. Numerical Solution of Ordinary Differential Equations;27.9;27.9. solving ODE using Modified Eulers method;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);447;28. Numerical Solution of Partial Differential Equations;28.1;28.1. classification of partial differential equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);447;28. Numerical Solution of Partial Differential Equations;28.2;28.2. solving elliptical equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);447;28. Numerical Solution of Partial Differential Equations;28.3;28.3. evaluating function satisfying laplace equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);447;28. Numerical Solution of Partial Differential Equations;28.4;28.4. solution of poissons equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);447;28. Numerical Solution of Partial Differential Equations;28.5;28.5. solving parabolic equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);447;28. Numerical Solution of Partial Differential Equations;28.6;28.6. solving heat equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);447;28. Numerical Solution of Partial Differential Equations;28.7;28.7. solving wave equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);447;28. Numerical Solution of Partial Differential Equations;28.8;28.8. solving wave equation;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.1;34.1. Calculating probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.13;34.13. probability of drawing an ace or spade from pack of 52 cards;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.14.1;34.14.1. Finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.15.1;34.15.1. Finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.15.2;34.15.2. Finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.15.3;34.15.3. Finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.16;34.16. Finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.17;34.17. Finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.18;34.18. Finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.19.1;34.19.1. Finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.19.2;34.19.2. Finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.19.3;34.19.3. Finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.2.1;34.2.1. Calculating the number of permutations;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.2.2;34.2.2. Number of permutations;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.20;34.20. Finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.22;34.22. Finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.23;34.23. Finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.25;34.25. finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.26;34.26. finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.27;34.27. finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.28;34.28. finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.29;34.29. finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.3.1;34.3.1. Calculating the number of committees;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.3.2;34.3.2. Finding the number of committees;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.3.3;34.3.3. Finding the number of committees;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.30;34.30. finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.31;34.31. finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.33;34.33. finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.34;34.34. finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.35;34.35. finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.38;34.38. finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.39;34.39. finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.4.1;34.4.1. Finding the probability of getting a four in a single throw of a die;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.4.2;34.4.2. Finding the probability of getting an even number in a single throw of a die;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.40;34.40. finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.5;34.5. Finding the probability of 53 sundays in a leap year;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.6;34.6. probability of getting a number divisible by 4 under given conditions;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.7;34.7. Finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.8;34.8. Finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.9.1;34.9.1. Finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.9.2;34.9.2. Finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);456;34. Probability and Distributions;34.9.3;34.9.3. Finding the probability;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);457;35. Sampling and Inference;34.15;34.15. Standard deviation of a sample;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/149/CH34/EX34.15/: PATH DOES NOT EXIST -149;Higher Engineering Mathematics(B. S. Grewal);457;35. Sampling and Inference;35.1;35.1. calculating the SD of given sample;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);457;35. Sampling and Inference;35.10;35.10. calculating SE of difference of mean hieghts;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);457;35. Sampling and Inference;35.12;35.12. Mean and standard deviation of a given sample;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);457;35. Sampling and Inference;35.13;35.13. Mean and standard deviation of a given sample;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);457;35. Sampling and Inference;35.2;35.2. Calculating SD of sample;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);457;35. Sampling and Inference;35.3;35.3. Analysis of sample;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);457;35. Sampling and Inference;35.4;35.4. Analysis of sample;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);457;35. Sampling and Inference;35.5;35.5. Checking whether real difference will be hidden;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);457;35. Sampling and Inference;35.6;35.6. Checking whether given sample can be regarded as a random sample;correct;runtime; -149;Higher Engineering Mathematics(B. S. Grewal);457;35. Sampling and Inference;35.9;35.9. Checking whethet samples can be regarded as taken from the same population;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);448;1. Introduction;1.1;1.1. Force Work and Power;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);448;1. Introduction;1.2;1.2. Electric Charge and Current;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);448;1. Introduction;1.3;1.3. Electric Potential;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);448;1. Introduction;1.4;1.4. Energy and Electrical Power;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);469;2. Circuit Concepts;2.1;2.1. Resistance;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);469;2. Circuit Concepts;2.2;2.2. Inductance;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);469;2. Circuit Concepts;2.3;2.3. Capacitance;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);469;2. Circuit Concepts;2.4;2.4. Nonlinear Resistors;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);469;2. Circuit Concepts;2.5;2.5. Nonlinear Resistors;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);470;3. Circuit Laws;3.3;3.3. Circuit elements in series;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);470;3. Circuit Laws;3.4;3.4. Circuit elements in series;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);470;3. Circuit Laws;3.5;3.5. Circuit elements in parallel;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);470;3. Circuit Laws;3.6;3.6. Circuit elements in parallel;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);470;3. Circuit Laws;3.7;3.7. Voltage division;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);470;3. Circuit Laws;3.8;3.8. Current division;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);471;5. Analysis Methods;5.1;5.1. The branch current method;error;file_not_found;/var/www/scilab_in/uploads-backup/154/CH5/EX5.1/ : NO SCILAB FILE INSIDE -154;Electric Circuits(M. Navhi And J. A. Edminister);471;5. Analysis Methods;5.6;5.6. Network reduction;error;file_not_found;/var/www/scilab_in/uploads-backup/154/CH5/EX5.6/ : NO SCILAB FILE INSIDE -154;Electric Circuits(M. Navhi And J. A. Edminister);471;5. Analysis Methods;5.7;5.7. Superposition;error;file_not_found;/var/www/scilab_in/uploads-backup/154/CH5/EX5.7/ : NO SCILAB FILE INSIDE -154;Electric Circuits(M. Navhi And J. A. Edminister);471;5. Analysis Methods;5.8;5.8. Thevenin and Norton theorem;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);472;6. Amplifiers and Operational Amplifiers;6.10;6.10. Summing circuit;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);472;6. Amplifiers and Operational Amplifiers;6.11;6.11. Noninverting circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/154/CH6/EX6.11/ : NO SCILAB FILE INSIDE -154;Electric Circuits(M. Navhi And J. A. Edminister);472;6. Amplifiers and Operational Amplifiers;6.15;6.15. Circuits containing several Op amps;error;file_not_found;/var/www/scilab_in/uploads-backup/154/CH6/EX6.15/ : NO SCILAB FILE INSIDE -154;Electric Circuits(M. Navhi And J. A. Edminister);472;6. Amplifiers and Operational Amplifiers;6.8;6.8. Operational amplifiers;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);472;6. Amplifiers and Operational Amplifiers;6.9;6.9. Analysis of circuits containing ideal op amps;error;file_not_found;/var/www/scilab_in/uploads-backup/154/CH6/EX6.9/ : NO SCILAB FILE INSIDE -154;Electric Circuits(M. Navhi And J. A. Edminister);488;7. Waveforms and Signals;7.1;7.1. Sinusoidal Functions;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);488;7. Waveforms and Signals;7.13;7.13. The Average and Effective RMS values;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);488;7. Waveforms and Signals;7.17;7.17. The Unit Impulse Function;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);488;7. Waveforms and Signals;7.2;7.2. Sinusoidal Functions;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);488;7. Waveforms and Signals;7.22;7.22. The Exponential Function;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);488;7. Waveforms and Signals;7.23;7.23. The Exponential Function;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);488;7. Waveforms and Signals;7.25;7.25. Random Signals;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);488;7. Waveforms and Signals;7.26;7.26. Random Signals;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);488;7. Waveforms and Signals;7.3;7.3. Time Shift and Phase Shift;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);488;7. Waveforms and Signals;7.5;7.5. Combinations of Periodic Functions;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);489;8. First order Circuits;8.1;8.1. Capacitor Discharge in a Resistor;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);489;8. First order Circuits;8.10;8.10. Transitions at Switching Time;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);489;8. First order Circuits;8.2;8.2. Capacitor Discharge in a Resistor;error;file_not_found;/var/www/scilab_in/uploads-backup/154/CH8/EX8.2/ : NO SCILAB FILE INSIDE -154;Electric Circuits(M. Navhi And J. A. Edminister);489;8. First order Circuits;8.3;8.3. Establishing a DC Voltage across a Capacitor;error;file_not_found;/var/www/scilab_in/uploads-backup/154/CH8/EX8.3/ : NO SCILAB FILE INSIDE -154;Electric Circuits(M. Navhi And J. A. Edminister);489;8. First order Circuits;8.4;8.4. The Source free RL Circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/154/CH8/EX8.4/ : NO SCILAB FILE INSIDE -154;Electric Circuits(M. Navhi And J. A. Edminister);489;8. First order Circuits;8.5;8.5. Complex first order RL and RC Circuits;error;file_not_found;/var/www/scilab_in/uploads-backup/154/CH8/EX8.5/ : NO SCILAB FILE INSIDE -154;Electric Circuits(M. Navhi And J. A. Edminister);489;8. First order Circuits;8.6;8.6. Complex first order RL and RC Circuits;error;file_not_found;/var/www/scilab_in/uploads-backup/154/CH8/EX8.6/ : NO SCILAB FILE INSIDE -154;Electric Circuits(M. Navhi And J. A. Edminister);489;8. First order Circuits;8.7;8.7. DC Steady state in Inductors and Capacitors;error;file_not_found;/var/www/scilab_in/uploads-backup/154/CH8/EX8.7/ : NO SCILAB FILE INSIDE -154;Electric Circuits(M. Navhi And J. A. Edminister);489;8. First order Circuits;8.8;8.8. DC Steady state in Inductors and Capacitors;error;file_not_found;/var/www/scilab_in/uploads-backup/154/CH8/EX8.8/ : NO SCILAB FILE INSIDE -154;Electric Circuits(M. Navhi And J. A. Edminister);489;8. First order Circuits;8.9;8.9. Transitions at Switching Time;error;file_not_found;/var/www/scilab_in/uploads-backup/154/CH8/EX8.9/ : NO SCILAB FILE INSIDE -154;Electric Circuits(M. Navhi And J. A. Edminister);490;9. Higher order circuits and Complex frequency;9.1;9.1. Series RLC Circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/154/CH9/EX9.1/ : NO SCILAB FILE INSIDE -154;Electric Circuits(M. Navhi And J. A. Edminister);490;9. Higher order circuits and Complex frequency;9.11;9.11. The Natural Response;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);490;9. Higher order circuits and Complex frequency;9.2;9.2. Series RLC Circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/154/CH9/EX9.2/ : NO SCILAB FILE INSIDE -154;Electric Circuits(M. Navhi And J. A. Edminister);490;9. Higher order circuits and Complex frequency;9.5;9.5. Parallel RLC circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/154/CH9/EX9.5/ : NO SCILAB FILE INSIDE -154;Electric Circuits(M. Navhi And J. A. Edminister);490;9. Higher order circuits and Complex frequency;9.6;9.6. Generalized Impedance RLC in s domain;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);490;9. Higher order circuits and Complex frequency;9.7;9.7. Generalized Impedance RLC in s domain;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);490;9. Higher order circuits and Complex frequency;9.8;9.8. Network function and Pole zero plots;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);490;9. Higher order circuits and Complex frequency;9.9;9.9. The Forced Response;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);491;10. Sinusoidal Steady state Circuit Analysis;10.4;10.4. Phasors;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);491;10. Sinusoidal Steady state Circuit Analysis;10.5;10.5. Impedance and Admittance;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);491;10. Sinusoidal Steady state Circuit Analysis;10.7;10.7. Superposition of AC sources;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);492;11. AC Power;11.1;11.1. Power in time domain;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);492;11. AC Power;11.10;11.10. Complex power Apparent power and Power triangle;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);492;11. AC Power;11.11;11.11. Complex power Apparent power and Power triangle;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);492;11. AC Power;11.12;11.12. Parallel connected Networks;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);492;11. AC Power;11.13;11.13. Power factor improvement;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);492;11. AC Power;11.14;11.14. Power factor improvement;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);492;11. AC Power;11.16;11.16. Maximum power transfer;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);492;11. AC Power;11.17;11.17. Superposition of average powers;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);492;11. AC Power;11.2;11.2. Power in time domain;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);492;11. AC Power;11.4;11.4. Average or Real Power;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);492;11. AC Power;11.5;11.5. Reactive Power;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);499;12. Polyphase Circuits;12.2;12.2. Balanced Delta connected load;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);499;12. Polyphase Circuits;12.5;12.5. Unbalanced Delta connected load;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);499;12. Polyphase Circuits;12.6;12.6. Unbalanced Wye connected load;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);493;13. Frequency Response Filters and Resonance;13.2;13.2. High pass and Low pass networks;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);493;13. Frequency Response Filters and Resonance;13.7;13.7. Bandpass filters and Resonance;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);493;13. Frequency Response Filters and Resonance;13.8;13.8. Bandpass filters and Resonance;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);495;14. Two Port Networks;14.1;14.1. Z parameters;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);495;14. Two Port Networks;14.10;14.10. Choice of parameter type;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);495;14. Two Port Networks;14.2;14.2. Reciprocal and non reciprocal networks;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);495;14. Two Port Networks;14.4;14.4. Y parameters;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);495;14. Two Port Networks;14.6;14.6. Conversion between Z and Y parameters;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);495;14. Two Port Networks;14.7;14.7. H parameters;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);495;14. Two Port Networks;14.8;14.8. g parameters;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);496;15. Mutual Inductance and Transformers;15.4;15.4. Energy in a pair of coupled coils;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);496;15. Mutual Inductance and Transformers;15.7;15.7. Ampere Turn Dot rule;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);496;15. Mutual Inductance and Transformers;15.8;15.8. Reflected Impedance;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);496;15. Mutual Inductance and Transformers;15.9;15.9. Reflected Impedance;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);497;17. The Laplace Transform Method;17.2;17.2. Convergence of the integral;correct;runtime; -154;Electric Circuits(M. Navhi And J. A. Edminister);497;17. The Laplace Transform Method;17.4;17.4. Partial Fractions Expansions;correct;runtime; -162;Signals And Systems(S. Ghosh);588;1. Fundamentals of Signals and Systems;1.1;1.1. Time shifting and scaling;correct;runtime; -162;Signals And Systems(S. Ghosh);588;1. Fundamentals of Signals and Systems;1.11.b;1.11.b. Check for time invariant systems;correct;runtime; -162;Signals And Systems(S. Ghosh);588;1. Fundamentals of Signals and Systems;1.12.b;1.12.b. Check for linear systems;correct;runtime; -162;Signals And Systems(S. Ghosh);588;1. Fundamentals of Signals and Systems;1.15.a;1.15.a. Check for periodicity;correct;runtime; -162;Signals And Systems(S. Ghosh);588;1. Fundamentals of Signals and Systems;1.15.b;1.15.b. Check for periodicity;correct;runtime; -162;Signals And Systems(S. Ghosh);588;1. Fundamentals of Signals and Systems;1.15.c;1.15.c. Check for periodicity;correct;runtime; -162;Signals And Systems(S. Ghosh);588;1. Fundamentals of Signals and Systems;1.15.d;1.15.d. Check for periodicity;correct;runtime; -162;Signals And Systems(S. Ghosh);588;1. Fundamentals of Signals and Systems;1.15.e;1.15.e. Check for periodicity;correct;runtime; -162;Signals And Systems(S. Ghosh);588;1. Fundamentals of Signals and Systems;1.19.a;1.19.a. Check for periodicity;correct;runtime; -162;Signals And Systems(S. Ghosh);588;1. Fundamentals of Signals and Systems;1.19.b;1.19.b. Check for periodicity;correct;runtime; -162;Signals And Systems(S. Ghosh);588;1. Fundamentals of Signals and Systems;1.19.c;1.19.c. Check for periodicity;correct;runtime; -162;Signals And Systems(S. Ghosh);588;1. Fundamentals of Signals and Systems;1.3.a;1.3.a. Check for energy or power signal;correct;runtime; -162;Signals And Systems(S. Ghosh);588;1. Fundamentals of Signals and Systems;1.3.b;1.3.b. Check for energy or power signal;correct;runtime; -162;Signals And Systems(S. Ghosh);588;1. Fundamentals of Signals and Systems;1.4;1.4. Time shifting and scaling;correct;runtime; -162;Signals And Systems(S. Ghosh);588;1. Fundamentals of Signals and Systems;1.5;1.5. Sum and multiplication of two signal;correct;runtime; -162;Signals And Systems(S. Ghosh);588;1. Fundamentals of Signals and Systems;1.6;1.6. Ploting of signal;correct;runtime; -162;Signals And Systems(S. Ghosh);588;1. Fundamentals of Signals and Systems;1.8.a;1.8.a. Check for periodicity;correct;runtime; -162;Signals And Systems(S. Ghosh);588;1. Fundamentals of Signals and Systems;1.9.a;1.9.a. Find energy of signal;correct;runtime; -162;Signals And Systems(S. Ghosh);588;1. Fundamentals of Signals and Systems;1.9.b;1.9.b. Find power of signal;correct;runtime; -162;Signals And Systems(S. Ghosh);588;1. Fundamentals of Signals and Systems;1.9.c;1.9.c. Find power of signal;correct;runtime; -162;Signals And Systems(S. Ghosh);883;2. Fourier Series;2.2;2.2. Find trigonometric fourier series;correct;runtime; -162;Signals And Systems(S. Ghosh);882;3. Fourier Transform;3.4;3.4. Find system function;correct;runtime; -162;Signals And Systems(S. Ghosh);882;3. Fourier Transform;3.5;3.5. Find impulse responce;correct;runtime; -162;Signals And Systems(S. Ghosh);598;4. Laplace Transform;4.11;4.11. Inverse laplace transform;correct;runtime; -162;Signals And Systems(S. Ghosh);598;4. Laplace Transform;4.14;4.14. Inverse laplace transform;correct;runtime; -162;Signals And Systems(S. Ghosh);598;4. Laplace Transform;4.15;4.15. Inverse laplace transform;correct;runtime; -162;Signals And Systems(S. Ghosh);598;4. Laplace Transform;4.16;4.16. Inverse laplace transform;correct;runtime; -162;Signals And Systems(S. Ghosh);598;4. Laplace Transform;4.17;4.17. Inverse laplace transform;correct;runtime; -162;Signals And Systems(S. Ghosh);598;4. Laplace Transform;4.18;4.18. Inverse laplace transform;correct;runtime; -162;Signals And Systems(S. Ghosh);598;4. Laplace Transform;4.19;4.19. Inverse laplace transform;correct;runtime; -162;Signals And Systems(S. Ghosh);598;4. Laplace Transform;4.28;4.28. Determine the input for given output;correct;runtime; -162;Signals And Systems(S. Ghosh);598;4. Laplace Transform;4.29;4.29. Find unit step responce of system;correct;runtime; -162;Signals And Systems(S. Ghosh);598;4. Laplace Transform;4.3;4.3. Laplace transform of function;correct;runtime; -162;Signals And Systems(S. Ghosh);598;4. Laplace Transform;4.4;4.4. Laplace transform of function;correct;runtime; -162;Signals And Systems(S. Ghosh);598;4. Laplace Transform;4.8;4.8. Laplace transform of function;correct;runtime; -162;Signals And Systems(S. Ghosh);601;5. System Modelling;5.2;5.2. Find transfer function;correct;runtime; -162;Signals And Systems(S. Ghosh);601;5. System Modelling;5.3;5.3. Find responce of system;correct;runtime; -162;Signals And Systems(S. Ghosh);593;6. Z Transform;6.1.a;6.1.a. z transform of sequence;correct;runtime; -162;Signals And Systems(S. Ghosh);593;6. Z Transform;6.1.b;6.1.b. z transform of sequence;correct;runtime; -162;Signals And Systems(S. Ghosh);593;6. Z Transform;6.12;6.12. z transform of sequence;correct;runtime; -162;Signals And Systems(S. Ghosh);593;6. Z Transform;6.14.a;6.14.a. z transform;correct;runtime; -162;Signals And Systems(S. Ghosh);593;6. Z Transform;6.14.b;6.14.b. z transform;correct;runtime; -162;Signals And Systems(S. Ghosh);593;6. Z Transform;6.14.c;6.14.c. z transform;correct;runtime; -162;Signals And Systems(S. Ghosh);593;6. Z Transform;6.2;6.2. Convolution of two sequences;correct;runtime; -162;Signals And Systems(S. Ghosh);593;6. Z Transform;6.5;6.5. z transform;correct;runtime; -162;Signals And Systems(S. Ghosh);593;6. Z Transform;6.6.a;6.6.a. z transform;correct;runtime; -162;Signals And Systems(S. Ghosh);593;6. Z Transform;6.6.b;6.6.b. z transform;correct;runtime; -162;Signals And Systems(S. Ghosh);587;7. Convolution;7.2;7.2. Convolution of two periodic signals;correct;runtime; -162;Signals And Systems(S. Ghosh);587;7. Convolution;7.3;7.3. Linear and circular convolution;correct;runtime; -162;Signals And Systems(S. Ghosh);587;7. Convolution;7.4;7.4. Convolution of two sequences;correct;runtime; -162;Signals And Systems(S. Ghosh);587;7. Convolution;7.5;7.5. Convolution of two sequences;correct;runtime; -162;Signals And Systems(S. Ghosh);587;7. Convolution;7.6;7.6. Convolution of two sequences;correct;runtime; -162;Signals And Systems(S. Ghosh);635;8. Stability;8.3;8.3. Check the stability;correct;runtime; -162;Signals And Systems(S. Ghosh);635;8. Stability;8.4;8.4. Check the stability;correct;runtime; -162;Signals And Systems(S. Ghosh);635;8. Stability;8.5.a;8.5.a. Check the stability;correct;runtime; -162;Signals And Systems(S. Ghosh);635;8. Stability;8.5.b;8.5.b. Check the stability;correct;runtime; -162;Signals And Systems(S. Ghosh);635;8. Stability;8.6;8.6. Check the stability;correct;runtime; -162;Signals And Systems(S. Ghosh);635;8. Stability;8.7;8.7. Check the stability;correct;runtime; -162;Signals And Systems(S. Ghosh);635;8. Stability;8.9;8.9. Check the stability;correct;runtime; -162;Signals And Systems(S. Ghosh);586;11. Discrete Fourier Transform and Fast Fourier Transform;11.1;11.1. DFT of sequence;correct;runtime; -162;Signals And Systems(S. Ghosh);586;11. Discrete Fourier Transform and Fast Fourier Transform;11.2;11.2. Circular convolution;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);993;1. Qualities of Measurements;1.1.a;1.1.a. Error and Accuracy Calculation;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);993;1. Qualities of Measurements;1.1.b;1.1.b. Error and Accuracy Calculation;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);993;1. Qualities of Measurements;1.2;1.2. Precision calculation;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);993;1. Qualities of Measurements;1.3.a;1.3.a. Error calculation;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);993;1. Qualities of Measurements;1.3.b;1.3.b. Error calculation;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);993;1. Qualities of Measurements;1.4;1.4. Mean and Deviation Calculation;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);993;1. Qualities of Measurements;1.5;1.5. Average Deviation;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);993;1. Qualities of Measurements;1.6;1.6. Standard Deviation;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);993;1. Qualities of Measurements;1.7;1.7. Limiting Error;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);993;1. Qualities of Measurements;1.8.a;1.8.a. Limiting Error;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);993;1. Qualities of Measurements;1.8.b;1.8.b. Limiting Error;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);994;2. Indicators and Display Devices;2.1.a;2.1.a. Deflecting Torque;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);994;2. Indicators and Display Devices;2.1.b;2.1.b. Deflecting Torque;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);995;3. Ammeters;3.1.a;3.1.a. Shunt Resistance;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);995;3. Ammeters;3.1.b;3.1.b. Shunt Resistance;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);995;3. Ammeters;3.2;3.2. Shunt Resistance;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);995;3. Ammeters;3.3;3.3. Multirange Ammeter;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);995;3. Ammeters;3.4.a;3.4.a. Aryton Shunt;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);995;3. Ammeters;3.4.b;3.4.b. Shunt Resistance;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.1;4.1. Voltmeter Sensitivity;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.10;4.10. Shunt Resistance and power dissipation;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.11;4.11. Voltmeter Accuracy;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.12;4.12. Voltmeter Accuracy;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.13;4.13. Voltmeter Accuracy;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.14;4.14. Ammeter loading;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.15;4.15. Multiplier Resistance;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.16;4.16. Multiplier Resistance;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.17;4.17. Multiplier Resistance;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.18;4.18. Multiplier Resistance;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.19;4.19. DC and AC Voltage measurement;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.2.a;4.2.a. Multiplier Resistance;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.2.b;4.2.b. Multiplier Resistance;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.20;4.20. Series type Ohmmeter;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.21;4.21. Series type Ohmmeter;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.22;4.22. Ohmmeter Scale marking;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.23;4.23. Error calculation;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.24;4.24. Series type Ohmmeter;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.25;4.25. Shunt type Ohmmeter;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.26;4.26. Multirange Ohmmeter;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.3;4.3. Multiplier Resistance;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.4;4.4. Multiplier Resistance;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.5;4.5. Multirange DC voltmeter;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.6;4.6. Multirange DC voltmeter;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.7;4.7. Multiplier Resistance;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.8;4.8. Multiplier Resistance;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);996;4. Voltmeters and Multimeters;4.9;4.9. Multiplier Resistance;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1001;5. Digital Voltmeters;5.1;5.1. Output of Integrator;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1001;5. Digital Voltmeters;5.2;5.2. Time Interval;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1001;5. Digital Voltmeters;5.3;5.3. Output of Integrator;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1001;5. Digital Voltmeters;5.4;5.4. Time Interval;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1001;5. Digital Voltmeters;5.5;5.5. Resolution of digital display;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1001;5. Digital Voltmeters;5.6;5.6. Resolution of digital display;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1002;7. Oscilloscope;7.1;7.1. Peak to Peak amplitude;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1002;7. Oscilloscope;7.2;7.2. Frequency of Signal;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1003;10. Measuring Instruments;10.1;10.1. Distributed Capacitance and Inductance;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1003;10. Measuring Instruments;10.2;10.2. Distributed Capacitance and Inductance;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1003;10. Measuring Instruments;10.3;10.3. Self Capacitance;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.1;11.1. Wheatstone Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.10.a;11.10.a. Scherings Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.10.b;11.10.b. Scherings Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.10.c;11.10.c. Scherings Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.10.d;11.10.d. Scherings Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.10.e;11.10.e. Scherings Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.10.f;11.10.f. Scherings Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.10.g;11.10.g. Scherings Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.11;11.11. Weins Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.12;11.12. Weins Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.13;11.13. Weins Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.14;11.14. Andersons Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.2;11.2. Wheatstone Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.3;11.3. Wheatstone Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.4;11.4. Kelvins Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.5;11.5. Kelvins Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.6.a;11.6.a. AC Bridges;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.6.b;11.6.b. AC Bridges;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.7;11.7. Inductance Comparison Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.8.a;11.8.a. Maxwells Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.8.b;11.8.b. Maxwells Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.9.a;11.9.a. Hays Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.9.b;11.9.b. Hays Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1004;11. Bridges;11.9.c;11.9.c. Hays Bridge;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1015;12. Recorders;12.1;12.1. Frequency of Signal;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1015;12. Recorders;12.2;12.2. Chart speed;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1016;13. Transducers;13.1;13.1. Displacement Transducer;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1022;14. Signal Conditioning;14.1;14.1. Differentiator;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1022;14. Signal Conditioning;14.2;14.2. Output Voltage of Summer;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1022;14. Signal Conditioning;14.3;14.3. Temperature indication using Thermister;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1022;14. Signal Conditioning;14.4;14.4. Analog Weight Scale;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1017;15. Filters;15.1;15.1. LPF;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1017;15. Filters;15.10;15.10. FLT U2 as 2nd order inv Butterworth LPF;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1017;15. Filters;15.11;15.11. FLT U2 as Notch Filter;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1017;15. Filters;15.2;15.2. Butterworth LPF;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1017;15. Filters;15.3;15.3. 2nd order LPF;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1017;15. Filters;15.4;15.4. 2nd order Butterworth HPF;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1017;15. Filters;15.5;15.5. Wide BPF;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1017;15. Filters;15.6;15.6. Narrow BPF;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1017;15. Filters;15.7;15.7. Wide BRF;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1017;15. Filters;15.8;15.8. Active Notch Filter;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1017;15. Filters;15.9;15.9. All Pass Filter;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1018;16. Measurement Setup;16.1;16.1. Modulation Index;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1019;17. Data Acquisition System;17.1;17.1. Assigned Weights to LSB;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1019;17. Data Acquisition System;17.2;17.2. Assigned Weights to MSB;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1019;17. Data Acquisition System;17.3;17.3. Output Voltage;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1020;20. Measurement of Power;20.1;20.1. RF test power;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1020;20. Measurement of Power;20.2;20.2. Radiated Power;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1020;20. Measurement of Power;20.3;20.3. Standing Wave Ratio;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1021;21. Control Systems;21.1;21.1. Error calculation;correct;runtime; -165;Electronics Instrumentation(H. S. Kalsi);1021;21. Control Systems;21.2;21.2. Error calculation;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);510;1. Introduction and Basic Concept;1.1;1.1. obtaining formulas for from unit considerations;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);510;1. Introduction and Basic Concept;1.10;1.10. Hydrostatic Pressure in a Solar Pond with Variable Density;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);510;1. Introduction and Basic Concept;1.12;1.12. Analyzing a Multifluid Manometer with EES;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);510;1. Introduction and Basic Concept;1.5;1.5. Absolute Pressure of a Vacuum Chamber;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);510;1. Introduction and Basic Concept;1.6;1.6. Measuring Pressure with nanometer;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);510;1. Introduction and Basic Concept;1.7;1.7. Measuring pressure with multifluid manomete;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);510;1. Introduction and Basic Concept;1.8;1.8. Measuring Atmospheric Pressure with barometer;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);510;1. Introduction and Basic Concept;1.9;1.9. Effect of piston weight on Pressure of Cylinder;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);514;2. Energy Transfer and General Energy Analysis;2.1;2.1. General energy analysis;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);514;2. Energy Transfer and General Energy Analysis;2.10;2.10. Cooling of hot fluid in tank;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);514;2. Energy Transfer and General Energy Analysis;2.11;2.11. Acceleration of air by fan;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);514;2. Energy Transfer and General Energy Analysis;2.12;2.12. Heating effect of a fan;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);514;2. Energy Transfer and General Energy Analysis;2.13;2.13. Annual lighting cost of a classroom;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);514;2. Energy Transfer and General Energy Analysis;2.15;2.15. Cost of cooking with electric and gas charges;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);514;2. Energy Transfer and General Energy Analysis;2.16;2.16. Performance of hydraulic turbine generator;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);514;2. Energy Transfer and General Energy Analysis;2.17;2.17. Cost Savings Associated with High Efficiency motors;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);514;2. Energy Transfer and General Energy Analysis;2.18;2.18. Reducing air pollution by geothermal heating;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);514;2. Energy Transfer and General Energy Analysis;2.19;2.19. Heat transfer from a person;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);514;2. Energy Transfer and General Energy Analysis;2.2;2.2. Analysis of wind energy;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);514;2. Energy Transfer and General Energy Analysis;2.7;2.7. Power Transmission by the Shaft of a Car;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);514;2. Energy Transfer and General Energy Analysis;2.8;2.8. Power Needs of a Car to Climb a Hill;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);514;2. Energy Transfer and General Energy Analysis;2.9;2.9. Power needs of a car to accelerate;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);548;3. Properties of Pure Substances;3.1;3.1. Pressure of Saturated Liquid in a Tank;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);548;3. Properties of Pure Substances;3.10;3.10. Mass of Air in a Room;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);548;3. Properties of Pure Substances;3.11;3.11. The Use of Generalized Charts;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);548;3. Properties of Pure Substances;3.12;3.12. Using Generalized Charts to Determine Pressure;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);548;3. Properties of Pure Substances;3.13;3.13. Different Methods of Evaluating Gas Pressure;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);548;3. Properties of Pure Substances;3.14;3.14. Temperature Drop of a Lake Due to Evaporation;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);548;3. Properties of Pure Substances;3.2;3.2. Temperature of Saturated Vapor in a Cylinder;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);548;3. Properties of Pure Substances;3.3;3.3. Volume and Energy Change during Evaporation;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);548;3. Properties of Pure Substances;3.4;3.4. Pressure and Volume of a Saturated Mixture;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);548;3. Properties of Pure Substances;3.5;3.5. Properties of Saturated Liquid Vapour Mixture;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);548;3. Properties of Pure Substances;3.7;3.7. Internal Energy of Superheated Vapor using linear interpolation;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);548;3. Properties of Pure Substances;3.8;3.8. Approximating Compressed Liquid as Saturated Liquid;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);522;4. Energy Analysis of Closed Systems;4.10;4.10. Heating of a Gas at Constant Pressure;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);522;4. Energy Analysis of Closed Systems;4.11;4.11. Enthalpy of Compressed Liquid;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);522;4. Energy Analysis of Closed Systems;4.12;4.12. Cooling of an Iron Block by Water;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);522;4. Energy Analysis of Closed Systems;4.2;4.2. Boundary Work for a Constant Pressure Process;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);522;4. Energy Analysis of Closed Systems;4.3;4.3. Isothermal Compression of an Ideal Gas;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);522;4. Energy Analysis of Closed Systems;4.4;4.4. Expansion of a Gas against a spring;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);522;4. Energy Analysis of Closed Systems;4.5;4.5. Electric Heating of a Gas at Constant Pressure;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);522;4. Energy Analysis of Closed Systems;4.7;4.7. Evaluation of the du of an Ideal Gas;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);522;4. Energy Analysis of Closed Systems;4.8;4.8. Heating of a Gas in a Tank by Stirring;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);549;5. Mass and Energy Analysis of Control Volumes;5.1;5.1. water flow through garden hose nozzle;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);549;5. Mass and Energy Analysis of Control Volumes;5.10;5.10. Cooling of refrigant 134a by water;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);549;5. Mass and Energy Analysis of Control Volumes;5.11;5.11. Electric heating of air in house;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);549;5. Mass and Energy Analysis of Control Volumes;5.12;5.12. Charging of rigid tank by system;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);549;5. Mass and Energy Analysis of Control Volumes;5.13;5.13. Cooking with a pressure cooker;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);549;5. Mass and Energy Analysis of Control Volumes;5.2;5.2. Discharge of water from a tank;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);549;5. Mass and Energy Analysis of Control Volumes;5.3;5.3. Energy transport by mass;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);549;5. Mass and Energy Analysis of Control Volumes;5.4;5.4. Deceleration of air in diffuser;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);549;5. Mass and Energy Analysis of Control Volumes;5.5;5.5. Acceleration of steam in nozzle;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);549;5. Mass and Energy Analysis of Control Volumes;5.6;5.6. Compressing air by compressor;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);549;5. Mass and Energy Analysis of Control Volumes;5.7;5.7. Power generation by steam turbine;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);549;5. Mass and Energy Analysis of Control Volumes;5.8;5.8. Expansion of refrigant 134a in refrigerator;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);549;5. Mass and Energy Analysis of Control Volumes;5.9;5.9. Mixing of Hot and Cold Waters in a Shower;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);525;6. Mass and Energy Analysis of Control Volumes;6.1;6.1. Net Power Production of a Heat Engine;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);525;6. Mass and Energy Analysis of Control Volumes;6.2;6.2. Fuel Consumption Rate of a Car;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);525;6. Mass and Energy Analysis of Control Volumes;6.3;6.3. Heat Rejection by a Refrigerator;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);525;6. Mass and Energy Analysis of Control Volumes;6.4;6.4. Heating a House by a Heat Pump;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);525;6. Mass and Energy Analysis of Control Volumes;6.5;6.5. Analysis of a Carnot Heat Engine;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);525;6. Mass and Energy Analysis of Control Volumes;6.6;6.6. A Questionable Claim for a Refrigerator;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);525;6. Mass and Energy Analysis of Control Volumes;6.7;6.7. Heating a House by a Carnot Heat Pump;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);525;6. Mass and Energy Analysis of Control Volumes;6.8;6.8. Malfunction of a Refrigerator Light Switch;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.1;7.1. Entropy Change during an Isothermal Process;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.10;7.10. Isentropic Compression of Air in a Car Engine;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.11;7.11. Isentropic Compression of an Ideal Gas;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.12;7.12. Compressing a Substance in the Liquid versus Gas Phases;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.13;7.13. Work Input for Various Compression Processes;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.14;7.14. Isentropic Efficiency of a Steam Turbine;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.15;7.15. Effect of Efficiency on Compressor Power Input;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.16;7.16. Effect of Efficiency on Nozzle Exit Velocity;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.17;7.17. Entropy Generation in a Wall;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.18;7.18. Entropy Generation during a Throttling Process;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.19;7.19. Entropy Generated when a Hot Block Is Dropped in a Lake;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.2;7.2. Entropy Generation during Heat Transfer Processes;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.21;7.21. Entropy Generation Associated with Heat Transfer;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.22;7.22. Energy and Cost Savings by Fixing Air Leaks;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.23;7.23. Reducing the Pressure Setting to Reduce Cost;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.3;7.3. Entropy Change of a Substance in a Tank;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.4;7.4. Entropy Change during a Constant Pressure Process;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.5;7.5. Isentropic Expansion of Steam in a Turbine;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.7;7.7. Effect of Density of a Liquid on Entropy;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.8;7.8. Economics of Replacing a Valve by a Turbine;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);550;7. Entropy;7.9;7.9. Entropy Change of an Ideal Gas;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);650;8. Exergy A Measure of Work Potential;8.1;8.1. Maximum power generation by wind turbine;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);650;8. Exergy A Measure of Work Potential;8.10;8.10. Exergy destruction during heat conduction;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);650;8. Exergy A Measure of Work Potential;8.11;8.11. Exergy destruction during expansion of steam;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);650;8. Exergy A Measure of Work Potential;8.12;8.12. exergy destroyed during stirring of gas;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);650;8. Exergy A Measure of Work Potential;8.13;8.13. Dropping of hot iron block in water;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);650;8. Exergy A Measure of Work Potential;8.14;8.14. Exergy destruction during heat transfer to a gas;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);650;8. Exergy A Measure of Work Potential;8.15;8.15. second law analysis of steam turbine;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);650;8. Exergy A Measure of Work Potential;8.16;8.16. exergy destroyed during mixing of fluid streams;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);650;8. Exergy A Measure of Work Potential;8.17;8.17. Charging of compressed air storage system;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);650;8. Exergy A Measure of Work Potential;8.2;8.2. Exergy transfer from a furnace;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);650;8. Exergy A Measure of Work Potential;8.3;8.3. The rate of irreversibility of a heat engine;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);650;8. Exergy A Measure of Work Potential;8.4;8.4. Irreversibility during cooling of an iron block;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);650;8. Exergy A Measure of Work Potential;8.5;8.5. Heating potential of a hot iron block;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);650;8. Exergy A Measure of Work Potential;8.6;8.6. Second law efficiency of resistance heaters;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);650;8. Exergy A Measure of Work Potential;8.7;8.7. Work Potential of compressed air in tank;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);650;8. Exergy A Measure of Work Potential;8.8;8.8. Exergy change during a compression process;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);571;9. Gas Power Cycle;9.10;9.10. Second Law Analysis of an Otto Cycle;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);571;9. Gas Power Cycle;9.2;9.2. The Ideal Otto Cycle;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);571;9. Gas Power Cycle;9.3;9.3. The Ideal Diesel Cycle;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);571;9. Gas Power Cycle;9.5;9.5. The Simple Ideal Brayton Cycle;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);571;9. Gas Power Cycle;9.6;9.6. An Actual Gas Turbine Cycle;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);571;9. Gas Power Cycle;9.7;9.7. Actual Gas Turbine Cycle with Regeneration;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);571;9. Gas Power Cycle;9.8;9.8. A Gas Turbine with Reheating and Intercooling;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);571;9. Gas Power Cycle;9.9;9.9. The Ideal Jet Propulsion Cycle;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);656;10. Vapor and Combined Power Cycles;10.2;10.2. An Actual Steam Power Cycle;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);656;10. Vapor and Combined Power Cycles;10.3;10.3. Effect of Boiler Pressure and Temperature on Efficiency;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);656;10. Vapor and Combined Power Cycles;10.4;10.4. The Ideal Reheat Rankine Cycle;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);656;10. Vapor and Combined Power Cycles;10.5;10.5. The Ideal Regenerative Rankine Cycle;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);656;10. Vapor and Combined Power Cycles;10.6;10.6. The Ideal Reheat Regenerative Rankine Cycle;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);656;10. Vapor and Combined Power Cycles;10.7;10.7. Second Law Analysis of an Ideal Rankine Cycle;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);656;10. Vapor and Combined Power Cycles;10.8;10.8. An Ideal Cogeneration Plant;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);656;10. Vapor and Combined Power Cycles;10.9;10.9. A Combined Gas Steam Power Cycle;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);573;11. Refrigeration Cycles;11.2;11.2. The Actual Vapor Compression Refrigeration Cycle;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);573;11. Refrigeration Cycles;11.4;11.4. A Two Stage Refrigeration Cycle with a Flash Chamber;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);573;11. Refrigeration Cycles;11.5;11.5. The Simple Ideal Gas Refrigeration Cycle;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);573;11. Refrigeration Cycles;11.6;11.6. Cooling of a Canned Drink by a Thermoelectric Refrigerator;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);573;11. Refrigeration Cycles;17.10;17.10. Estimation of the Mach Number from Mach Lines;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/167/CH17/EX17.10/: PATH DOES NOT EXIST -167;Thermodynamics (SI Units) Sie 6E(Cengel);575;12. Thermodynamic Property Relations;12.1;12.1. Approximating Differential Quantities by Differences;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);575;12. Thermodynamic Property Relations;12.11;12.11. dh and ds of oxygen at high pressure;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);575;12. Thermodynamic Property Relations;12.2;12.2. Total Differential versus Partial Differential;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);575;12. Thermodynamic Property Relations;12.5;12.5. Evaluating the hfg of a Substance from the PVT Data;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);575;12. Thermodynamic Property Relations;12.6;12.6. Extrapolating Tabular Data with the Clapeyron Equation;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);576;13. Gas Mixtures;13.1;13.1. Mass and Mole Fractions of a Gas Mixture;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);576;13. Gas Mixtures;13.2;13.2. PVT Behavior of Nonideal Gas Mixtures;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);576;13. Gas Mixtures;13.3;13.3. Mixing Two Ideal Gases in a Tank;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);576;13. Gas Mixtures;13.4;13.4. Exergy Destruction during Mixing of Ideal Gases;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);576;13. Gas Mixtures;13.5;13.5. cooling of non ideal gas mixture;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);576;13. Gas Mixtures;13.6;13.6. obtaining fresh water from sea water;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);551;14. Gas Vapour Mixtures and Air Conditioning;14.1;14.1. The amonut of water vapour in room air;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);551;14. Gas Vapour Mixtures and Air Conditioning;14.2;14.2. Fogging of the windows in house;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);551;14. Gas Vapour Mixtures and Air Conditioning;14.3;14.3. The Specific and Relative Humidity of Air;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);551;14. Gas Vapour Mixtures and Air Conditioning;14.4;14.4. The Use of the Psychrometric Chart;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);551;14. Gas Vapour Mixtures and Air Conditioning;14.5;14.5. Heating and Humidification of Air;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);551;14. Gas Vapour Mixtures and Air Conditioning;14.6;14.6. Cooling and Dehumidification of Air;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);551;14. Gas Vapour Mixtures and Air Conditioning;14.8;14.8. Mixing of Conditioned Air with Outdoor Air;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);551;14. Gas Vapour Mixtures and Air Conditioning;14.9;14.9. Cooling of a Power Plant by a Cooling Tower;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);655;15. Chemical Reactions;15.1;15.1. Balancing the Combustion Equation;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);655;15. Chemical Reactions;15.11;15.11. Second law analysis of isothermal combustion;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);655;15. Chemical Reactions;15.2;15.2. Dew Point Temperature of Combustion Products;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);655;15. Chemical Reactions;15.3;15.3. Combustion of a Gaseous Fuel with Moist Air;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);655;15. Chemical Reactions;15.4;15.4. Reverse Combustion Analysis;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);655;15. Chemical Reactions;15.5;15.5. Evaluation of the Enthalpy of Combustion;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);655;15. Chemical Reactions;15.6;15.6. First Law Analysis of Steady Flow Combustion;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);655;15. Chemical Reactions;15.7;15.7. First law anlysis of combustion in bomb;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);655;15. Chemical Reactions;15.8;15.8. Adiabatic Flame Temperature in Steady Combustion;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);655;15. Chemical Reactions;15.9;15.9. Reversible work associated with combustion process;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);579;16. Chemical and Phase Equilibrium;16.1;16.1. Equilibrium Constant of a Dissociation Process;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);579;16. Chemical and Phase Equilibrium;16.10;16.10. Diffusion of Hydrogen Gas into a Nickel Plate;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);579;16. Chemical and Phase Equilibrium;16.11;16.11. Composition of Different Phases of a Mixture;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);579;16. Chemical and Phase Equilibrium;16.2;16.2. Dissociation Temperature of Hydrogen;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);579;16. Chemical and Phase Equilibrium;16.6;16.6. Enthalpy of Reaction of a Combustion Process;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);579;16. Chemical and Phase Equilibrium;16.7;16.7. Phase Equilibrium for a Saturated Mixture;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);579;16. Chemical and Phase Equilibrium;16.8;16.8. Mole Fraction of Water Vapor Just over a Lake;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);579;16. Chemical and Phase Equilibrium;16.9;16.9. The Amount of Dissolved Air in Water;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);578;17. Compressible Flow;17.1;17.1. Compression of High Speed Air in an Aircraft;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);578;17. Compressible Flow;17.16;17.16. Steam Flow through a Converging Diverging Nozzle;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);578;17. Compressible Flow;17.2;17.2. Mach Number of Air Entering a Diffuser;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);578;17. Compressible Flow;17.3;17.3. Gas Flow through a Converging Diverging Duct;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);578;17. Compressible Flow;17.4;17.4. Critical Temperature and Pressure in Gas Flow;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);578;17. Compressible Flow;17.5;17.5. Effect of Back Pressure on Mass Flow Rate;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);578;17. Compressible Flow;17.7;17.7. Airflow through a Converging Diverging Nozzle;correct;runtime; -167;Thermodynamics (SI Units) Sie 6E(Cengel);578;17. Compressible Flow;17.9;17.9. Shock Wave in a Converging Diverging Nozzle;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);712;2. Control Volumes and Units;2.1;2.1. Weight of a person;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);712;2. Control Volumes and Units;2.2;2.2. Average Volume and Density;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);712;2. Control Volumes and Units;2.3;2.3. Calculating the required force;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);712;2. Control Volumes and Units;2.4;2.4. Calculating atmospheric pressure;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);712;2. Control Volumes and Units;2.5;2.5. Pressure inside vessel;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);712;2. Control Volumes and Units;2.6;2.6. Calculating Pressure;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);712;2. Control Volumes and Units;2.7;2.7. Calculating Balancing Force;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);713;3. Pure Substance Behaviour;3.1;3.1. Determining the phase of water;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);713;3. Pure Substance Behaviour;3.10;3.10. Mass flow rate;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);713;3. Pure Substance Behaviour;3.11;3.11. Predicting the nature of given state;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);713;3. Pure Substance Behaviour;3.12;3.12. Determining specific using diffenet laws;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);713;3. Pure Substance Behaviour;3.13;3.13. Calculating mass of gas;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);713;3. Pure Substance Behaviour;3.2;3.2. Determining the phase of Ammonia;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);713;3. Pure Substance Behaviour;3.3;3.3. Determining the quality and specific volume;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);713;3. Pure Substance Behaviour;3.4;3.4. Percentage of vapor;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);713;3. Pure Substance Behaviour;3.5;3.5. Calculating pressure after heat addition;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);713;3. Pure Substance Behaviour;3.6;3.6. Determinig the missing property;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);713;3. Pure Substance Behaviour;3.7;3.7. Determining the pressure of water;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);713;3. Pure Substance Behaviour;3.8;3.8. Calculating mass of air;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);713;3. Pure Substance Behaviour;3.9;3.9. Calculating pressure inside tank;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);720;4. Energy Transfers;4.1;4.1. Work done during different processes;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);720;4. Energy Transfers;4.3;4.3. work produced;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);720;4. Energy Transfers;4.4;4.4. Calculating work done;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);720;4. Energy Transfers;4.7;4.7. Heat transfer;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);721;5. Energy Equation for a Control Mass;5.1;5.1. Calculating height;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);721;5. Energy Equation for a Control Mass;5.10;5.10. Calculating rate of increase of internal energy;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);721;5. Energy Equation for a Control Mass;5.11;5.11. Rate of change of temperature;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);721;5. Energy Equation for a Control Mass;5.2;5.2. Change in internal energy;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);721;5. Energy Equation for a Control Mass;5.3;5.3. Analysis of energy transfer;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);721;5. Energy Equation for a Control Mass;5.4;5.4. Determinig the missing properties;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);721;5. Energy Equation for a Control Mass;5.5;5.5. Calculating heat transfer for the given process;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);721;5. Energy Equation for a Control Mass;5.6;5.6. Calculating work and heat transfer for the process;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);721;5. Energy Equation for a Control Mass;5.8;5.8. Calculating change in enthalpy;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);721;5. Energy Equation for a Control Mass;5.9;5.9. Determining amount of heat transfer;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);732;6. Energy Equation for a Control Volume;6.1;6.1. Calculating mass flow rate;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);732;6. Energy Equation for a Control Volume;6.10;6.10. Analysis of refrigerator;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);732;6. Energy Equation for a Control Volume;6.11;6.11. Determining the final temperature of steam;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);732;6. Energy Equation for a Control Volume;6.12;6.12. Calculating mass flow of steam in tank;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);732;6. Energy Equation for a Control Volume;6.13;6.13. Calculating mass flow of steam in tank;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);732;6. Energy Equation for a Control Volume;6.2;6.2. Work done for adding the fluid;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);732;6. Energy Equation for a Control Volume;6.3;6.3. Rate of flow of water;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);732;6. Energy Equation for a Control Volume;6.4;6.4. Determining quality of steam;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);732;6. Energy Equation for a Control Volume;6.5;6.5. Quality of ammonia leaving expansion valve;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);732;6. Energy Equation for a Control Volume;6.6;6.6. Power output of turbine in kW;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);732;6. Energy Equation for a Control Volume;6.7;6.7. Heat transfer rate in aftercooler;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);732;6. Energy Equation for a Control Volume;6.8;6.8. Required Pump work;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);732;6. Energy Equation for a Control Volume;6.9;6.9. Heat tranfer in simple steam power plant;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);733;7. The Classical Second Law of Thermodynamics;7.1;7.1. Rate of fuel consumption;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);733;7. The Classical Second Law of Thermodynamics;7.2;7.2. Coefficient of performance of refrigerator;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);733;7. The Classical Second Law of Thermodynamics;7.4;7.4. Comparison of ideal carnot heat engine with actual heat engine;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);733;7. The Classical Second Law of Thermodynamics;7.5;7.5. Calculating required work;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);734;8. Entropy for a Control Mass;8.1;8.1. Coefficient of performance of refrigerator;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);734;8. Entropy for a Control Mass;8.10;8.10. Determiining the entropy generated;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);734;8. Entropy for a Control Mass;8.2;8.2. Heat transfer in a given process;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);734;8. Entropy for a Control Mass;8.3;8.3. Entropy change;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);734;8. Entropy for a Control Mass;8.4;8.4. Entropy change with different assumptions;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);734;8. Entropy for a Control Mass;8.5;8.5. Entropy change;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);734;8. Entropy for a Control Mass;8.6;8.6. Work done by air;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);734;8. Entropy for a Control Mass;8.7;8.7. Work and heat transfer;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);734;8. Entropy for a Control Mass;8.8;8.8. Calculating increase in entropy;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);734;8. Entropy for a Control Mass;8.9;8.9. Entropy generation;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);735;9. Entropy Equation for a Control Volume;9.1;9.1. Entropy generation;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);735;9. Entropy Equation for a Control Volume;9.10;9.10. Turbine efficiency;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);735;9. Entropy Equation for a Control Volume;9.11;9.11. Turbine inlet pressure;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);735;9. Entropy Equation for a Control Volume;9.12;9.12. Required work input;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);735;9. Entropy Equation for a Control Volume;9.2;9.2. Exit velocity of steam from nozzle;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);735;9. Entropy Equation for a Control Volume;9.3;9.3. Violation of second law;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);735;9. Entropy Equation for a Control Volume;9.4;9.4. Calculating required specific work;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);735;9. Entropy Equation for a Control Volume;9.5;9.5. Entropy generation;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);735;9. Entropy Equation for a Control Volume;9.6;9.6. Work required to fill the tank;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);735;9. Entropy Equation for a Control Volume;9.7;9.7. Work required to pump water isentropically;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);735;9. Entropy Equation for a Control Volume;9.8;9.8. Velocity in exit flow;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);735;9. Entropy Equation for a Control Volume;9.9;9.9. Rate of Entropy Generation;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);848;10. Availibility;10.1;10.1. Calculating reversible work;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);848;10. Availibility;10.2;10.2. Calculating reversible work;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);848;10. Availibility;10.3;10.3. Calculating reversible work and irreversibility;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);820;11. Power and Refrigeration Systems with phase change;11.1;11.1. To determine the efficiency of Rankine cycle;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);820;11. Power and Refrigeration Systems with phase change;11.2;11.2. To determine the efficiency of Rankine cycle;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);820;11. Power and Refrigeration Systems with phase change;11.3;11.3. To determine the efficiency of a cycle;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);820;11. Power and Refrigeration Systems with phase change;11.4;11.4. Efficiency of Refrigeration cycle;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);820;11. Power and Refrigeration Systems with phase change;11.5;11.5. To determine thermal efficiency of cycle;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);821;12. Power and Refrigeration Systems gaseous working fluids;12.1;12.1. Standard brayton cycle;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);821;12. Power and Refrigeration Systems gaseous working fluids;12.2;12.2. Standard brayton cycle;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);821;12. Power and Refrigeration Systems gaseous working fluids;12.3;12.3. efficiency of the cycle;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);821;12. Power and Refrigeration Systems gaseous working fluids;12.4;12.4. Calculation of work in the given cycle;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);821;12. Power and Refrigeration Systems gaseous working fluids;12.5;12.5. air standard cycle for jet repulsion;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);821;12. Power and Refrigeration Systems gaseous working fluids;12.6;12.6. air standard refrigeration cycle;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);821;12. Power and Refrigeration Systems gaseous working fluids;12.7;12.7. the otto cycle;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);821;12. Power and Refrigeration Systems gaseous working fluids;12.8;12.8. the diesel cycle;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);829;13. Ideal Gas Mixtures;13.3;13.3. calculating humidity ratio dew point mass of air mass of vapor;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);829;13. Ideal Gas Mixtures;13.4;13.4. calculating amount of water vapour condensed on cooling;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);829;13. Ideal Gas Mixtures;13.5;13.5. calculating heat transfer per kilogram of dry air;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);829;13. Ideal Gas Mixtures;13.6;13.6. calculating heat transferred in gas vapour mixture;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);829;13. Ideal Gas Mixtures;13.7;13.7. calculating humidity ratio and relative humidity;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);830;14. Thermodynamics Property Relations;14.1;14.1. to determine the sublimation pressure of water;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);830;14. Thermodynamics Property Relations;14.4;14.4. Volume expansivity Isothermal and Adiabatic compressibility;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);830;14. Thermodynamics Property Relations;14.5;14.5. adiabatic steady state processes;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);830;14. Thermodynamics Property Relations;14.6;14.6. isothermal steady state processes;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);830;14. Thermodynamics Property Relations;14.7;14.7. percent deviation using specific volume calculated by kays rule and vander waals rule;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);847;15. Comustion;15.1;15.1. theoratical air fuel ratio for combustion of octane;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);847;15. Comustion;15.15;15.15. calculatng reversible elecromotive force;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);847;15. Comustion;15.17;15.17. efficiency of generator and plant;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);847;15. Comustion;15.6;15.6. determining heat transfer per kilomole of fuel entering combustion chamber;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);847;15. Comustion;15.7;15.7. calculating enthalpy of water at given pressure and temperature;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);831;16. Phase and Chemical Equilbrium;16.2;16.2. to determine change in gibbs free energy;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);831;16. Phase and Chemical Equilbrium;16.3;16.3. calculating equilibrium constant;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);832;17. Compressible Flow;17.1;17.1. to determine isentropic stagnation pressure and temperature;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);832;17. Compressible Flow;17.3;17.3. determining the thrust acting on a control surface;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);832;17. Compressible Flow;17.5;17.5. determining velocity of sound in air;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);832;17. Compressible Flow;17.6;17.6. determining mass flow rate through control volume;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);832;17. Compressible Flow;17.7;17.7. determining exit properties in a control volume;correct;runtime; -172;Fundamentals Of Thermodynamics(B. Claus And R. E. Sonntag);832;17. Compressible Flow;17.9;17.9. determining exit plane properties in control volume;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);600;1. Measurement and Error;1.1;1.1. To find Average voltage Range of error;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);600;1. Measurement and Error;1.10;1.10. To find Average deviation;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);600;1. Measurement and Error;1.11;1.11. To find Std deviation and Probable error;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);600;1. Measurement and Error;1.12;1.12. To find Limiting error;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);600;1. Measurement and Error;1.13;1.13. To find the maximum error;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);600;1. Measurement and Error;1.14;1.14. To find limiting error;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);600;1. Measurement and Error;1.2;1.2. To find Total resistance;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);600;1. Measurement and Error;1.3;1.3. To find voltage drop across resistor;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);600;1. Measurement and Error;1.4;1.4. To find sum with range of doubt;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);600;1. Measurement and Error;1.5;1.5. To find difference with range of doubt;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);600;1. Measurement and Error;1.6;1.6. To find difference with range of doubt;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);600;1. Measurement and Error;1.7;1.7. To find Apparent and actual resistance;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);600;1. Measurement and Error;1.8;1.8. To find Apparent and actual resistance;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);600;1. Measurement and Error;1.9;1.9. To find Arithmatic mean and deviation from mean;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);606;2. Systems of Units of Measurement;2.1;2.1. To convert area in metre to feet;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);606;2. Systems of Units of Measurement;2.2;2.2. To convert flux density to different units;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);606;2. Systems of Units of Measurement;2.3;2.3. To convert velocity to a different unit;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);606;2. Systems of Units of Measurement;2.4;2.4. To convert density to a different unit;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);606;2. Systems of Units of Measurement;2.5;2.5. To convert speed limit to a different unit;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);607;4. Electromechanical Indicating Instruments;4.1;4.1. To find Shunt resistance required;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);607;4. Electromechanical Indicating Instruments;4.10;4.10. To find voltmeter sensitivity on AC range;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);607;4. Electromechanical Indicating Instruments;4.2;4.2. To design Ayrton shunt;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);607;4. Electromechanical Indicating Instruments;4.3;4.3. To design multirange dc voltmeter;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);607;4. Electromechanical Indicating Instruments;4.4;4.4. To design multirange dc voltmeter;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);607;4. Electromechanical Indicating Instruments;4.5;4.5. To find voltage reading and Error;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);607;4. Electromechanical Indicating Instruments;4.6;4.6. To find the value of unknown resistor;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);607;4. Electromechanical Indicating Instruments;4.7;4.7. To find the scale error;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);607;4. Electromechanical Indicating Instruments;4.8;4.8. To find shunt and current limiting resistor;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);607;4. Electromechanical Indicating Instruments;4.9;4.9. To find multiplier resistor;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);608;5. Bridge Measurements;5.1;5.1. To find deflection caused by the given unbalance;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);608;5. Bridge Measurements;5.2;5.2. To check the capability of detecting unbalance;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);608;5. Bridge Measurements;5.3;5.3. To find the unknown impedence;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);608;5. Bridge Measurements;5.4;5.4. To find the unknown impedence;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);608;5. Bridge Measurements;5.5;5.5. To balance the unbalanced bridge;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);609;6. Electronic Instruments for Measuring Basic Parameters;6.1;6.1. To find the form factor and error;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);609;6. Electronic Instruments for Measuring Basic Parameters;6.2;6.2. To find the form factor and error;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);609;6. Electronic Instruments for Measuring Basic Parameters;6.3;6.3. To find the maximum time;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);609;6. Electronic Instruments for Measuring Basic Parameters;6.4;6.4. To find the distributed capacitance;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);609;6. Electronic Instruments for Measuring Basic Parameters;6.5;6.5. To find the self capacitance;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);609;6. Electronic Instruments for Measuring Basic Parameters;6.6;6.6. To find percentage error;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);609;6. Electronic Instruments for Measuring Basic Parameters;6.7;6.7. To find percentage error;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);610;7. Oscilloscopes;7.1;7.1. To find minimum distance;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);611;9. Signal Analysis;9.1;9.1. To find dynamic range of spectrum analyser;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);611;9. Signal Analysis;9.2;9.2. To find minimum detectable signal;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);611;9. Signal Analysis;9.3;9.3. To find dynamic range and total frequency display;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);612;11. Transducers as Input Elements to Instrumentation Systems;11.1;11.1. To find change in resistance;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);613;12. Analog and Digital Data Acquisition Systems;12.1;12.1. To find percentage error;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);614;14. Fiber Optics Measurements;14.1;14.1. To find acceptance angle and numerical aperture;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);614;14. Fiber Optics Measurements;14.2;14.2. To find loss in the fiber;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);614;14. Fiber Optics Measurements;14.3;14.3. To find current developed in photodiode;correct;runtime; -174;Modern Electronic Instrumentation And Measurement Techniques(A. D. Helfrick And W. D. Cooper);614;14. Fiber Optics Measurements;14.4;14.4. To find elapsed time;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.1;1.1. Calculate wave vector carried by photon;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.10;1.10. Position of Fermi energy at 0K;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.11;1.11. Time taken to reach Brillouin zone;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.12;1.12. Calculate drift velocity;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.13;1.13. Compute conductivity drift velocity current density;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.14;1.14. Calculate drift velocity in copper conductor;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.16;1.16. Calculate drift velocity in copper;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.17;1.17. Equilibrium hole concentration in Si;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.18;1.18. Time taken to reach Brillouin zone;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.2;1.2. Calculate semiconductor band gap;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.20;1.20. Electron hole concentration at minimum conductivity;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.21;1.21. Position of Fermi level at room temperature;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.22;1.22. Mobility of free electrons in Alluminium;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.23;1.23. Percentage of increse in carrier concentration;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.24;1.24. Previous problem calculated for intrinsic silicon;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.25;1.25. Find drift velocity mobility conductivity;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.26;1.26. Determine concentration of electrons and holes;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.27;1.27. Concentration of holes and electrons;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.28;1.28. To prove resistivity is 45 ohm cm;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.29;1.29. Find conductivity of intrinsic germanium;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.3;1.3. Calculate E k relation of conduction electrons;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.4;1.4. Energies of electrons in conduction band;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.5;1.5. Energies of electrons in conduction band;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.6;1.6. Estimation of smallest k vector along x direction;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.7;1.7. Energies of electrons in conduction band;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.8;1.8. Find position of Fermi level;correct;runtime; -181;Basic Electronics(D. De);714;1. Semiconductor Fundamentals;1.9;1.9. Find Fermi level at room temperature;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.1;2.1. Calculate width of depletion layer;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.10;2.10. Reverse saturation point of current;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.12;2.12. Find reverse saturation current;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.13;2.13. Ratio of reverse saturation current;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.14;2.14. Calculate the current flowing;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.15;2.15. Find voltage to be applied;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.16;2.16. Find current when forward biased;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.17;2.17. Calculate current and voltage;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.18;2.18. Calculate forward currents for voltages;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.19;2.19. Factor to be multiplied with reverse saturation current;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.2;2.2. Width of depletion zone at 300K;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.20;2.20. Leakage resistance shunting the diode;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.21;2.21. Maximum reverse bias voltage to be maintained;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.22;2.22. Factor to be multiplied with current;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.24;2.24. Find the diffusion length;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.25;2.25. Find static resistance;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.26;2.26. Dynamic resistance in Forward Reverse direction;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.27;2.27. Dynamic resistance at forward bias;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.28;2.28. Maximum forward current forward resistance;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.29;2.29. Height of potential energy barrier;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.3;2.3. Find thermal and barrier volatge;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.30;2.30. Dynamic resistance in forward reverse direction;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.31;2.31. Maximum and minimum Zener currents;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.32;2.32. Find the range for R;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.33;2.33. Find breakdown voltage;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.35;2.35. Calculate Vz;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.37;2.37. Find the ideality factor;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.38;2.38. Temperature coefficient of Avalanche diode;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.39;2.39. Limits for varying V;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.4;2.4. Barrier potential for silicon junction;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.5;2.5. Find depletion layer capacitance;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.6;2.6. Compute decrease in capacitance;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.7;2.7. Calculate barrier capacitance of Ge;correct;runtime; -181;Basic Electronics(D. De);715;2. Diode Fundamentals;2.8;2.8. Calculate width of depletion layer;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.1;3.1. Calculate the dc load current;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.10;3.10. Full scale reading of dc meter;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.11;3.11. Find dc output Peak inverse voltage;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.12;3.12. Determine maximum and average values of power;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.13;3.13. Find maximum value of ac voltage;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.14;3.14. Calculate ac voltage rectification efficiency;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.15;3.15. Find current dc voltage voltage across load;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.16;3.16. Estimate value of capacitance needed;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.17;3.17. Calculate the ripple factor;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.18;3.18. Find DC output voltage pulse frequency;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.19;3.19. Find maximum dc voltage;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.2;3.2. Find the diode currents;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.20;3.20. Calculate input voltage value of filter;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.21;3.21. Calculate inductance for L section filter;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.22;3.22. DC output voltage and ripple voltage;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.23;3.23. Sketch steady state output;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.24;3.24. Sketch output voltage Vo;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.25;3.25. Devise a circuit;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.27;3.27. Find currents and voltages;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.28;3.28. Find voltage across diode;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.3;3.3. Calculate break region;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.30;3.30. Calculate R Il max;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.4;3.4. Calculate the peak load current;correct;runtime; -181;Basic Electronics(D. De);722;3. Diode Circuits;3.8;3.8. Calculate the dc load current;correct;runtime; -181;Basic Electronics(D. De);726;4. BJT Fundamentals;4.1;4.1. Calculate Base and Collector Currents;correct;runtime; -181;Basic Electronics(D. De);726;4. BJT Fundamentals;4.10;4.10. Measurement of Circuit Voltage changes;correct;runtime; -181;Basic Electronics(D. De);726;4. BJT Fundamentals;4.11;4.11. To Determine mode of operation of BJT;correct;runtime; -181;Basic Electronics(D. De);726;4. BJT Fundamentals;4.2;4.2. Calculate alpha using beta;correct;runtime; -181;Basic Electronics(D. De);726;4. BJT Fundamentals;4.3;4.3. Collector Current in C E mode;correct;runtime; -181;Basic Electronics(D. De);726;4. BJT Fundamentals;4.4;4.4. Calculate beta for the BJT;correct;runtime; -181;Basic Electronics(D. De);726;4. BJT Fundamentals;4.5;4.5. To Compute Alpha Beta and Emitter Current;correct;runtime; -181;Basic Electronics(D. De);726;4. BJT Fundamentals;4.6;4.6. Calculate alpha reverse and beta reverse;correct;runtime; -181;Basic Electronics(D. De);726;4. BJT Fundamentals;4.7;4.7. Calculate Labeled Currents and Voltages;correct;runtime; -181;Basic Electronics(D. De);726;4. BJT Fundamentals;4.8;4.8. Calculate labeled Voltages;correct;runtime; -181;Basic Electronics(D. De);726;4. BJT Fundamentals;4.9;4.9. Calculating BJT parameters assuming Vbe;correct;runtime; -181;Basic Electronics(D. De);727;5. BJT Circuits;5.1;5.1. Calculate BJT parameters using beta gain;correct;runtime; -181;Basic Electronics(D. De);727;5. BJT Circuits;5.4;5.4. To establish Operating Point and Stability Factor;correct;runtime; -181;Basic Electronics(D. De);727;5. BJT Circuits;5.5;5.5. Design Bias Circuit for given Stability Factor;correct;runtime; -181;Basic Electronics(D. De);727;5. BJT Circuits;5.8;5.8. Calculate circuit parameters of a Emitter Follower;correct;runtime; -181;Basic Electronics(D. De);727;5. BJT Circuits;5.9;5.9. Design of an Emitter Follower;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.1;6.1. Determine approximate drain source resistance;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.10;6.10. Find pinch off saturation voltage;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.11;6.11. Determine drain source resistance;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.12;6.12. Determine approximate Rds;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.13;6.13. Find Vgs operating region Id Rd;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.14;6.14. Find operating region Vgs Vds Rd;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.15;6.15. Find Id when Vgs equals 4V;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.16;6.16. Determine Rd;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.17;6.17. Determine Rd;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.18;6.18. Find Id Vds1 Vds2;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.19;6.19. Find operating region Vgs Vds Id;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.2;6.2. Find Id and Vds;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.20;6.20. Find Vgs Id operating region;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.21;6.21. Find operating region Vgs Vds Id;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.3;6.3. Find the value of Rd;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.4;6.4. Find id Vds slope of operation of JFET;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.5;6.5. Find id Vgs Rd Vds;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.6;6.6. Determine Vgs Id Vds operating region;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.7;6.7. Determine Vgs Id Vds;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.8;6.8. Determine R Ids Vgs;correct;runtime; -181;Basic Electronics(D. De);728;6. Field Effect Transistor;6.9;6.9. Find Id Vgs Vds region of operation;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.11;7.11. Find voltage gain output impedance;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.12;7.12. Find voltage gain A1 and A2;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.13;7.13. Determine Vgs Id Vds Av;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.14;7.14. Find the value of R1;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.15;7.15. Find Vo for given Vi;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.16;7.16. Calculate quiescent values of Id Vgs Vds;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.2;7.2. Find amplification;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.20;7.20. Calculate transconductance amplification factor;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.21;7.21. Calculate dynamic resistance;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.22;7.22. Calculate Rd gm mu;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.23;7.23. Find the value of Rs;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.24;7.24. Find voltage gain of amplifier;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.25;7.25. Find pinch off voltage;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.26;7.26. Calculate quiescent values of Id Vds Vgs;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.27;7.27. Find Id Vds Vgs Av;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.28;7.28. Calculate Av Zo Zi;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.29;7.29. Calculate Vo Vi;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.3;7.3. Find amplification with 40k resistor instead;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.30;7.30. Calculate Av Zo;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.31;7.31. Calculate Vgsq gm Rs Vdsq Rl;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.32;7.32. Calculate Zo for rd equals 50 k ohms;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.33;7.33. Find voltage gain Current gain ratio;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.34;7.34. Determine Zo draw small signal model;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.35;7.35. Find values of R2 Vdd Vds;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.36;7.36. Equation for drain current;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.37;7.37. Find Vgs Vp;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.38;7.38. Find the values of Rs and Rd;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.39;7.39. Find the value of Rs;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.40;7.40. Calculate voltage gain Av;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.41;7.41. Calculate voltage amplification in circuit;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.43;7.43. Find the value of Rs;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.44;7.44. Calculate value of Id Vgs Vds;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.45;7.45. Calculate input admittance;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.47;7.47. Calculate gain and frequency;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.48;7.48. Calculate the values of Id Vgs Vds;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.52;7.52. Calculate complex voltage gain Input admittance;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.54;7.54. Find the maximum transconductance;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.55;7.55. Evaluate Vds and Rd;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.56;7.56. Verify FET operation in pinch off region;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.57;7.57. Calculate voltage gain Av;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.59;7.59. Design a source follower;correct;runtime; -181;Basic Electronics(D. De);729;7. FET Circuits;7.6;7.6. Find gain if v2 v1 are zero;correct;runtime; -181;Basic Electronics(D. De);730;8. Special Semiconductor Devices;8.1;8.1. Calculate the Gate Source Resistance;correct;runtime; -181;Basic Electronics(D. De);730;8. Special Semiconductor Devices;8.10;8.10. Design of Triggering Circuit for a UJT;correct;runtime; -181;Basic Electronics(D. De);730;8. Special Semiconductor Devices;8.11;8.11. To determine Emitter source voltage of UJT;correct;runtime; -181;Basic Electronics(D. De);730;8. Special Semiconductor Devices;8.2;8.2. Firing angle of Thyristor;correct;runtime; -181;Basic Electronics(D. De);730;8. Special Semiconductor Devices;8.3;8.3. Calculate width of Gating pulse;correct;runtime; -181;Basic Electronics(D. De);730;8. Special Semiconductor Devices;8.4;8.4. To calculate required Gate source Resistance;correct;runtime; -181;Basic Electronics(D. De);730;8. Special Semiconductor Devices;8.5;8.5. To calculate series Resistance across SCR;correct;runtime; -181;Basic Electronics(D. De);730;8. Special Semiconductor Devices;8.6;8.6. To determine critical value of dv by dt;correct;runtime; -181;Basic Electronics(D. De);730;8. Special Semiconductor Devices;8.7;8.7. Calculate surge current and I2t ratings;correct;runtime; -181;Basic Electronics(D. De);730;8. Special Semiconductor Devices;8.8;8.8. Max and Min firing delays;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);663;1. units Dimensions and Standards;1.1;1.1. Flux density;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);663;1. units Dimensions and Standards;1.2;1.2. temparature conversion;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);664;2. Measurement Errors;2.1;2.1. resistance at a given temparature;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);664;2. Measurement Errors;2.2;2.2. error in sum voltage;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);664;2. Measurement Errors;2.3;2.3. error in difference voltage;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);664;2. Measurement Errors;2.4;2.4. power dissipated and accuracy;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);664;2. Measurement Errors;2.5;2.5. average voltage and deviation;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);664;2. Measurement Errors;2.6;2.6. standard deviation and probable error;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);665;3. Electromechanical Instruments;3.1;3.1. torque on the coil;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);665;3. Electromechanical Instruments;3.10;3.10. sensitivity of the voltmeter;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);665;3. Electromechanical Instruments;3.11;3.11. value of given resistances;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);665;3. Electromechanical Instruments;3.12;3.12. calculate the value of Rl;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);665;3. Electromechanical Instruments;3.13;3.13. percentage error;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);665;3. Electromechanical Instruments;3.14;3.14. instrument indication and resistance scale;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);665;3. Electromechanical Instruments;3.15;3.15. to find the resistance;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);665;3. Electromechanical Instruments;3.16;3.16. ohmeter indication and the resistance;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);665;3. Electromechanical Instruments;3.2;3.2. voltage and megohm sensitivity;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);665;3. Electromechanical Instruments;3.3;3.3. total current through the ammeter;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);665;3. Electromechanical Instruments;3.4;3.4. shunt resistance;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);665;3. Electromechanical Instruments;3.5;3.5. ammeter range;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);665;3. Electromechanical Instruments;3.6;3.6. multiplier resistance and applied voltage;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);665;3. Electromechanical Instruments;3.7;3.7. multiplier resistances;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);665;3. Electromechanical Instruments;3.8;3.8. multiplier resistance;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);665;3. Electromechanical Instruments;3.9;3.9. pointer indication for the voltmeter;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);717;4. analog electronic volt ohm milliammeter;4.1;4.1. meter current and voltage input resistance;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);717;4. analog electronic volt ohm milliammeter;4.2;4.2. meter circuit voltage and currents;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);717;4. analog electronic volt ohm milliammeter;4.3;4.3. meter reading and gate source voltage;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);717;4. analog electronic volt ohm milliammeter;4.4;4.4. suitable resistance values;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);717;4. analog electronic volt ohm milliammeter;4.5;4.5. value of resistance and voltage at output;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);717;4. analog electronic volt ohm milliammeter;4.6;4.6. resistance scale marking;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);717;4. analog electronic volt ohm milliammeter;4.7;4.7. value of R3 and deflection;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);718;5. Digital instrument Basics;5.1;5.1. high and low output voltages;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);718;5. Digital instrument Basics;5.2;5.2. collector and base voltage;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);718;5. Digital instrument Basics;5.3;5.3. supply current required;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);718;5. Digital instrument Basics;5.4;5.4. out put frequency;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);718;5. Digital instrument Basics;5.5;5.5. number of clock pulses counted;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);718;5. Digital instrument Basics;5.6;5.6. number of output bits required;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);718;5. Digital instrument Basics;5.7;5.7. output voltage of DAC;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);719;6. Digital voltmeters and frequency meters;6.1;6.1. maximum time and suitable frequency;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);719;6. Digital voltmeters and frequency meters;6.2;6.2. measurement accuracy;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);719;6. Digital voltmeters and frequency meters;6.3;6.3. determine the measured frequency;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);719;6. Digital voltmeters and frequency meters;6.4;6.4. percentage measurement error;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);746;7. Low High and Precise Resistance Measurements;7.1;7.1. Caption find the resistance;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);746;7. Low High and Precise Resistance Measurements;7.2;7.2. ammeter and ohmeter indications;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);746;7. Low High and Precise Resistance Measurements;7.3;7.3. accuracy;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);746;7. Low High and Precise Resistance Measurements;7.4;7.4. find the resistance;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);746;7. Low High and Precise Resistance Measurements;7.5;7.5. accracy upper and lower values;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);746;7. Low High and Precise Resistance Measurements;7.6;7.6. minimum change;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);746;7. Low High and Precise Resistance Measurements;7.7;7.7. ratio of resistances;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);746;7. Low High and Precise Resistance Measurements;7.8;7.8. volume and surface lekage resistance;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);747;8. Inductance and capacitance Measurements;8.1;8.1. components and connections;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);747;8. Inductance and capacitance Measurements;8.10;8.10. find the capacitance and resistance;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);747;8. Inductance and capacitance Measurements;8.11;8.11. determine the q factor;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);747;8. Inductance and capacitance Measurements;8.12;8.12. coil inductane and resistance;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);747;8. Inductance and capacitance Measurements;8.2;8.2. range of capacitance;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);747;8. Inductance and capacitance Measurements;8.3;8.3. resistance capacitance and dissipation factor;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);747;8. Inductance and capacitance Measurements;8.4;8.4. resistance capacitance and dissipation factor;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);747;8. Inductance and capacitance Measurements;8.5;8.5. parallel resistance and capacitance;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);747;8. Inductance and capacitance Measurements;8.6;8.6. find the resistance;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);747;8. Inductance and capacitance Measurements;8.7;8.7. inductance resistance and Q factor;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);747;8. Inductance and capacitance Measurements;8.8;8.8. induactance resistance and Q factor;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);747;8. Inductance and capacitance Measurements;8.9;8.9. find the inductance and resistance;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);748;9. Cathode Ray Oscilloscopes;9.10;9.10. find the frequency;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);748;9. Cathode Ray Oscilloscopes;9.11;9.11. find the frequency;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);748;9. Cathode Ray Oscilloscopes;9.12;9.12. minimum time per sensitivity;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);748;9. Cathode Ray Oscilloscopes;9.13;9.13. raise time;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);748;9. Cathode Ray Oscilloscopes;9.2;9.2. peak to peak voltage and time period;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);748;9. Cathode Ray Oscilloscopes;9.3;9.3. amplitude freuency and phase difference;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);748;9. Cathode Ray Oscilloscopes;9.4;9.4. pulse amplitude frequency raise and fall time;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);748;9. Cathode Ray Oscilloscopes;9.5;9.5. longest pulse width;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);748;9. Cathode Ray Oscilloscopes;9.6;9.6. shortest pulse width;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);748;9. Cathode Ray Oscilloscopes;9.7;9.7. raise time;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);748;9. Cathode Ray Oscilloscopes;9.8;9.8. terminal oscilloscope voltage and frequency;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);748;9. Cathode Ray Oscilloscopes;9.9;9.9. find the capacitance;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);749;11. signal generators;11.1;11.1. maximum and minimum output frequencies;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);749;11. signal generators;11.2;11.2. find the resistor values;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);749;11. signal generators;11.3;11.3. find the output frequency;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);749;11. signal generators;11.4;11.4. output square wave frequency;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);749;11. signal generators;11.5;11.5. output pulse width and the capacitance;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);750;12. instrument calibration;12.1;12.1. accuracy;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);750;12. instrument calibration;12.2;12.2. error and correction figure;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);750;12. instrument calibration;12.4;12.4. resistance voltage and current;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);750;12. instrument calibration;12.5;12.5. maximum voltage and instrument resolution;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);751;16. Laboratory power supplies;16.1;16.1. load effects and line regulation;correct;runtime; -182;Electronic Instrumentation And Measurements(D. A. Bell);751;16. Laboratory power supplies;16.2;16.2. maximum and minimum output voltage;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);563;1. Introduction;1.1;1.1. Illustrating big errors caused by small errors;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);563;1. Introduction;1.4;1.4. Calculating Induced instability through deflation method;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);561;2. Linear Algebric Equation;2.1;2.1. Illutrates the effect of the partial pivoting;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);561;2. Linear Algebric Equation;2.2;2.2. Decomposition in LU form;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);561;2. Linear Algebric Equation;2.3;2.3. LU factorization method for solving the system of equation;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);561;2. Linear Algebric Equation;2.4;2.4. LU factorisation method for solving the system of equation;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);561;2. Linear Algebric Equation;2.5;2.5. Choleski decomposition;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);561;2. Linear Algebric Equation;2.6;2.6. Jacobi method;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);561;2. Linear Algebric Equation;2.7;2.7. Gauss Seidel method;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);561;2. Linear Algebric Equation;2.8;2.8. Successive over relaxation method;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);561;2. Linear Algebric Equation;2.9;2.9. Gauss Seidel and SOR method;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);555;3. Non linear algebric equations;3.1;3.1. Bisection Method;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);555;3. Non linear algebric equations;3.2;3.2. False positioning method;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);555;3. Non linear algebric equations;3.3;3.3. fixed point iteration method;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);555;3. Non linear algebric equations;3.4;3.4. Type of convergence;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);555;3. Non linear algebric equations;3.5;3.5. Newton Method;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);555;3. Non linear algebric equations;3.6;3.6. Secant Method;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);555;3. Non linear algebric equations;3.7;3.7. System of Non Linear Equations;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);555;3. Non linear algebric equations;3.8;3.8. System of Non Linear Equations;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);556;4. Eigenvalues and eigenvectors;4.1;4.1. Power Method of finding largest Eigen value;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);556;4. Eigenvalues and eigenvectors;4.10;4.10. Householder Matrix;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);556;4. Eigenvalues and eigenvectors;4.11;4.11. Householder methods;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);556;4. Eigenvalues and eigenvectors;4.12;4.12. stable LR method;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);556;4. Eigenvalues and eigenvectors;4.13;4.13. Orthogonal decomposition QR method;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);556;4. Eigenvalues and eigenvectors;4.14;4.14. Reduction to upper Hessenberg form;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);556;4. Eigenvalues and eigenvectors;4.15;4.15. Redduction to upper Hessenberg form and calculating eigen values;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);556;4. Eigenvalues and eigenvectors;4.2;4.2. Power Method of finding largest Eigen value;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);556;4. Eigenvalues and eigenvectors;4.3;4.3. Convergence of Inverse Iteration;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);556;4. Eigenvalues and eigenvectors;4.4;4.4. Deflation;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);556;4. Eigenvalues and eigenvectors;4.5;4.5. Threshold serial Jacobi Method;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);556;4. Eigenvalues and eigenvectors;4.6;4.6. The Gerchgorin circle;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);556;4. Eigenvalues and eigenvectors;4.7;4.7. Sturm sequence property;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);556;4. Eigenvalues and eigenvectors;4.8;4.8. Gerschgorins first theorem;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);556;4. Eigenvalues and eigenvectors;4.9;4.9. Givens Method;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);557;5. Methods of approximation theory;5.1;5.1. Lagranges Method of interpolation;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);557;5. Methods of approximation theory;5.10;5.10. Illustration cubic spline interpolation with equal difference;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);557;5. Methods of approximation theory;5.11;5.11. Illustration cubic spline interpolation with unequal difference;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);557;5. Methods of approximation theory;5.12;5.12. Alternating way of constructing cubic splines;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);557;5. Methods of approximation theory;5.13;5.13. Linear Least square aproximation method;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);557;5. Methods of approximation theory;5.14;5.14. Quadratic Least square aproximation method;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);557;5. Methods of approximation theory;5.15;5.15. Least square aproximation method with exponential functions;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);557;5. Methods of approximation theory;5.16;5.16. Least square approximation to continuous functions;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);557;5. Methods of approximation theory;5.17;5.17. Gram Schmidt process for finding orthogonal functions;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);557;5. Methods of approximation theory;5.18;5.18. Gram Schmidt process for cubic polynomial least squares approx;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);557;5. Methods of approximation theory;5.2;5.2. Theoritical bound on error;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);557;5. Methods of approximation theory;5.3;5.3. Divided difference;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);557;5. Methods of approximation theory;5.4;5.4. Polynomial Interpolation Divided Differnce form;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);557;5. Methods of approximation theory;5.5;5.5. Construction of Forward Difference Table;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);557;5. Methods of approximation theory;5.6;5.6. Illustration of Newtons Forward Difference Formula;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);557;5. Methods of approximation theory;5.7;5.7. Illustration of Central Difference Formula;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);557;5. Methods of approximation theory;5.8;5.8. Hermite Interpolation;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);557;5. Methods of approximation theory;5.9;5.9. Hermite cubic Interpolation;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);558;6. Numerical Differntiation and Integration;6.1;6.1. Numerical Differentiation;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);558;6. Numerical Differntiation and Integration;6.10;6.10. Simpsons Adaptive Quatrature;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);558;6. Numerical Differntiation and Integration;6.11;6.11. Gaussian Quadrature Rule;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);558;6. Numerical Differntiation and Integration;6.12;6.12. Gaussian Quadrature Rule;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);558;6. Numerical Differntiation and Integration;6.2;6.2. Numerical Differentiation;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);558;6. Numerical Differntiation and Integration;6.3;6.3. Numerical Integration;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);558;6. Numerical Differntiation and Integration;6.4;6.4. Numerical Integration;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);558;6. Numerical Differntiation and Integration;6.5;6.5. Trapezoidal Rule;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);558;6. Numerical Differntiation and Integration;6.6;6.6. Simpson Rule;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);558;6. Numerical Differntiation and Integration;6.7;6.7. Rombergs Interpolation;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);558;6. Numerical Differntiation and Integration;6.8;6.8. Rombergs Method;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);558;6. Numerical Differntiation and Integration;6.9;6.9. Simpsons Adaptive Quatrature;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);559;7. Ordinary Differential Eqautions Initial value problem;7.1;7.1. Eulers Method;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);559;7. Ordinary Differential Eqautions Initial value problem;7.10;7.10. Runge Kutta Methods;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);559;7. Ordinary Differential Eqautions Initial value problem;7.11;7.11. Eulers Methods;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);559;7. Ordinary Differential Eqautions Initial value problem;7.12;7.12. Eulers trapezoidal predictor corrector pair;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);559;7. Ordinary Differential Eqautions Initial value problem;7.13;7.13. 4 Stage Runge Kutta method;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);559;7. Ordinary Differential Eqautions Initial value problem;7.2;7.2. Eulers trapezoidal predictor corrector pair;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);559;7. Ordinary Differential Eqautions Initial value problem;7.3;7.3. Mid point formula;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);559;7. Ordinary Differential Eqautions Initial value problem;7.4;7.4. Illustraion of Taylor Series for approximation;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);559;7. Ordinary Differential Eqautions Initial value problem;7.5;7.5. 3 Step Adams Bashforth and 2 step Adam Moulton formula;correct;runtime; -191;Numerical Analysis(I. Jacques And C. Judd);560;8. Ordinary Differential Eqautions boundary value problem;8.1;8.1. The finite difference method;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);657;2. First Experiences with an opamp;2.1;2.1. ProbOnOutputvoltage;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);657;2. First Experiences with an opamp;2.2;2.2. ProbOnPWM;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);657;2. First Experiences with an opamp;2.3;2.3. ProbOnHighTime;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);752;3. Inverting and Noninverting Amplifiers;3.1;3.1. ProbOnOpampDescriptions;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);752;3. Inverting and Noninverting Amplifiers;3.10;3.10. ProbOnDCVoltage;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);752;3. Inverting and Noninverting Amplifiers;3.11;3.11. ProbonThreeChannelInvertingAmplifier;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);752;3. Inverting and Noninverting Amplifiers;3.12;3.12. ProbOnOutputvoltage;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);752;3. Inverting and Noninverting Amplifiers;3.13;3.13. ProbOnOpampParameters;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);752;3. Inverting and Noninverting Amplifiers;3.14;3.14. ProbOnVoltageGain;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);752;3. Inverting and Noninverting Amplifiers;3.15;3.15. DesignAnAmplifier;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);752;3. Inverting and Noninverting Amplifiers;3.16;3.16. ProbOnServoAmplifier;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);752;3. Inverting and Noninverting Amplifiers;3.17;3.17. ProbOnEquilibriumVoltage;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);752;3. Inverting and Noninverting Amplifiers;3.18;3.18. ProbOnEquilibriumTime;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);752;3. Inverting and Noninverting Amplifiers;3.2;3.2. ProbOnCurrentinOpamp;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);752;3. Inverting and Noninverting Amplifiers;3.3;3.3. ProbOnOpampParameters;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);752;3. Inverting and Noninverting Amplifiers;3.4;3.4. ProbOnOpampResistance;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);752;3. Inverting and Noninverting Amplifiers;3.5;3.5. ProbOnVoltageGain;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);752;3. Inverting and Noninverting Amplifiers;3.6;3.6. ProbonOutputVoltage;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);752;3. Inverting and Noninverting Amplifiers;3.7;3.7. ProbOnOutputvoltage;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);752;3. Inverting and Noninverting Amplifiers;3.8;3.8. ProbOnOutputvoltage;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);752;3. Inverting and Noninverting Amplifiers;3.9;3.9. ProbOnOutputvoltage;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);754;4. Comparators and Controls;4.1;4.1. ProbOnThresholdVoltage;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);754;4. Comparators and Controls;4.2;4.2. ProbOnLowerThresholdVoltage;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);754;4. Comparators and Controls;4.3;4.3. ProbOnOutputvoltage;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);754;4. Comparators and Controls;4.4;4.4. DesignUsingVutAndVlt;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);754;4. Comparators and Controls;4.5;4.5. designInvertingVoltageDetector;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);754;4. Comparators and Controls;4.6;4.6. DesignOnInvertingVoltageLevelDetector;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);764;5. Selected Applications of Opamp;5.1;5.1. ProbOnMeterCurrent;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);764;5. Selected Applications of Opamp;5.10;5.10. ProbOnPhotoDetector;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);764;5. Selected Applications of Opamp;5.11;5.11. ProbOnOpticalCoupler;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);764;5. Selected Applications of Opamp;5.12;5.12. ProbonCurrentDivider;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);764;5. Selected Applications of Opamp;5.13;5.13. ProbOnPhaseShifter;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);764;5. Selected Applications of Opamp;5.14;5.14. ProbOnPhaseAngle;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);764;5. Selected Applications of Opamp;5.2;5.2. ProbOnInputResistance;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);764;5. Selected Applications of Opamp;5.3;5.3. DesignASimpleSwitchArrangement;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);764;5. Selected Applications of Opamp;5.4;5.4. ProbOnZenerCurrentAndVoltage;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);764;5. Selected Applications of Opamp;5.5;5.5. ProbOnOpampParameters;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);764;5. Selected Applications of Opamp;5.6;5.6. ProbOnOpampParameters;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);764;5. Selected Applications of Opamp;5.7;5.7. ProbOnOpampParameters;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);764;5. Selected Applications of Opamp;5.8;5.8. ProbOnShortCircuitCurrent;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);764;5. Selected Applications of Opamp;5.9;5.9. ProbOnPhotoDetectors;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);765;6. Signal Generators;6.1;6.1. ProbOnThresholdVoltage;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);765;6. Signal Generators;6.10;6.10. ProbOnFrequency;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);765;6. Signal Generators;6.12;6.12. ProbOnAD639A;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);765;6. Signal Generators;6.13;6.13. ProbOnFrequency;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);765;6. Signal Generators;6.2;6.2. ProbOnMultivibrator;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);765;6. Signal Generators;6.3;6.3. ProbOnFrequency;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);765;6. Signal Generators;6.5;6.5. ProbOnDurationOfOutputPulse;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);765;6. Signal Generators;6.6;6.6. ProbonTriangularGenerator;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);765;6. Signal Generators;6.7;6.7. ProbOnUnipolarTriangularWaveGenerator;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);765;6. Signal Generators;6.8;6.8. DesignOnSawtoothWaveGenerator;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);765;6. Signal Generators;6.9;6.9. ProbOnFrequency;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);766;7. OpAmps With Diodes;7.1;7.1. ProbOnDeadZoneCircuit;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);767;8. Differential Instrumentation and Bridge Amplifiers;8.1;8.1. ProbOnOutputVoltage;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);767;8. Differential Instrumentation and Bridge Amplifiers;8.10;8.10. ProbOnWheatstoneBridge;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);767;8. Differential Instrumentation and Bridge Amplifiers;8.11;8.11. ProbOnAD620;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);767;8. Differential Instrumentation and Bridge Amplifiers;8.2;8.2. ProbOnDifferentialAmplifier;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);767;8. Differential Instrumentation and Bridge Amplifiers;8.3;8.3. ProbOnVoltageGain;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);767;8. Differential Instrumentation and Bridge Amplifiers;8.4;8.4. ProbOnVoltageGain;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);767;8. Differential Instrumentation and Bridge Amplifiers;8.5;8.5. ProbOnInstrumentationAmplifier;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);767;8. Differential Instrumentation and Bridge Amplifiers;8.6;8.6. ProbOnCollectorVoltage;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);767;8. Differential Instrumentation and Bridge Amplifiers;8.7;8.7. ProbOnVoltages;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);767;8. Differential Instrumentation and Bridge Amplifiers;8.8;8.8. ProbOnVtoIConverter;correct;runtime; -196;Operational Amplifiers And Linear Integrated Circuits(R. F. Coughlin And F. F. Driscoll);767;8. Differential Instrumentation and Bridge Amplifiers;8.9;8.9. ProbOnStrainGage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);854;1. Introduction to Operational Amplifier;1.1.a;1.1.a. Collector current and dc voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);854;1. Introduction to Operational Amplifier;1.1.b;1.1.b. Voltage gain of the opamp;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);854;1. Introduction to Operational Amplifier;1.1.c;1.1.c. Input resistance of the opamp;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);660;2. Interpretation of Data Sheets and Characteristics of an Opamp;2.1.a;2.1.a. Output voltage for Openloop differential amplifier;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);660;2. Interpretation of Data Sheets and Characteristics of an Opamp;2.1.b;2.1.b. Output voltage for openloop differential amplifier;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);660;2. Interpretation of Data Sheets and Characteristics of an Opamp;2.2.a;2.2.a. Output voltage for inverting amplifier;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);660;2. Interpretation of Data Sheets and Characteristics of an Opamp;2.2.b;2.2.b. Output voltage for inverting amplifier;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);661;3. An Opamp with Negative Feedback;3.1;3.1. Parameters Of voltageseries feedback amplifier;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);661;3. An Opamp with Negative Feedback;3.2;3.2. Parameters Of voltageseries feedback amplifier;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);661;3. An Opamp with Negative Feedback;3.3;3.3. Parameters of Voltageshunt feedback amplifier;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);661;3. An Opamp with Negative Feedback;3.4;3.4. Output voltage of voltage shunt feedback amplifier;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);661;3. An Opamp with Negative Feedback;3.5.a;3.5.a. Gain input resistance of the amplifier;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);661;3. An Opamp with Negative Feedback;3.5.b;3.5.b. Output voltage of an Opamp;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);661;3. An Opamp with Negative Feedback;3.6.a;3.6.a. Voltage gain and input resistance of the Opamp;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);661;3. An Opamp with Negative Feedback;3.6.b;3.6.b. Output voltage of the Opamp;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.1;4.1. Design of Compensating Network;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.10.a;4.10.a. Error voltage and output voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.10.b;4.10.b. Error voltage and output voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.11.a;4.11.a. Output offset voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.11.b;4.11.b. Output offset voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.12;4.12. Output ripple voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.13;4.13. Change in output offset voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.14.a;4.14.a. Output voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.14.b;4.14.b. Output common mode voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.2;4.2. Max Output offset voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.3;4.3. Design of input offset voltage compensating network;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.4.a;4.4.a. Max Output offset voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.4.b;4.4.b. Effect of input bias current;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.5.a;4.5.a. Max Output offset voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.5.b;4.5.b. Effect of input bias current;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.6;4.6. Max Output offset voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.7;4.7. Total Output offset voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.8.a;4.8.a. Error voltage and output voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.8.b;4.8.b. Error voltage and output voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.9.a;4.9.a. Error voltage and output voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);768;4. The Practical Opamp;4.9.b;4.9.b. Output waveform;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);856;5. Frequency Response of an Opamp;5.1;5.1. Maximum gain;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);856;5. Frequency Response of an Opamp;5.2;5.2. Gain equation and break frequencies;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);856;5. Frequency Response of an Opamp;5.3;5.3. Stability of voltage follower;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);799;6. General Linear Applications;6.1;6.1. Bandwidth of the amplifier;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);799;6. General Linear Applications;6.10;6.10. Range of input voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);799;6. General Linear Applications;6.11;6.11. Current and voltage drop;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);799;6. General Linear Applications;6.12.a;6.12.a. Load current;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);799;6. General Linear Applications;6.12.b;6.12.b. Output voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);799;6. General Linear Applications;6.13;6.13. Range of output voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);799;6. General Linear Applications;6.14;6.14. Change in output voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);799;6. General Linear Applications;6.15;6.15. Output voltage of an integrator;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);799;6. General Linear Applications;6.16.a;6.16.a. Design of differentiator;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);799;6. General Linear Applications;6.16.b;6.16.b. Output waveform of differentiator;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);799;6. General Linear Applications;6.2.a;6.2.a. Bandwidth of the amplifier;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);799;6. General Linear Applications;6.2.b;6.2.b. Max output voltage swing;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);799;6. General Linear Applications;6.3;6.3. Components of peak amplifier;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);799;6. General Linear Applications;6.4;6.4. Output voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);799;6. General Linear Applications;6.5;6.5. Output voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);799;6. General Linear Applications;6.6;6.6. Output voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);799;6. General Linear Applications;6.7;6.7. Output voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);799;6. General Linear Applications;6.8;6.8. Change in resistance in straingage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);799;6. General Linear Applications;6.9;6.9. Gain of the amplifier;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.1;7.1. Design of low pass filter;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.10;7.10. Design of notch filter;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.11;7.11. Phase angle;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.12;7.12. Design of phase shift oscillator;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.13;7.13. Design of wein bridge oscillator;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.14;7.14. Design of quadrature oscillator;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.15;7.15. Design of squarewave oscillator;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.16;7.16. Design of triangular wave generator;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.17.a;7.17.a. Nominal frequency;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.17.b;7.17.b. Modulation in output frequency;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.2;7.2. Design of low pass filter;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.3;7.3. Frequency response of low pass filter;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.4.a;7.4.a. Design of second order low pass filter;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.4.b;7.4.b. Frequency response of second order highpass filter;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.5.a;7.5.a. Design of highpass filter;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.5.b;7.5.b. Frequency response of highpass filter;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.6.a;7.6.a. Determination of low cutoff frequency;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.6.b;7.6.b. Frequency response of second order highpass filter;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.7.a;7.7.a. Design of wide bandpass filter;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.7.b;7.7.b. Frequency response of bandpass filter;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.7.c;7.7.c. Calculation of quality factor;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.8.a;7.8.a. Design of narrow bandpass filter;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.8.b;7.8.b. Design of narrow bandpass filter;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);801;7. Active Filters and Oscillators;7.9;7.9. Design of wide bandreject filter;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);884;8. Comparators and Converters;8.1;8.1. Threshold voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);884;8. Comparators and Converters;8.2;8.2. Output voltage swing;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);884;8. Comparators and Converters;8.3;8.3. Output frequencies;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);884;8. Comparators and Converters;8.4;8.4. Output voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);884;8. Comparators and Converters;8.5;8.5. Output voltage;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);769;9. Specialized IC Applications;9.1;9.1. Second order inverting butterworth lowpass filter;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);769;9. Specialized IC Applications;9.10;9.10. Design of current source;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);769;9. Specialized IC Applications;9.11;9.11. Design of voltage regulator;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);769;9. Specialized IC Applications;9.12;9.12. Design of stepdown switching regulator;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);769;9. Specialized IC Applications;9.13;9.13. Design of stepdown switching regulator;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);769;9. Specialized IC Applications;9.2;9.2. Second order inverting butterworth bandpass filter;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);769;9. Specialized IC Applications;9.3;9.3. Design of notch filter;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);769;9. Specialized IC Applications;9.4;9.4. Second order butterworth lowpass filter;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);769;9. Specialized IC Applications;9.5;9.5. Value of capacitor;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);769;9. Specialized IC Applications;9.6;9.6. Value of resistor;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);769;9. Specialized IC Applications;9.7;9.7. Value of tc td and f0;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);769;9. Specialized IC Applications;9.8;9.8. Freq of free running ramp generator;correct;runtime; -199;Op-Amps And Linear Integrated Circuits(R. A. Gayakwad);769;9. Specialized IC Applications;9.9;9.9. Value of fout fl fc;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);681;2. Kinematics of Motion;2.1;2.1. To Find the Acceleration and Distance;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);681;2. Kinematics of Motion;2.3;2.3. To Find the Velocity;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);681;2. Kinematics of Motion;2.5;2.5. To Find the Maximum Cutting Speed;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);681;2. Kinematics of Motion;2.6;2.6. To Find the Angular Acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);681;2. Kinematics of Motion;2.7;2.7. To Find Velocity and Acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);699;3. Kinetics of Motion;3.1;3.1. To find the angular acceleration and KE;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);699;3. Kinetics of Motion;3.10;3.10. To find the angular velocities;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);699;3. Kinetics of Motion;3.11;3.11. To find the velocity impulse angle of swing and average force;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);699;3. Kinetics of Motion;3.12;3.12. To find the speed time and KE lost;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);699;3. Kinetics of Motion;3.13;3.13. To find the acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);699;3. Kinetics of Motion;3.18;3.18. To find the torque;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);699;3. Kinetics of Motion;3.19;3.19. To find velocities and loss of KE;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);699;3. Kinetics of Motion;3.2;3.2. To find the time torque and power;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);699;3. Kinetics of Motion;3.20;3.20. To find the speed and energy dissipated;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);699;3. Kinetics of Motion;3.21;3.21. To find strain energy twist and speed;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);699;3. Kinetics of Motion;3.3;3.3. To find the reduction of speed;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);699;3. Kinetics of Motion;3.4;3.4. To find the torque and power;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);699;3. Kinetics of Motion;3.5;3.5. To find the KE and braking force;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);699;3. Kinetics of Motion;3.7;3.7. To Find the Speed and Energy Lost;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);699;3. Kinetics of Motion;3.8;3.8. To find the velocity KE and compression;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);699;3. Kinetics of Motion;3.9;3.9. To find energy lost and resistance;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);680;4. Simple Harmonic Motion;4.1;4.1. To Find the Velocity and Acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);680;4. Simple Harmonic Motion;4.10;4.10. To Find the Radius of Gyration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);680;4. Simple Harmonic Motion;4.11;4.11. To Find the Mass Moment of Inertia;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);680;4. Simple Harmonic Motion;4.2;4.2. To Find the Angular Velocity Time and Acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);680;4. Simple Harmonic Motion;4.3;4.3. To Find the Frequency and Velocity;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);680;4. Simple Harmonic Motion;4.4;4.4. To Find the Frequency of Oscillation;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);680;4. Simple Harmonic Motion;4.5;4.5. To Find the Moment of Inertia;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);680;4. Simple Harmonic Motion;4.6;4.6. To Find the Moment of Inertia;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);680;4. Simple Harmonic Motion;4.7;4.7. To Find the Time of Swing;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);680;4. Simple Harmonic Motion;4.8;4.8. To Find Centre of Percussion and Impulse;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);680;4. Simple Harmonic Motion;4.9;4.9. To Find the Radius of Gyration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);700;5. Simple Mechanisms;5.1;5.1. To find the time ratio;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);700;5. Simple Mechanisms;5.2;5.2. To find the time ratio;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);700;5. Simple Mechanisms;5.3;5.3. To find the dimensions of AC and AP;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);700;5. Simple Mechanisms;5.4;5.4. To find the time ratio;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);701;6. Velocity in Mechanisms Instantaneous Centre Method;6.1;6.1. To find the angular velocity;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);701;6. Velocity in Mechanisms Instantaneous Centre Method;6.2;6.2. To find velocity and angular velocity;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);701;6. Velocity in Mechanisms Instantaneous Centre Method;6.3;6.3. To find velocity and angular velocity;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);701;6. Velocity in Mechanisms Instantaneous Centre Method;6.4;6.4. To find the velocity;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);701;6. Velocity in Mechanisms Instantaneous Centre Method;6.5;6.5. To find the velocity;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);701;6. Velocity in Mechanisms Instantaneous Centre Method;6.6;6.6. To find the velocity of ram;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);716;7. Velocity in Mechanisms Relative Velocity Method;7.1;7.1. To find the angular velocity;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);716;7. Velocity in Mechanisms Relative Velocity Method;7.10;7.10. To find velocity and resisting torque;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);716;7. Velocity in Mechanisms Relative Velocity Method;7.11;7.11. To find velocity ratio;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);716;7. Velocity in Mechanisms Relative Velocity Method;7.12;7.12. To find velocity angular velocity and torque;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);716;7. Velocity in Mechanisms Relative Velocity Method;7.13;7.13. To find the velocities;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);716;7. Velocity in Mechanisms Relative Velocity Method;7.2;7.2. To find velocities angular velocities and position;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);716;7. Velocity in Mechanisms Relative Velocity Method;7.3;7.3. To find the velocity;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);716;7. Velocity in Mechanisms Relative Velocity Method;7.4;7.4. To find velocity angular velocity and rubbing speed;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);716;7. Velocity in Mechanisms Relative Velocity Method;7.5;7.5. To find velocity and angular velocity;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);716;7. Velocity in Mechanisms Relative Velocity Method;7.6;7.6. To find the absolute velocity;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);716;7. Velocity in Mechanisms Relative Velocity Method;7.7;7.7. To find linear and angular velocity;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);716;7. Velocity in Mechanisms Relative Velocity Method;7.8;7.8. To find speed and time ratio;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);716;7. Velocity in Mechanisms Relative Velocity Method;7.9;7.9. To find velocity and angular velocity;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);741;8. Acceleration in Mechanisms;8.1;8.1. To find linear and agular velocity and acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);741;8. Acceleration in Mechanisms;8.10;8.10. To find velocity torque and acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);741;8. Acceleration in Mechanisms;8.11;8.11. To find velocity and acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);741;8. Acceleration in Mechanisms;8.12;8.12. To find the velocity and acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);741;8. Acceleration in Mechanisms;8.13;8.13. To find velocity and acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);741;8. Acceleration in Mechanisms;8.14;8.14. To find the acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);741;8. Acceleration in Mechanisms;8.15;8.15. To find linear and angular acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);741;8. Acceleration in Mechanisms;8.16;8.16. To find linear and angular acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);741;8. Acceleration in Mechanisms;8.17;8.17. To find velocities and acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);741;8. Acceleration in Mechanisms;8.2;8.2. To find linear and angular velocity and acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);741;8. Acceleration in Mechanisms;8.3;8.3. To find linear and angular acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);741;8. Acceleration in Mechanisms;8.4;8.4. To find the angular velocity and acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);741;8. Acceleration in Mechanisms;8.5;8.5. To find angular velocities and accelerations;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);741;8. Acceleration in Mechanisms;8.6;8.6. To find velocities and accelerations;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);741;8. Acceleration in Mechanisms;8.7;8.7. To find linear and angular acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);741;8. Acceleration in Mechanisms;8.8;8.8. To find linear and angular velocities and accelerations;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);741;8. Acceleration in Mechanisms;8.9;8.9. To find velocity and accelerations;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);742;9. Mechanisms with Lower Pairs;9.1;9.1. To find inclination of track arm;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);742;9. Mechanisms with Lower Pairs;9.3;9.3. To find the angle turned;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);742;9. Mechanisms with Lower Pairs;9.4;9.4. To find the greatest permissible angle;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);742;9. Mechanisms with Lower Pairs;9.5;9.5. To find speeds and permissible angle;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);742;9. Mechanisms with Lower Pairs;9.7;9.7. To find speeds of shafts;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.1;10.1. To find weight and coefficient of friction;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.10;10.10. To find ratio of torques and efficiency;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.11;10.11. To find work done and efficiency;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.12;10.12. To find length of lever;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.13;10.13. To find the torque required;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.14;10.14. To find the forcr;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.15;10.15. To find power transmitted;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.16;10.16. To estimate power lost in friction;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.17;10.17. To find power absorbed in friction;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.18;10.18. To find power lost in friction;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.19;10.19. To find power absorbed in friction;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.2;10.2. To find weight and coefficient of friction;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.20;10.20. To find power absorbed;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.21;10.21. To find diameter and number of collars;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.22;10.22. To find the pressure;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.23;10.23. To find power transmitted;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.24;10.24. To find radii and axial thrust;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.25;10.25. To find dimensions of clutch plate;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.26;10.26. To find dimensions of clutch plate;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.27;10.27. To find speed time and KE lost;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.28;10.28. To find the power transmitted;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.29;10.29. To find maximum intensity of pressure;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.3;10.3. To estimate the power;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.30;10.30. To find maximum power transmitted;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.31;10.31. To find dimensions and axial load;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.32;10.32. To find axial force and face width;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.33;10.33. To find dimensions of contact surfaces;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.34;10.34. To find time required and energy lost;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.35;10.35. To find mass and size of shoes;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.36;10.36. To fnd power transmitted;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.4;10.4. To find work done;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.5;10.5. To find the torque required;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.6;10.6. To find force required;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.7;10.7. To find diameter of hand wheel;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.8;10.8. To find the power required;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);745;10. Friction;10.9;10.9. To find the force applied;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.1;11.1. To find speed of shaft;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.10;11.10. To find greatest power transmitted;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.11;11.11. To find torque power and efficiency;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.12;11.12. To find power transmitted;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.13;11.13. To find power trnasmitted;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.14;11.14. To find diameter power and tension;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.15;11.15. To find width tension and length;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.16;11.16. To find power transmitted;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.17;11.17. To find power and shaft speed;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.18;11.18. To find maximum power transmitted;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.19;11.19. To find number of V belts;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.2;11.2. To find speed lost;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.20;11.20. To find number of ropes required;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.21;11.21. To find speed of pulley;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.22;11.22. To find initial tension and diameter;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.23;11.23. To find pitch and length of chain;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.3;11.3. To find radii of stepped pulleys;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.4;11.4. To find the power transmitted;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.5;11.5. To find force and power;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.6;11.6. To find length and power transmitted;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.7;11.7. To find stress in the belt;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.8;11.8. To find width of the belt;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);753;11. Belt Rope and Chain Drives;11.9;11.9. To find width of the belt;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);757;12. Toothed Gearing;12.1;12.1. To find total load;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);757;12. Toothed Gearing;12.10;12.10. To find number of teeth;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);757;12. Toothed Gearing;12.11;12.11. To find addenda and velocity;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);757;12. Toothed Gearing;12.12;12.12. To find sliding velocities and contact ratio;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);757;12. Toothed Gearing;12.13;12.13. To find teeth and velocity;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);757;12. Toothed Gearing;12.14;12.14. To find pressure angle and teeth;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);757;12. Toothed Gearing;12.15;12.15. To find axial thrust;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);757;12. Toothed Gearing;12.16;12.16. To find teeth distance and efficiency;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);757;12. Toothed Gearing;12.17;12.17. To find angle teeth and efficiency;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);757;12. Toothed Gearing;12.2;12.2. To find addendum;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);757;12. Toothed Gearing;12.3;12.3. To find length of path of contact;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);757;12. Toothed Gearing;12.4;12.4. To find angle and maximum velocity;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);757;12. Toothed Gearing;12.5;12.5. To find velocity and angle turned;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);757;12. Toothed Gearing;12.6;12.6. To find teeth angle and ratio;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);757;12. Toothed Gearing;12.7;12.7. To find length of path of contact;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);757;12. Toothed Gearing;12.8;12.8. To find path and arc of contact;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);757;12. Toothed Gearing;12.9;12.9. To find number of teeth;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.1;13.1. To find speed of gear F;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.10;13.10. To find angular velocities;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.11;13.11. To find angular velocities;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.12;13.12. To find speed of shaft;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.14;13.14. To find number of teeth and speed;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.15;13.15. To find velocity ratio;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.16;13.16. To find speed of shaft;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.17;13.17. To find speed of output shaft;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.18;13.18. To find speed of road wheel;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.19;13.19. To find torque exerted;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.2;13.2. To design the gears;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.20;13.20. To find teeth and torque;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.21;13.21. To find speed direction and torque;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.22;13.22. To find holding torque;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.23;13.23. To find speed direction and torque;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.24;13.24. To find torque and forces;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.3;13.3. To find the number of teeth;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.4;13.4. To find speed of gear B;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.5;13.5. To find speed of gear C;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.6;13.6. To find speed of gears B and C;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.7;13.7. To find revolutions of arm;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.8;13.8. To find teeth and speed;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);773;13. Gear Trains;13.9;13.9. To find number of teeth;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);794;14. Gyroscopic Couple and Precessional Motion;14.1;14.1. To find speed of precession;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);794;14. Gyroscopic Couple and Precessional Motion;14.10;14.10. To find centrifugal and gyroscopic effects;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);794;14. Gyroscopic Couple and Precessional Motion;14.12;14.12. To find load on each wheel;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);794;14. Gyroscopic Couple and Precessional Motion;14.13;14.13. To find pressure on each rail;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);794;14. Gyroscopic Couple and Precessional Motion;14.14;14.14. To find gyroscopic couple and reaction;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);794;14. Gyroscopic Couple and Precessional Motion;14.15;14.15. To find angle of inclination;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);794;14. Gyroscopic Couple and Precessional Motion;14.16;14.16. To find inclination of gyrowheel;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);794;14. Gyroscopic Couple and Precessional Motion;14.17;14.17. To find the gyroscopic couple;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);794;14. Gyroscopic Couple and Precessional Motion;14.2;14.2. To find the resultant reaction;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);794;14. Gyroscopic Couple and Precessional Motion;14.3;14.3. To find gyroscopic couple;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);794;14. Gyroscopic Couple and Precessional Motion;14.4;14.4. To find gyroscopic couple;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);794;14. Gyroscopic Couple and Precessional Motion;14.5;14.5. To find gyroscopic couple and direction;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);794;14. Gyroscopic Couple and Precessional Motion;14.6;14.6. To find gyroscopic couple and effect;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);794;14. Gyroscopic Couple and Precessional Motion;14.7;14.7. To find gyroscopic couple and acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);794;14. Gyroscopic Couple and Precessional Motion;14.8;14.8. To find the gyroscopic effects;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);794;14. Gyroscopic Couple and Precessional Motion;14.9;14.9. To find maximum acceleration during pitching;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.1;15.1. To find linear and angular velocity and acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.10;15.10. To find reaction thrust and turning moment;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.11;15.11. To find force load thrust and speed;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.12;15.12. To find turning moment thrust and acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.13;15.13. To find effort thrust and turning moment;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.14;15.14. To find turning moment;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.15;15.15. To find equivalent system;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.16;15.16. To find equivalent system;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.17;15.17. To find radius and MI;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.18;15.18. To find correcting couple;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.19;15.19. To find acceleration and inertia force;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.2;15.2. To find linear and angular velocity and acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.20;15.20. To find torque exerted;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.21;15.21. To find acceleration and inertia torque;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.22;15.22. To find resultant force;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.3;15.3. To find crank angle and velocity;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.4;15.4. To find velocity and acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.5;15.5. To find linear and angualr velocity and acceleration;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.6;15.6. To find inertia force;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.7;15.7. To find pressure thrust force and moment;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.8;15.8. To find turning moment;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);796;15. Inertia Forces in Reciprocating Parts;15.9;15.9. To find load thrust reaction and speed;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.1;16.1. To find maximum and minimum speeds;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.10;16.10. To find mass of the rim;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.12;16.12. To find fluctuation of energy and speed;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.13;16.13. To find power fluctuation and torque;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.14;16.14. To find diameter and cross section;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.15;16.15. To find mass and cross section;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.16;16.16. To find MI and dimensions;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.17;16.17. To find MI and size;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.18;16.18. To find diameter and cross section;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.19;16.19. To find power and mass;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.2;16.2. To find angular acceleration and KE;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.20;16.20. To find power and mass;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.21;16.21. To find speed and number of rivets;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.22;16.22. To find mass of the flywheel;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.23;16.23. To find power and cross section;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.3;16.3. To find weight of flywheel;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.4;16.4. To find coefficient of fluctuation of speed;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.5;16.5. To find mass of the flywheel;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.6;16.6. To find power and speed fluctuation;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.7;16.7. To find coefficient of fluctuation;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.8;16.8. To find power and coefficients;correct;runtime; -213;Theory Of Machines(R. S. Khurmi And J. K. Gupta);800;16. Turning Moment Diagrams and Flywheel;16.9;16.9. To find moment of inertia;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);770;2. Basic components and Electric Circuits;2.1;2.1. Power;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);770;2. Basic components and Electric Circuits;2.2;2.2. Dependent sources;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);770;2. Basic components and Electric Circuits;2.3;2.3. Ohm law;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);770;2. Basic components and Electric Circuits;2.4;2.4. Ohm law;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);771;3. Voltage and Current laws;3.1;3.1. Kirchoff current law;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH3/EX3.1/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);771;3. Voltage and Current laws;3.11;3.11. Resistors in series and parallel;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH3/EX3.11/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);771;3. Voltage and Current laws;3.13;3.13. Voltage and Current division;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH3/EX3.13/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);771;3. Voltage and Current laws;3.14;3.14. Voltage and Current division;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH3/EX3.14/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);771;3. Voltage and Current laws;3.2;3.2. Kirchoff voltage law;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH3/EX3.2/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);771;3. Voltage and Current laws;3.3;3.3. Kirchoff voltage law;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH3/EX3.3/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);771;3. Voltage and Current laws;3.4;3.4. Kirchoff voltage law;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH3/EX3.4/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);771;3. Voltage and Current laws;3.5;3.5. The Single Loop Circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH3/EX3.5/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);771;3. Voltage and Current laws;3.6;3.6. The single node pair circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH3/EX3.6/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);771;3. Voltage and Current laws;3.9;3.9. Series and Parallel connected sources;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH3/EX3.9/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);772;4. Basic Nodal and Mesh Analysis;4.1;4.1. Nodal analysis;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH4/EX4.1/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);772;4. Basic Nodal and Mesh Analysis;4.10;4.10. Mesh analysis;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH4/EX4.10/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);772;4. Basic Nodal and Mesh Analysis;4.11;4.11. The Supermesh;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH4/EX4.11/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);772;4. Basic Nodal and Mesh Analysis;4.12;4.12. The Supermesh;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH4/EX4.12/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);772;4. Basic Nodal and Mesh Analysis;4.2;4.2. Nodal analysis;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH4/EX4.2/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);772;4. Basic Nodal and Mesh Analysis;4.5;4.5. The supernode;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH4/EX4.5/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);772;4. Basic Nodal and Mesh Analysis;4.6;4.6. The supernode;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH4/EX4.6/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);772;4. Basic Nodal and Mesh Analysis;4.7;4.7. Mesh analysis;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH4/EX4.7/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);772;4. Basic Nodal and Mesh Analysis;4.8;4.8. Mesh analysis;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH4/EX4.8/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);772;4. Basic Nodal and Mesh Analysis;4.9;4.9. Mesh analysis;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH4/EX4.9/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);885;6. Network Theorems and useful Circuit Analysis Techniques;6.1;6.1. The Superposition principle;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH6/EX6.1/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);885;6. Network Theorems and useful Circuit Analysis Techniques;6.10;6.10. The Superposition principle;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);885;6. Network Theorems and useful Circuit Analysis Techniques;6.11;6.11. Thevenin and Norton Equivalent circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH6/EX6.11/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);885;6. Network Theorems and useful Circuit Analysis Techniques;6.13;6.13. Thevenin and Norton Equivalent circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH6/EX6.13/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);885;6. Network Theorems and useful Circuit Analysis Techniques;6.14;6.14. Thevenin and Norton Equivalent circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH6/EX6.14/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);885;6. Network Theorems and useful Circuit Analysis Techniques;6.15;6.15. Thevenin and Norton Equivalent circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH6/EX6.15/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);885;6. Network Theorems and useful Circuit Analysis Techniques;6.16;6.16. Maximum power transfer;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH6/EX6.16/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);885;6. Network Theorems and useful Circuit Analysis Techniques;6.17;6.17. Reciprocity Theorem;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);885;6. Network Theorems and useful Circuit Analysis Techniques;6.18;6.18. Reciprocity Theorem;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);885;6. Network Theorems and useful Circuit Analysis Techniques;6.19;6.19. Millman Theorem;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);885;6. Network Theorems and useful Circuit Analysis Techniques;6.20;6.20. Compensation Theorem;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH6/EX6.20/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);885;6. Network Theorems and useful Circuit Analysis Techniques;6.21;6.21. Compensation Theorem;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH6/EX6.21/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);885;6. Network Theorems and useful Circuit Analysis Techniques;6.22;6.22. Tellegen Theorem;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);885;6. Network Theorems and useful Circuit Analysis Techniques;6.23;6.23. Source Transformations;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH6/EX6.23/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);885;6. Network Theorems and useful Circuit Analysis Techniques;6.24;6.24. Source Transformations;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH6/EX6.24/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);885;6. Network Theorems and useful Circuit Analysis Techniques;6.3;6.3. The Superposition principle;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH6/EX6.3/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);885;6. Network Theorems and useful Circuit Analysis Techniques;6.4;6.4. The Superposition principle;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH6/EX6.4/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);885;6. Network Theorems and useful Circuit Analysis Techniques;6.5;6.5. The Superposition principle;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH6/EX6.5/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);885;6. Network Theorems and useful Circuit Analysis Techniques;6.6;6.6. The Superposition principle;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH6/EX6.6/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);885;6. Network Theorems and useful Circuit Analysis Techniques;6.8;6.8. The Superposition principle;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH6/EX6.8/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);900;7. Capacitors and Inductors;7.1;7.1. The Capacitor;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);900;7. Capacitors and Inductors;7.11;7.11. Modeling Capacitors and Inductors;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH7/EX7.11/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);900;7. Capacitors and Inductors;7.2;7.2. The Capacitor;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);900;7. Capacitors and Inductors;7.3;7.3. The Capacitor;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);900;7. Capacitors and Inductors;7.7;7.7. The Inductor;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);886;8. Basic RL and RC circuits;8.1;8.1. The Source free RL Circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH8/EX8.1/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);886;8. Basic RL and RC circuits;8.10;8.10. Driven RC circuits;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH8/EX8.10/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);886;8. Basic RL and RC circuits;8.11;8.11. Driven RC circuits;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH8/EX8.11/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);886;8. Basic RL and RC circuits;8.2;8.2. The Source free RL Circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH8/EX8.2/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);886;8. Basic RL and RC circuits;8.3;8.3. The Source free RC Circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH8/EX8.3/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);886;8. Basic RL and RC circuits;8.4;8.4. A more General Perspective;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH8/EX8.4/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);886;8. Basic RL and RC circuits;8.8;8.8. Natural and Forced Response;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH8/EX8.8/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);901;9. The RLC Circuit;9.1;9.1. The Source free parallel circuit;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);901;9. The RLC Circuit;9.2;9.2. The Overdamped parallel circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH9/EX9.2/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);901;9. The RLC Circuit;9.3;9.3. The Overdamped parallel circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH9/EX9.3/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);901;9. The RLC Circuit;9.4;9.4. Graphical Representation of Overdamped response;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);901;9. The RLC Circuit;9.6;9.6. The Underdamped parallel RLC circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH9/EX9.6/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);901;9. The RLC Circuit;9.7;9.7. The Source free series RLC Circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH9/EX9.7/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);901;9. The RLC Circuit;9.8;9.8. The Source free series RLC Circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH9/EX9.8/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);901;9. The RLC Circuit;9.9;9.9. The Complete response of RLC circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH9/EX9.9/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);887;10. Sinusoidal Steady state Analysis;10.1;10.1. Forced Response to sinusoidal functions;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH10/EX10.1/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);887;10. Sinusoidal Steady state Analysis;10.10;10.10. Superposition Source Transformations and Thevenin theorem;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH10/EX10.10/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);887;10. Sinusoidal Steady state Analysis;10.11;10.11. Superposition Source Transformations and Thevenin theorem;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH10/EX10.11/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);887;10. Sinusoidal Steady state Analysis;10.4;10.4. The Inductor;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);887;10. Sinusoidal Steady state Analysis;10.6;10.6. Impedance;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH10/EX10.6/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);887;10. Sinusoidal Steady state Analysis;10.7;10.7. Nodal and Mesh analysis;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH10/EX10.7/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);887;10. Sinusoidal Steady state Analysis;10.8;10.8. Nodal and Mesh analysis;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH10/EX10.8/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);887;10. Sinusoidal Steady state Analysis;10.9;10.9. Superposition Source Transformations and Thevenin theorem;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH10/EX10.9/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);889;11. AC Circuit Power Analysis;11.1;11.1. Instantaneous Power;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);889;11. AC Circuit Power Analysis;11.2;11.2. Average Power;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);889;11. AC Circuit Power Analysis;11.3;11.3. Average Power;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);889;11. AC Circuit Power Analysis;11.4;11.4. Average Power;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);889;11. AC Circuit Power Analysis;11.6;11.6. Average Power for Non periodic Functions;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);889;11. AC Circuit Power Analysis;11.7;11.7. Average Power for Non periodic Functions;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);889;11. AC Circuit Power Analysis;11.8;11.8. Apparent Power and Power factor;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);889;11. AC Circuit Power Analysis;11.9;11.9. Complex Power;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);890;12. Polyphase Circuits;12.1;12.1. Single phase three wire systems;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH12/EX12.1/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);890;12. Polyphase Circuits;12.2;12.2. Three phase Wye connection;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);890;12. Polyphase Circuits;12.3;12.3. Three phase Wye connection;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);890;12. Polyphase Circuits;12.4;12.4. Three phase Wye connection;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);890;12. Polyphase Circuits;12.5;12.5. The Delta connection;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);890;12. Polyphase Circuits;12.6;12.6. The Delta connection;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);890;12. Polyphase Circuits;12.7;12.7. Power measurement in three phase systems;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);902;13. Magnetically coupled circuits;13.2;13.2. Mutual Inductance;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);902;13. Magnetically coupled circuits;13.4;13.4. Energy considerations;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);902;13. Magnetically coupled circuits;13.5;13.5. T and PI equivalent networks;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);902;13. Magnetically coupled circuits;13.6;13.6. T and PI equivalent networks;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);902;13. Magnetically coupled circuits;13.7;13.7. The Ideal Transformer;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH13/EX13.7/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);902;13. Magnetically coupled circuits;13.8;13.8. Equivalent Circuits;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);903;14. Complex frequency and the Laplace Transform;14.10;14.10. The time shift theorem;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);903;14. Complex frequency and the Laplace Transform;14.11;14.11. The Initial and Final value theorems;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);903;14. Complex frequency and the Laplace Transform;14.2;14.2. Definition of the Laplace Transform;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);903;14. Complex frequency and the Laplace Transform;14.3;14.3. Inverse Transform Techniques;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);903;14. Complex frequency and the Laplace Transform;14.4;14.4. Inverse Transform Techniques;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);903;14. Complex frequency and the Laplace Transform;14.5;14.5. Inverse Transform Techniques;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);903;14. Complex frequency and the Laplace Transform;14.6;14.6. Inverse Transform Techniques;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);903;14. Complex frequency and the Laplace Transform;14.7;14.7. Basic Theorems for the Laplace Transform;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);903;14. Complex frequency and the Laplace Transform;14.8;14.8. Basic Theorems for the Laplace Transform;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);903;14. Complex frequency and the Laplace Transform;14.9;14.9. Basic Theorems for the Laplace Transform;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);898;15. Circuit Analysis in the s domain;15.1;15.1. Modeling Inductors in the s domain;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);898;15. Circuit Analysis in the s domain;15.10;15.10. Convolution and Laplace Transform;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);898;15. Circuit Analysis in the s domain;15.2;15.2. Modeling capacitors in the s domain;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);898;15. Circuit Analysis in the s domain;15.4;15.4. Nodal and Mesh analysis in s domain;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);898;15. Circuit Analysis in the s domain;15.6;15.6. Additional circuit analysis techniques;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);898;15. Circuit Analysis in the s domain;15.9;15.9. Convolution and Laplace Transform;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);897;16. Frequency Response;16.1;16.1. Parallel Resonance;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);897;16. Frequency Response;16.10;16.10. Bode diagrams;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);897;16. Frequency Response;16.11;16.11. Filters;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);897;16. Frequency Response;16.12;16.12. Filters;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);897;16. Frequency Response;16.13;16.13. Filters;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);897;16. Frequency Response;16.2;16.2. Bandwidth and high Q circuits;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);897;16. Frequency Response;16.3;16.3. Series Resonance;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);897;16. Frequency Response;16.4;16.4. Other resonant forms;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);897;16. Frequency Response;16.5;16.5. Equivalent Series and parallel combination;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);897;16. Frequency Response;16.6;16.6. Scaling;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);897;16. Frequency Response;16.8;16.8. Bode diagrams;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);888;17. Two Port Networks;17.1;17.1. One port networks;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);888;17. Two Port Networks;17.10;17.10. Transmission parameters;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);888;17. Two Port Networks;17.2;17.2. One port networks;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);888;17. Two Port Networks;17.3;17.3. One port networks;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);888;17. Two Port Networks;17.4;17.4. Admittance parameters;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH17/EX17.4/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);888;17. Two Port Networks;17.7;17.7. Some equivalent networks;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);888;17. Two Port Networks;17.8;17.8. Impedance parameters;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);888;17. Two Port Networks;17.9;17.9. Hybrid parameters;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);896;18. Fourier Circuit Analysis;18.1;18.1. Trigonometric form of the Fourier Series;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);896;18. Fourier Circuit Analysis;18.2;18.2. Complete Response to periodic Forcing Functions;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH18/EX18.2/ : NO SCILAB FILE INSIDE -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);896;18. Fourier Circuit Analysis;18.5;18.5. Definition of the Fourier Transform;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);896;18. Fourier Circuit Analysis;18.6;18.6. Physical significance of Fourier Transform;correct;runtime; -215;Engineering Circuit Analysis( W. Hayt, J. Kemmerly And S. Durbin);896;18. Fourier Circuit Analysis;18.8;18.8. The physical significance of system function;error;file_not_found;/var/www/scilab_in/uploads-backup/215/CH18/EX18.8/ : NO SCILAB FILE INSIDE -226;Electronic Devices And Circuits(D. A. Bell);744;1. basic semiconductor and pn junction theory;1.1;1.1. resultant densities;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);744;1. basic semiconductor and pn junction theory;1.2;1.2. drift current velocity;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);744;1. basic semiconductor and pn junction theory;1.3;1.3. conductivity and resistance;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);744;1. basic semiconductor and pn junction theory;1.4;1.4. reverse saturation current;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);744;1. basic semiconductor and pn junction theory;1.5;1.5. junction current;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);744;1. basic semiconductor and pn junction theory;1.6;1.6. junction forward voltage;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);760;2. semiconductor diodes;1.1;1.1. forward and reverse resistance;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);760;2. semiconductor diodes;2.1;2.1. dynamic resistance;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);760;2. semiconductor diodes;2.10;2.10. diode Vf and junction dynamic resistance;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);760;2. semiconductor diodes;2.11;2.11. diffusion capacitance;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);760;2. semiconductor diodes;2.12;2.12. minimum fall times;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);760;2. semiconductor diodes;2.14;2.14. resistor for R1 and appropriate scale;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);760;2. semiconductor diodes;2.15;2.15. maximum current;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);760;2. semiconductor diodes;2.16;2.16. diode current and power dissipation;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);760;2. semiconductor diodes;2.17;2.17. upper and lower limit of Vz;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);760;2. semiconductor diodes;2.3;2.3. diode current;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);760;2. semiconductor diodes;2.5;2.5. forward current;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);760;2. semiconductor diodes;2.6;2.6. dc load line;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);760;2. semiconductor diodes;2.8;2.8. new supply voltage;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);760;2. semiconductor diodes;2.9;2.9. maximum forward current;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;2.23;2.23. tilt on output waveform;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/226/CH2/EX2.23/: PATH DOES NOT EXIST -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.1;3.1. peak output volatge laod current peak reverse voltage;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.10;3.10. calculate surge limiting resistance;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.11;3.11. specify transformer for full wave rectifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.12;3.12. dc output voltage and outpur ripple amplitude;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.13;3.13. suitable value of L1 and C1;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.14;3.14. peak output voltage and value of L1 and C1;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.15;3.15. load and source effects and load and line regulation;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.16;3.16. circuit current;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.17;3.17. maximum load current;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.18;3.18. line regulation laod regulation and ripple rejection ratio;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.19;3.19. resistance R1 and forward and reverse current;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.2;3.2. peak output voltage and current;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.20;3.20. resistance R1 and forward current and reverse voltage;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.21;3.21. resistor for R1;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.22;3.22. zener diode and R1;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.24;3.24. suitable value of R1 and C1;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.25;3.25. capacitor voltage;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.26;3.26. determine C1 and C2;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.27;3.27. diode forward current;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.3;3.3. peak to peak voltage;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.4;3.4. required reservoir capacitance;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.5;3.5. charging and discharging time;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.6;3.6. required surge limiting resistance;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.7;3.7. transformer for half wave rectifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.8;3.8. required reservoir capacitance;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);761;3. Diode applications;3.9;3.9. required reservoir capacitance;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);762;4. Bipolar junction transistors;4.1;4.1. calculate Ic and Ie;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);762;4. Bipolar junction transistors;4.2;4.2. new base current;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);762;4. Bipolar junction transistors;4.3;4.3. dc collector voltage and circuit voltage gain;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);762;4. Bipolar junction transistors;4.4;4.4. calculate Ic Ib and hFE;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);762;4. Bipolar junction transistors;4.6;4.6. determine Ib and Ic;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.1;5.1. new dc load line;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.10;5.10. analyze voltage divider bais circuit for hFE is 200;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.11;5.11. design base bias circuit;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.12;5.12. collector to base bais circuit;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.13;5.13. design voltage divider bais circuit;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.14;5.14. design voltage divider bais circuit;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.15;5.15. design bais circuit operate from 18V supply;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.16;5.16. design bais circuit operate from 9V supply;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.17;5.17. stability factors for three bias circuit;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.18;5.18. determine Ic change when tempreture increases;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.19;5.19. change in Ic by effect of change in Vbe;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.2;5.2. circuit Q point;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.20;5.20. calculate minimum hFE and transistor Vce;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.21;5.21. calculate minimum hFE for transistor;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.22;5.22. deremine suitable resistancefor Rb and Rc;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.23;5.23. suitable resistor for capacitor coupled switching;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.3;5.3. determine Ib Ic and Vce;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.4;5.4. maximum and minimum level of Ic and Vce;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.5;5.5. determine Ib Ic and Vce;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.7;5.7. emitter voltage collector voltage and collector and emitter voltage;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.8;5.8. determine Ic Ve Vc vce;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);763;5. BJT biasing;5.9;5.9. analyze voltage divider bais circuit for hFE 50;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);774;6. Ac analysis of BJT circuits;6.1;6.1. calculate base bais voltage;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);774;6. Ac analysis of BJT circuits;6.10;6.10. circuit input and output impedance and voltage gain;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);774;6. Ac analysis of BJT circuits;6.11;6.11. input impedance and voltage gain when C1 is disconnected;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);774;6. Ac analysis of BJT circuits;6.12;6.12. calculate vo;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);774;6. Ac analysis of BJT circuits;6.13;6.13. calculate Ic Ie and Ib;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);774;6. Ac analysis of BJT circuits;6.2;6.2. Dc and Ac load line;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);774;6. Ac analysis of BJT circuits;6.3;6.3. determine hfe and hoe;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);774;6. Ac analysis of BJT circuits;6.4;6.4. calculate hfc hob and alfa;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);774;6. Ac analysis of BJT circuits;6.5;6.5. estimate the CE input resistance;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);774;6. Ac analysis of BJT circuits;6.6;6.6. circuit input and output impedance voltage gain;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);774;6. Ac analysis of BJT circuits;6.7;6.7. estimate re and circuit voltage gain;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);774;6. Ac analysis of BJT circuits;6.8;6.8. circuit input and output impedance and voltage gain;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);774;6. Ac analysis of BJT circuits;6.9;6.9. circuit input and output impedance with Rl not connected;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);775;8. BJT specifications and performance;8.10;8.10. total noise output voltage for amlifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);775;8. BJT specifications and performance;8.11;8.11. calculate maximum Ic;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);775;8. BJT specifications and performance;8.13;8.13. maximum power dissipation;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);775;8. BJT specifications and performance;8.14;8.14. thermal resistance;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);775;8. BJT specifications and performance;8.2;8.2. output power change;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);775;8. BJT specifications and performance;8.3;8.3. output power change;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);775;8. BJT specifications and performance;8.4;8.4. input capacitance;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);775;8. BJT specifications and performance;8.5;8.5. input capacitance limited upper cutoff frequency;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);775;8. BJT specifications and performance;8.6;8.6. upper 3db frequency;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);775;8. BJT specifications and performance;8.8;8.8. calculate suitable speed up capacitor;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);775;8. BJT specifications and performance;8.9;8.9. noise output voltage;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);776;10. FET biasing;10.1;10.1. Dc load line;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);776;10. FET biasing;10.11;10.11. constant current bias circuit;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);776;10. FET biasing;10.12;10.12. determine Id and Vds;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);776;10. FET biasing;10.13;10.13. determine Idmax and Vdsmin;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);776;10. FET biasing;10.14;10.14. determine Id and Vds;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);776;10. FET biasing;10.16;10.16. design JFET switching;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);776;10. FET biasing;10.17;10.17. determine suitable resistance and calculate Vds;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);776;10. FET biasing;10.4;10.4. determine Idmax and Idmin;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);776;10. FET biasing;10.6;10.6. Id max Idmin and Vds;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);776;10. FET biasing;10.7;10.7. gate bais circuit;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);776;10. FET biasing;10.8;10.8. self bais circuit;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);776;10. FET biasing;10.9;10.9. design voltage divider bais circuit;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);777;11. Ac analysis of FEt circuits;11.2;11.2. circuit input and output impedance and voltage gain;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);777;11. Ac analysis of FEt circuits;11.3;11.3. gate input and source output impedance and voltage gain;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);777;11. Ac analysis of FEt circuits;11.4;11.4. circuit input and output impedance and voltage gain;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);777;11. Ac analysis of FEt circuits;11.5;11.5. circuit and device input and output impedance and voltage gain;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);777;11. Ac analysis of FEt circuits;11.6;11.6. output voltage;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);777;11. Ac analysis of FEt circuits;11.7;11.7. input capacitance limited cutoff frequency;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.1;12.1. required capacitance and voltage gain at different frequency;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.10;12.10. minimum overall voltage gain;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.11;12.11. resistor for two stage amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.12;12.12. suitable capacitor for circuit;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.13;12.13. analyze two stage amplifier and determine minimum voltage gain;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.14;12.14. Dc feedback pair with an emitter follower output;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.15;12.15. suitable resistor for BIBET amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.16;12.16. suitable capacitor For BIFET direct coupled amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.17;12.17. determine minimum overall voltage gain;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.18;12.18. suitable resistor for differential amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.19;12.19. suitable capacitor value for amplifier and voltage gain;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.2;12.2. suitable resistor for common emitter amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.20;12.20. suitable resistor for cascode amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.21;12.21. suitable capacitor for cascode circuit;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.22;12.22. resonance frequency voltage gainbandwidth of amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.23;12.23. resonance frequency voltage gainbandwidth of amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.24;12.24. capacitor to resonate secondry and overall voltage gain;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.3;12.3. suitable capacitor for CE;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.4;12.4. suitable resistor for common source circuit;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.5;12.5. suitable resistor for common source amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.7;12.7. analyze two stage amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.8;12.8. resistor for two stage direct coupled amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);778;12. Small signal Amplifiers;12.9;12.9. capacitor for two stage direct coupled amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);779;13. Amplifier with negative feedback;13.1;13.1. closed loop gain for negative feedback amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);779;13. Amplifier with negative feedback;13.10;13.10. calculate precise value of circuit voltage gain;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);779;13. Amplifier with negative feedback;13.11;13.11. modify Ce amplifier to use emitter current feedback to give Av 70;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);779;13. Amplifier with negative feedback;13.12;13.12. suitable emitter resistor value;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);779;13. Amplifier with negative feedback;13.13;13.13. suitable capacitor for two stage circuit;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);779;13. Amplifier with negative feedback;13.14;13.14. determine current gain and input impedance;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);779;13. Amplifier with negative feedback;13.15;13.15. calculate total harmonic;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);779;13. Amplifier with negative feedback;13.2;13.2. input impedance with negative feedback;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);779;13. Amplifier with negative feedback;13.3;13.3. input and output impedance when negative feedback;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);779;13. Amplifier with negative feedback;13.4;13.4. circuit input and output impedance and voltage gain without feedback;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);779;13. Amplifier with negative feedback;13.5;13.5. two stage coupled BJT use as voltage feedback;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);779;13. Amplifier with negative feedback;13.6;13.6. modify direct coupled amplifier to use as series voltage negative feedback;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);779;13. Amplifier with negative feedback;13.7;13.7. calculate resistor value;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);779;13. Amplifier with negative feedback;13.8;13.8. calculate Acl Zin and Zout;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);779;13. Amplifier with negative feedback;13.9;13.9. calculate output impedance for circuit modification;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);780;14. Ic operational Amplifier and basic Op amp circuits;14.1;14.1. calculate maximum resistance;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);780;14. Ic operational Amplifier and basic Op amp circuits;14.10;14.10. suitable resistor for 741 op amp;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);780;14. Ic operational Amplifier and basic Op amp circuits;14.11;14.11. overall voltage gain for instrumentation amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);780;14. Ic operational Amplifier and basic Op amp circuits;14.12;14.12. typical output voltage swingand calculate rise time;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);780;14. Ic operational Amplifier and basic Op amp circuits;14.13;14.13. calculate resistor for schmitt trigger circuit;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);780;14. Ic operational Amplifier and basic Op amp circuits;14.14;14.14. upper and lower trigger for non inverting schmitt trigger;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);780;14. Ic operational Amplifier and basic Op amp circuits;14.2;14.2. suitable resistor for BIFET op amp is used;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);780;14. Ic operational Amplifier and basic Op amp circuits;14.3;14.3. typical difference between input and out voltage and Zin and Zout;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);780;14. Ic operational Amplifier and basic Op amp circuits;14.4;14.4. capacitor coupled voltage follower usin 741 op amp;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);780;14. Ic operational Amplifier and basic Op amp circuits;14.5;14.5. direct coupled non inverting amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);780;14. Ic operational Amplifier and basic Op amp circuits;14.6;14.6. typical input and output impedances for non inverting;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);780;14. Ic operational Amplifier and basic Op amp circuits;14.7;14.7. voltage gain and lower cutoff frequency;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);780;14. Ic operational Amplifier and basic Op amp circuits;14.8;14.8. direct coupled inverting amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);780;14. Ic operational Amplifier and basic Op amp circuits;14.9;14.9. design three input summing amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);786;15. Operational amplifier frequency Response and compensation;15.2;15.2. determine suitable component;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);786;15. Operational amplifier frequency Response and compensation;15.3;15.3. miller effect capacitor;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);786;15. Operational amplifier frequency Response and compensation;15.5;15.5. cutoff frequencies using gain bandwidth;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);786;15. Operational amplifier frequency Response and compensation;15.6;15.6. full power bandwidth for AD843 op amp circuit;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);786;15. Operational amplifier frequency Response and compensation;15.7;15.7. input terminal stray capacitor;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);786;15. Operational amplifier frequency Response and compensation;15.8;15.8. load capacitance;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);787;16. Signal generators;16.1;16.1. phase shift oscillator;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);787;16. Signal generators;16.10;16.10. triangular wave generator;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);787;16. Signal generators;16.11;16.11. wein bridge oscillator;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);787;16. Signal generators;16.12;16.12. pierce oscillator and peak power dissipated;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);787;16. Signal generators;16.2;16.2. colpitts oscillator;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);787;16. Signal generators;16.3;16.3. hartley oscillator;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);787;16. Signal generators;16.4;16.4. wein bridge oscillator;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);787;16. Signal generators;16.5;16.5. phase shift oscillator;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);787;16. Signal generators;16.6;16.6. amplitude stabilization circuit;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);787;16. Signal generators;16.7;16.7. square wave generator;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);787;16. Signal generators;16.8;16.8. calculate t1 t2 and pulse frequency;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);788;17. Active filters;17.1;17.1. calculate attenuation;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);788;17. Active filters;17.10;17.10. center frequency and bandwidth;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);788;17. Active filters;17.12;17.12. state variable band pass filter;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);788;17. Active filters;17.13;17.13. required resistance to operate one half of an MF10;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);788;17. Active filters;17.2;17.2. first order active low pass filter;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);788;17. Active filters;17.3;17.3. first order high pass filterand filter bandwidth;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);788;17. Active filters;17.4;17.4. butterworth second order low pass filter;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);788;17. Active filters;17.5;17.5. using BIFET op amp design butterworth second order filter;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);788;17. Active filters;17.6;17.6. third order low pass filter;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);788;17. Active filters;17.7;17.7. third order high pass filter;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);788;17. Active filters;17.8;17.8. single stage band pass filter;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);788;17. Active filters;17.9;17.9. calculate Q factor for wide band filter;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);789;18. Linear and switching voltage regulators;18.1;18.1. load and source effects and load and line regulation;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);789;18. Linear and switching voltage regulators;18.10;18.10. calculate regulator power dissipation;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);789;18. Linear and switching voltage regulators;18.11;18.11. efficiencies of linear regulator and switching regulator;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);789;18. Linear and switching voltage regulators;18.12;18.12. step down switching regulator;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);789;18. Linear and switching voltage regulators;18.13;18.13. determine suitable value for R1 R2 Rsc and Ct;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);789;18. Linear and switching voltage regulators;18.2;18.2. voltage regulator circuit;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);789;18. Linear and switching voltage regulators;18.3;18.3. modify voltage regulator;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);789;18. Linear and switching voltage regulators;18.4;18.4. voltage regulator to change the load current;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);789;18. Linear and switching voltage regulators;18.5;18.5. suitable component for preregulator circuit;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);789;18. Linear and switching voltage regulators;18.6;18.6. differential amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);789;18. Linear and switching voltage regulators;18.7;18.7. fold back current limiting circuit for voltage regulator;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);789;18. Linear and switching voltage regulators;18.8;18.8. adjustable voltage regulator circuit;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);789;18. Linear and switching voltage regulators;18.9;18.9. input voltage and maximum load current;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.1;19.1. Dc and Ac load line transistor common emitter characteristics;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.10;19.10. design Vbe multiplier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.11;19.11. required supply voltage and specify output transistors;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.12;19.12. suitable resistor for output and intermediate stage;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.13;19.13. calculate required supply voltage and suitable DC voltage drop;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.14;19.14. determine resistor value for MOSFET amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.15;19.15. bootstrap capacitor terminal voltage and peak output voltage;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.16;19.16. use BIFET to determine supply voltage and resistor value;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.17;19.17. capacitor value;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.18;19.18. MOSFET gate source voltage for complementry common source amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.19;19.19. calculate Vgsmax and Vgsmin;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.2;19.2. maximum efficiency of class A amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.20;19.20. maximum peak output voltage minimum supply voltage at op amp terminal;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.21;19.21. op amp minimum supply voltage and MOSFET maximum gate source voltage;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.22;19.22. determine Po Acl f1 and f2;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.23;19.23. maximum output power voltage gain and low cutoff frequency;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.24;19.24. determine the load power dissipation;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.25;19.25. calculate ac output power dc input power conduction angle and efficiency;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.26;19.26. for class C amplifier determine tank circuit component value and peak current;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.27;19.27. for class C amplifier determine Ql Qp and Pl and bandwidth and efficiency;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.4;19.4. power deliver to load in class AB amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.5;19.5. output transformer and transistor of class B circuit;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.6;19.6. determine required supply voltage for class AB amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.7;19.7. output transistors;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.8;19.8. capacitor value for Ce and Co;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);790;19. Power amplifiers;19.9;19.9. determine the value of Vcc Rc and Rb for class AB amplifier;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);791;20. Thyristors;20.1;20.1. calculate instantaneous supply voltage;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);791;20. Thyristors;20.2;20.2. determine suitable resistance;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);791;20. Thyristors;20.3;20.3. determine SCR anode cathode voltage;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);791;20. Thyristors;20.4;20.4. specify the SCR and suitable components for D1 and R1;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);791;20. Thyristors;20.5;20.5. smallest conduction angle;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);791;20. Thyristors;20.6;20.6. determine capacitor charging time;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);791;20. Thyristors;20.7;20.7. calculate maximum Vb1b2 be used at temperature 100C;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);791;20. Thyristors;20.8;20.8. maximum and minimum triggering voltage;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);791;20. Thyristors;20.9;20.9. calculate Re for relaxation oscillator and oscillating frequency;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);792;21. Optoelectronic Devices;21.1;21.1. total luminous flux;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);792;21. Optoelectronic Devices;21.3;21.3. suitable resistor;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);792;21. Optoelectronic Devices;21.4;21.4. total power supplied to digit LED;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);792;21. Optoelectronic Devices;21.5;21.5. required series resistance and dark current;correct;runtime; -226;Electronic Devices And Circuits(D. A. Bell);792;21. Optoelectronic Devices;21.6;21.6. minimum light level when transitor is turn off;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);1409;1. Intorduction to Numerical Computing;1.01;1.01. Theoritical Problem;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.1;3.1. binary to decimal;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.10;3.10. Floating Point Notation;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.11;3.11. Integer Arithmetic;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.12;3.12. Integer Arithmetic;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.13;3.13. Floating Point Arithmetic Addition;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.14;3.14. Floating Point Arithmetic Addition;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.15;3.15. Floating Point Arithmetic Subtraction;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.16;3.16. Floating Point Arithmetic Multiplication;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.17;3.17. Floating Point Arithmetic division;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.18;3.18. Errors in Arithmetic;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.19;3.19. Errors in Arithmetic;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.2;3.2. Hexadecimal to Decimal;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.20;3.20. Errors in Arithmetic;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.21;3.21. Errors in Arithmetic;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.22;3.22. Associative law of Addition;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.23;3.23. Associative law of Multiplication;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.24;3.24. Distributive law of Arithmetic;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.3;3.3. Decimal to Binary;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.4;3.4. Decimal to Octal;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.5;3.5. Decimal to Binary;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.6;3.6. Octal to Hexadecimal;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.7;3.7. Hexadecimal to Octal;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.8;3.8. Binary form of negative integers;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);979;3. Computer Codes and Arithmetic;3.9;3.9. 16 bit word representation;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.1;4.1. Greatest Precision;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.10;4.10. Errors in Sequence of Computations;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.11;4.11. Addition of Chain of Numbers;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.12;4.12. Addition of Chain of Numbers;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.13;4.13. Theoritical Problem;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.14;4.14. Absolute and Relative Errors;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.15;4.15. Error Evaluation;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.16;4.16. Condition and Stability;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.17;4.17. Theoritical Problem;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.18;4.18. Difference of Square roots;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.19;4.19. Theoritical Problem;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.2;4.2. Accuracy of Numbers;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.20;4.20. Theoritical Problem;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.21;4.21. Induced Instability;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.3;4.3. Addition in Binary form;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.4;4.4. Rounding off;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.5;4.5. Truncation Error;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.6;4.6. Truncation Error;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.7;4.7. Absolute and Relative Error;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.8;4.8. Machine Epsilon;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);980;4. Approximations and Errors in Computing;4.9;4.9. Propagation of Error;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);981;6. Roots of Nonlinear Equations;6.02;6.02. Theoritical Problem;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);981;6. Roots of Nonlinear Equations;6.06;6.06. Theoritical Problem;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);981;6. Roots of Nonlinear Equations;6.1;6.1. Possible initial guess values for roots;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);981;6. Roots of Nonlinear Equations;6.10;6.10. Theoritical Problem;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);981;6. Roots of Nonlinear Equations;6.11;6.11. Fixed Point Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);981;6. Roots of Nonlinear Equations;6.12;6.12. Fixed Point Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);981;6. Roots of Nonlinear Equations;6.13;6.13. Fixed Point Method for non linear equations;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);981;6. Roots of Nonlinear Equations;6.14;6.14. Newton Raphson Method for Non linear equations;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);981;6. Roots of Nonlinear Equations;6.15;6.15. Synthetic Division;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);981;6. Roots of Nonlinear Equations;6.16;6.16. Bairstow Method for Factor of polynomial;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);981;6. Roots of Nonlinear Equations;6.17;6.17. Mullers Method for Leonards equation;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);981;6. Roots of Nonlinear Equations;6.3;6.3. Evaluating Polynomial using Horners rule;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);981;6. Roots of Nonlinear Equations;6.4;6.4. Bisection Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);981;6. Roots of Nonlinear Equations;6.5;6.5. False Position Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);981;6. Roots of Nonlinear Equations;6.7;6.7. Newton Raphson Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);981;6. Roots of Nonlinear Equations;6.8;6.8. Newton Raphson Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);981;6. Roots of Nonlinear Equations;6.9;6.9. Secant Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);984;7. Direct Solutions of Linear Equations;7.1;7.1. Elimination Process;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);984;7. Direct Solutions of Linear Equations;7.2;7.2. Basic Gauss Elimination;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);984;7. Direct Solutions of Linear Equations;7.3;7.3. Gauss Elimination using Partial Pivoting;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);984;7. Direct Solutions of Linear Equations;7.4;7.4. Gauss Jordan Elimination;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);984;7. Direct Solutions of Linear Equations;7.5;7.5. DoLittle LU Decomposition;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);984;7. Direct Solutions of Linear Equations;7.6;7.6. Choleskys Factorisation;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);984;7. Direct Solutions of Linear Equations;7.7;7.7. Ill Conditioned Systems;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);985;8. Iterative Solution of Linear Equations;8.1;8.1. Gauss Jacobi Iteration Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);985;8. Iterative Solution of Linear Equations;8.2;8.2. Gauss Seidel Iterative Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);985;8. Iterative Solution of Linear Equations;8.3;8.3. Gauss Seidel Iterative Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);985;8. Iterative Solution of Linear Equations;8.4;8.4. Gauss Seidel Iterative Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);986;9. Curve Fitting Interpolation;9.1;9.1. Polynomial Forms;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);986;9. Curve Fitting Interpolation;9.10;9.10. Splines;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);986;9. Curve Fitting Interpolation;9.11;9.11. Cubic Spline Interpolation;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);986;9. Curve Fitting Interpolation;9.12;9.12. Cubic Spline Interpolation;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);986;9. Curve Fitting Interpolation;9.2;9.2. Shifted Power form;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);986;9. Curve Fitting Interpolation;9.3;9.3. Linear Interpolation;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);986;9. Curve Fitting Interpolation;9.4;9.4. Lagrange Interpolation;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);986;9. Curve Fitting Interpolation;9.5;9.5. Lagrange Interpolation;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);986;9. Curve Fitting Interpolation;9.6;9.6. Newton Interpolation;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);986;9. Curve Fitting Interpolation;9.7;9.7. Newton Divided Difference Interpolation;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);986;9. Curve Fitting Interpolation;9.8;9.8. Newton Gregory Forward Difference Formula;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);986;9. Curve Fitting Interpolation;9.9;9.9. Newton Backward Difference Formula;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);987;10. Curve Fitting Regression;10.1;10.1. Fitting a Straight line;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);987;10. Curve Fitting Regression;10.2;10.2. Fitting a Power Function Model to given data;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);987;10. Curve Fitting Regression;10.3;10.3. Fitting a Straight line using Regression;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);987;10. Curve Fitting Regression;10.4;10.4. Curve Fitting;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);987;10. Curve Fitting Regression;10.5;10.5. Plane Fitting;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);988;11. Numerical Differentiation;11.1;11.1. First order Forward Difference;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);988;11. Numerical Differentiation;11.2;11.2. Three Point Formula;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);988;11. Numerical Differentiation;11.3;11.3. Error Analysis;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);988;11. Numerical Differentiation;11.4;11.4. Approximate Second Derivative;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);988;11. Numerical Differentiation;11.5;11.5. Differentiation of Tabulated Data;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);988;11. Numerical Differentiation;11.6;11.6. Three Point Central Difference Formula;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);988;11. Numerical Differentiation;11.7;11.7. Second order Derivative;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);988;11. Numerical Differentiation;11.8;11.8. Richardsons Extrapolation Technique;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);989;12. Numerical Integration;12.1;12.1. Trapezoidal Rule;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);989;12. Numerical Integration;12.10;12.10. Gauss Legendre Three Point Formula;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);989;12. Numerical Integration;12.2;12.2. Trapezoidal Rule;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);989;12. Numerical Integration;12.3;12.3. Simpons 1 by 3 rule;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);989;12. Numerical Integration;12.4;12.4. Simpons 1 by 3 rule;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);989;12. Numerical Integration;12.5;12.5. Simpsons 3 by 8 rule;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);989;12. Numerical Integration;12.6;12.6. Booles Five Point Formula;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);989;12. Numerical Integration;12.7;12.7. Romberg Integration Formula;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);989;12. Numerical Integration;12.8;12.8. Two Point Gauss Legefre Formula;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);989;12. Numerical Integration;12.9;12.9. Gaussian Two Point Formula;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);990;13. Numerical Solution of Ordinary Differential Equations;13.1;13.1. Taylor Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);990;13. Numerical Solution of Ordinary Differential Equations;13.10;13.10. Milne Simpson Predictor Corrector Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);990;13. Numerical Solution of Ordinary Differential Equations;13.11;13.11. Adams Bashforth Moulton Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);990;13. Numerical Solution of Ordinary Differential Equations;13.12;13.12. Milne Simpson Method Using Modifier;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);990;13. Numerical Solution of Ordinary Differential Equations;13.13;13.13. System of Differential Equations;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);990;13. Numerical Solution of Ordinary Differential Equations;13.14;13.14. Higher Order Differential Equations;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);990;13. Numerical Solution of Ordinary Differential Equations;13.2;13.2. Recursive Taylor Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);990;13. Numerical Solution of Ordinary Differential Equations;13.3;13.3. Picards Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);990;13. Numerical Solution of Ordinary Differential Equations;13.4;13.4. Eulers Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);990;13. Numerical Solution of Ordinary Differential Equations;13.5;13.5. Error Estimation in Eulers Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);990;13. Numerical Solution of Ordinary Differential Equations;13.6;13.6. Heuns Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);990;13. Numerical Solution of Ordinary Differential Equations;13.7;13.7. Polygon Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);990;13. Numerical Solution of Ordinary Differential Equations;13.8;13.8. Classical Runge Kutta Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);990;13. Numerical Solution of Ordinary Differential Equations;13.9;13.9. Optimum Step size;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);1034;14. Boundary Value and Eigenvalue Problems;14.1;14.1. Shooting Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);1034;14. Boundary Value and Eigenvalue Problems;14.2;14.2. Finite Difference Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);1034;14. Boundary Value and Eigenvalue Problems;14.3;14.3. Eigen Vectors;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);1034;14. Boundary Value and Eigenvalue Problems;14.4;14.4. Fadeev Leverrier Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);1034;14. Boundary Value and Eigenvalue Problems;14.5;14.5. Eigen Vectors;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);1034;14. Boundary Value and Eigenvalue Problems;14.6;14.6. Power Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);1035;15. Solution of Partial Differential Equations;15.1;15.1. Elliptic Equations;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);1035;15. Solution of Partial Differential Equations;15.2;15.2. Liebmanns Iterative Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);1035;15. Solution of Partial Differential Equations;15.3;15.3. Poissons Equation;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);1035;15. Solution of Partial Differential Equations;15.4;15.4. Gauss Siedel Iteration;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);1035;15. Solution of Partial Differential Equations;15.5;15.5. Initial Value Problems;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);1035;15. Solution of Partial Differential Equations;15.6;15.6. Crank Nicholson Implicit Method;correct;runtime; -243;Numerical Methods(E. Balaguruswamy);1035;15. Solution of Partial Differential Equations;15.7;15.7. Hyperbolic Equations;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);974;1. Overview of Chemical Reaction Engineering;1.1;1.1. The Rocket Engine;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);974;1. Overview of Chemical Reaction Engineering;1.2;1.2. The Living Person;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);975;2. Kinetics of Homogeneous Reactions;2.1;2.1. Search for the reactiom mechanism;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);975;2. Kinetics of Homogeneous Reactions;2.2;2.2. Search for a mechanism for the enzyme substrate reaction;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);975;2. Kinetics of Homogeneous Reactions;2.3;2.3. Search for the activation energy of a pasteurization process;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);976;3. Interpretation of Batch Reactor Data;3.1;3.1. Find a rate equation using the integral method;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);976;3. Interpretation of Batch Reactor Data;3.2;3.2. Find a rate equation to fit a set of data using the differential method;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);976;3. Interpretation of Batch Reactor Data;3.4;3.4. Correct and Incorrect E values;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);977;4. Introduction to Reactor Design;4.1;4.1. A balance from Stoichiometry;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);978;5. Ideal Reactors for a Single Reaction;5.1;5.1. Reaction rate in a mixed flow reactor;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);978;5. Ideal Reactors for a Single Reaction;5.2;5.2. Kinetics from a mixed flow reactor;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);978;5. Ideal Reactors for a Single Reaction;5.3;5.3. Mixed flow reactor performance;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);978;5. Ideal Reactors for a Single Reaction;5.4;5.4. Plug flow reactor performance;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);978;5. Ideal Reactors for a Single Reaction;5.5;5.5. Plug flow reactor volume;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);978;5. Ideal Reactors for a Single Reaction;5.6;5.6. Test of a kinetic equation in a plug flow reactor;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1043;6. Design for Single Reactions;6.1;6.1. Operating a number of plug flow reactors;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1043;6. Design for Single Reactions;6.2;6.2. Mixed flow reactor in series;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1043;6. Design for Single Reactions;6.3;6.3. Finding the best reactor set up;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1044;7. Design for Parallel Reactions;7.1;7.1. Contacting patterns for reactions in parallel;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1044;7. Design for Parallel Reactions;7.2;7.2. Product distribution for parallel reactions;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1044;7. Design for Parallel Reactions;7.3;7.3. Good operating conditions for parallel reactions;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1044;7. Design for Parallel Reactions;7.4;7.4. Best operating conditions for parallel reactions;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1045;8. Potpourri of Multiple Reactions;8.1;8.1. Favorable contacting patterns for any set of irreversible reactions in series;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1045;8. Potpourri of Multiple Reactions;8.2;8.2. Kinetics of series parallel reaction;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1045;8. Potpourri of Multiple Reactions;8.3;8.3. Evaluate the kinetics from a batch experiment;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1046;9. Temperature and Pressure Effects;9.1;9.1. AHr AT VARIOUS TEMPERATURES;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1046;9. Temperature and Pressure Effects;9.2;9.2. EQUILIBRIUM CONVERSION AT DIFFERENT TEMPERATURES;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1046;9. Temperature and Pressure Effects;9.3;9.3. CONSTRUCTION OF THE RATE CONVERSIONTEMPERATURE CHART FROM KINETIC DATA;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1046;9. Temperature and Pressure Effects;9.4;9.4. PERFORMANCE FOR THE OPTIMAL TEMPERATURE PROGRESSION;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1046;9. Temperature and Pressure Effects;9.5;9.5. OPTIMUM MIXED FLOW REACTOR PERFORMANCE;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1046;9. Temperature and Pressure Effects;9.6;9.6. ADIABATIC PLUG FLOW REACTOR PERFORMANCE;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1046;9. Temperature and Pressure Effects;9.7;9.7. ADIABATIC PLUG FLOW REACTOR WITH RECYCLE I Repeat;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1047;10. Choosing the Right Kind of Reactor;10.1;10.1. THE TRAMBOUZE REACTIONS;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1047;10. Choosing the Right Kind of Reactor;10.2;10.2. TEMPERATURE PROGRESSION FOR MULTIPLE REACTIONS;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1049;11. Basics of Non Ideal Flow;11.1;11.1. FINDING THE RTD BY EXPERIMENT;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1049;11. Basics of Non Ideal Flow;11.2;11.2. FINDING THE E CURVE FOR LIQUID FLOWING THROUGH A VESSEL;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1049;11. Basics of Non Ideal Flow;11.3;11.3. CONVOLUTION;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1049;11. Basics of Non Ideal Flow;11.4;11.4. CONVERSION IN REACTORS HAVING NON IDEAL FLOW;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1049;11. Basics of Non Ideal Flow;11.5;11.5. REACTION OF A MACROFLUID;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1050;12. Compartment Models;12.1;12.1. BEHAVIOR OF A G L CONTACTOR;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1050;12. Compartment Models;12.2;12.2. MISBEHAVING REACTOR;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1051;13. The Dispersion Model;13.1;13.1. DluL FROM A C CURVE;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1051;13. The Dispersion Model;13.2;13.2. DuL FROM AN F CURVE;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1051;13. The Dispersion Model;13.3;13.3. DuL FROM A ONE SHOT INPUT;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1051;13. The Dispersion Model;13.4;13.4. CONVERSION FROM THE DISPERSION MODEL;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1052;14. The Tanks In Series Model;14.1;14.1. MODIFICATIONS TO A WINERY;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1052;14. The Tanks In Series Model;14.2;14.2. A FABLE ON RIVER POLLUTION;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1052;14. The Tanks In Series Model;14.3;14.3. F LOW MODELS FROM RTD CURVES;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1052;14. The Tanks In Series Model;14.4;14.4. FINDING THE VESSEL E CURVE USING A SLOPPY TRACER INPUT;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1053;16. Earliness of Mixing Segregation and RTD;16.1;16.1. EFFECT OF SEGREGATION AND EARLINESS OF MIXING ON CONVERSION;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1054;17. Heterogeneous Reactions;17.1;17.1. THE BURNING OF A CARBON PARTICLE IN AIR;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1054;17. Heterogeneous Reactions;17.2;17.2. AEROBIC FERMENTATION;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1054;17. Heterogeneous Reactions;17.3;17.3. OVERALL RATE FOR A LINEAR PROCESS;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1054;17. Heterogeneous Reactions;17.4;17.4. OVERALL RATE FOR A NONLINEAR PROCESS;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1055;18. Solid Catalyzed Reactions;18.1;18.1. SEARCH OF THE RATE CONTROLLING MECHANISM;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1055;18. Solid Catalyzed Reactions;18.2;18.2. THE RATE EQUATION FROM A DIFFERENTIAL REACTOR;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1055;18. Solid Catalyzed Reactions;18.3;18.3. THE RATE EQUATION FROM AN INTEGRAL REACTOR;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1055;18. Solid Catalyzed Reactions;18.4;18.4. PLUG FLOW REACTOR SIZE FROM A RATE EQUATION;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1055;18. Solid Catalyzed Reactions;18.5;18.5. PLUG FLOW REACTOR SIZE FROM RATE CONCENTRATION DATA;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1055;18. Solid Catalyzed Reactions;18.6;18.6. MIXED FLOW REACTOR SIZE;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1055;18. Solid Catalyzed Reactions;18.7;18.7. MASS TRANSFER RESISTANCES;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1056;19. The Packed Bed Catalytic Reactor;19.1;19.1. DESIGN OF A SINGLE ADIABATIC PACKED BED SYSTEM;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1056;19. The Packed Bed Catalytic Reactor;19.2;19.2. DESIGN OF A TWO ADIABATIC PACKED BED SYSTEM;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1057;20. Reactors with Suspended Solid Catalyst Fluidized Reactors of Various Types;20.1;20.1. First Order Catalytic Reaction in a BFB;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1058;21. Deactivating Catalysts;21.1;21.1. INTERPRETING KINETIC DATA IN THE PRESENCE OF PORE DIFFUSION RESISTANCE AND DEACTIVATION;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1058;21. Deactivating Catalysts;21.2;21.2. DEACTIVATION IN A PACKED BED REACTOR;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1059;22. GL Reactions on Solid Catalysts;22.1;22.1. HYDROGENATION OF ACETONE IN A PACKED BUBBLE COLUMN;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1059;22. GL Reactions on Solid Catalysts;22.2;22.2. HYDROGENATION OF A BATCH OF BUTYNEDIOL IN A SLURRY REACTOR;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1060;23. Fluid Fluid Reactions Kinetics;23.1;23.1. FINDING THE RATE OF A GL REACTION;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1061;24. Fluid Fluid Reactors Design;24.1;24.1. TOWERS FOR STRAIGHT ABSORPTION;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1061;24. Fluid Fluid Reactors Design;24.2;24.2. TOWERS FOR HIGH CONCENTRATION OF LIQUID REACTANT;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1061;24. Fluid Fluid Reactors Design;24.3;24.3. TOWERS FOR LOW CONCENTRATION OF LIQUID REACTANT CASE A;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1061;24. Fluid Fluid Reactors Design;24.4;24.4. TOWERS FOR INTERMEDIATE CONCENTRATIONS OF LIQUID REACTANT;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1061;24. Fluid Fluid Reactors Design;24.5;24.5. REDO EXAMPLE 24 2 BY THE GENERAL METHOD;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1061;24. Fluid Fluid Reactors Design;24.6;24.6. REACTION OF A BATCH OF LIQUID;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1062;26. Fluid Particle Reactors Design;26.1;26.1. CONVERSION OF A SIZE MIXTURE IN PLUG FLOW;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1062;26. Fluid Particle Reactors Design;26.2;26.2. CONVERSION OF A SINGLE SIZED FEED IN A MIXED FLOW REACTOR;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1062;26. Fluid Particle Reactors Design;26.3;26.3. CONVERSION OF A FEED MIXTURE IN A MIXED FLOW REACTOR;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1062;26. Fluid Particle Reactors Design;26.4;26.4. FINDING THE SIZE OF A FLUIDIZED BED;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1063;29. Substrate Limiting Microbial Fermentation;29.1;29.1. MIXED REACTORS FOR MONOD KINETICS;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1063;29. Substrate Limiting Microbial Fermentation;29.2;29.2. PLUG FLOW REACTOR FOR MONOD KINETICS;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1063;29. Substrate Limiting Microbial Fermentation;29.3;29.3. GLUCOSE FOR E COLI BACTERIA;correct;runtime; -249;Chemical Reaction Engineering(O. Levenspiel);1064;30. Product Limiting Microbial Fermentation;30.1;30.1. FRUIT FLY COCKTAIL;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);842;2. Basics of Laplace Transform;2.1;2.1. laplace transform;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);842;2. Basics of Laplace Transform;2.2;2.2. laplace transform;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);842;2. Basics of Laplace Transform;2.3;2.3. laplace transform;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);842;2. Basics of Laplace Transform;2.4;2.4. laplace transform;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);842;2. Basics of Laplace Transform;2.5;2.5. laplace transform;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);842;2. Basics of Laplace Transform;2.6;2.6. laplace transform;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);842;2. Basics of Laplace Transform;2.7;2.7. laplace transform;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);842;2. Basics of Laplace Transform;2.8;2.8. laplace transform;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);842;2. Basics of Laplace Transform;2.9;2.9. laplace transform;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);843;3. Transfer Function and Impluse Response;3.1;3.1. Transfer function;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);843;3. Transfer Function and Impluse Response;3.10;3.10. Transfer function;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);843;3. Transfer Function and Impluse Response;3.11;3.11. Transfer function;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);843;3. Transfer Function and Impluse Response;3.12;3.12. Transfer function;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);843;3. Transfer Function and Impluse Response;3.13;3.13. Transfer function;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);843;3. Transfer Function and Impluse Response;3.14;3.14. Transfer function;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);843;3. Transfer Function and Impluse Response;3.15;3.15. Transfer function;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);843;3. Transfer Function and Impluse Response;3.2;3.2. Transfer function;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);843;3. Transfer Function and Impluse Response;3.3;3.3. Transfer function;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);843;3. Transfer Function and Impluse Response;3.4;3.4. Transfer function;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);843;3. Transfer Function and Impluse Response;3.5;3.5. Transfer function;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);843;3. Transfer Function and Impluse Response;3.6;3.6. Transfer function;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);843;3. Transfer Function and Impluse Response;3.7;3.7. Transfer function;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);843;3. Transfer Function and Impluse Response;3.8;3.8. Transfer function;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);843;3. Transfer Function and Impluse Response;3.9;3.9. Transfer function;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);857;4. Modeling of Control Systems;4.1;4.1. model;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);857;4. Modeling of Control Systems;4.14;4.14. model;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);857;4. Modeling of Control Systems;4.16;4.16. model;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);857;4. Modeling of Control Systems;4.17;4.17. model;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);857;4. Modeling of Control Systems;4.18;4.18. model;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);857;4. Modeling of Control Systems;4.19;4.19. model;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);857;4. Modeling of Control Systems;4.2;4.2. model;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);857;4. Modeling of Control Systems;4.20;4.20. model;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);857;4. Modeling of Control Systems;4.21;4.21. model;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);857;4. Modeling of Control Systems;4.3;4.3. model;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);857;4. Modeling of Control Systems;4.4;4.4. model;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);857;4. Modeling of Control Systems;4.5;4.5. model;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);857;4. Modeling of Control Systems;4.6;4.6. model;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);857;4. Modeling of Control Systems;4.7;4.7. model;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.1;5.1. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.10;5.10. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.11;5.11. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.12;5.12. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.13;5.13. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.14;5.14. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.15;5.15. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.16;5.16. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.17;5.17. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.18;5.18. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.19;5.19. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.2;5.2. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.20;5.20. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.21;5.21. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.22;5.22. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.23;5.23. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.24;5.24. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.3;5.3. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.4;5.4. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.5;5.5. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.6;5.6. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.7;5.7. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.8;5.8. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);844;5. Block diagram representation;5.9;5.9. block reduction;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.1;6.1. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.10;6.10. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.11;6.11. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.12;6.12. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.13;6.13. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.14;6.14. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.15;6.15. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.16;6.16. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.17;6.17. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.18;6.18. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.19;6.19. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.2;6.2. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.20;6.20. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.21;6.21. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.22;6.22. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.23;6.23. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.24;6.24. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.25;6.25. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.26;6.26. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.27;6.27. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.4;6.4. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.5;6.5. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.6;6.6. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.8;6.8. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);845;6. Signal Flow Graph Representation;6.9;6.9. Masons gain formula;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.1;7.1. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.10;7.10. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.11;7.11. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.12;7.12. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.13;7.13. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.14;7.14. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.15;7.15. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.16;7.16. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.18;7.18. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.19;7.19. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.2;7.2. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.20;7.20. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.21;7.21. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.22;7.22. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.23;7.23. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.24;7.24. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.25;7.25. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.26;7.26. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.27;7.27. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.28;7.28. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.3;7.3. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.30;7.30. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.31;7.31. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.32;7.32. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.33;7.33. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.34;7.34. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.35;7.35. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.36;7.36. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.37;7.37. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.38;7.38. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.39;7.39. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.4;7.4. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.5;7.5. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.6;7.6. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.7;7.7. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.8;7.8. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);846;7. Time Response of Control Systems;7.9;7.9. time response;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.10;8.10. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.12;8.12. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.14;8.14. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.15;8.15. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.16;8.16. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.17;8.17. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.18;8.18. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.19;8.19. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.2;8.2. routhtable;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.20;8.20. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.21;8.21. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.22;8.22. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.23;8.23. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.24;8.24. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.25;8.25. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.26;8.26. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.27;8.27. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.28;8.28. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.29;8.29. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.3;8.3. routhtable;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.30;8.30. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.31;8.31. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.32;8.32. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.33;8.33. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.4;8.4. routhtable;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.5;8.5. routhtable;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.6;8.6. routhtable;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.7;8.7. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.8;8.8. routhtable;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);853;8. Stability Analysis;8.9;8.9. routh table;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.1;9.1. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.10;9.10. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.11;9.11. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.12;9.12. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.13;9.13. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.14;9.14. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.15;9.15. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.16;9.16. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.17;9.17. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.18;9.18. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.2;9.2. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.20;9.20. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.21;9.21. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.23;9.23. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.24;9.24. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.25;9.25. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.26;9.26. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.27;9.27. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.28;9.28. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.3;9.3. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.30;9.30. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.31;9.31. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.32;9.32. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.4;9.4. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.5;9.5. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.6;9.6. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.7;9.7. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.8;9.8. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);849;9. Root Locus;9.9;9.9. Root Locus;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);850;10. Basics of Frequency Domain Analysis;10.1;10.1. frequency analysis;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);850;10. Basics of Frequency Domain Analysis;10.2;10.2. frequency analysis;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);850;10. Basics of Frequency Domain Analysis;10.3;10.3. frequency analysis;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);850;10. Basics of Frequency Domain Analysis;10.4;10.4. frequency analysis;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);850;10. Basics of Frequency Domain Analysis;10.5;10.5. frequency analysis;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);850;10. Basics of Frequency Domain Analysis;10.6;10.6. frequency analysis;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);850;10. Basics of Frequency Domain Analysis;10.7;10.7. frequency analysis;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);850;10. Basics of Frequency Domain Analysis;10.8;10.8. frequency analysis;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);850;10. Basics of Frequency Domain Analysis;10.9;10.9. frequency analysis;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.1;11.1. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.10;11.10. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.11;11.11. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.12;11.12. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.13;11.13. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.14;11.14. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.15;11.15. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.16;11.16. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.17;11.17. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.18;11.18. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.19;11.19. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.2;11.2. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.20;11.20. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.21;11.21. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.22;11.22. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.23;11.23. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.24;11.24. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.25;11.25. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.26;11.26. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.27;11.27. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.3;11.3. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.4;11.4. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.5;11.5. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.6;11.6. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.7;11.7. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.8;11.8. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);851;11. Bode Plot;11.9;11.9. bode plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.1;12.1. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.11;12.11. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.12;12.12. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.13;12.13. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.14;12.14. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.15;12.15. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.16;12.16. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.17;12.17. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.18;12.18. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.19;12.19. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.2;12.2. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.20;12.20. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.21;12.21. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.23;12.23. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.24;12.24. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.26;12.26. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.27;12.27. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.28;12.28. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.29;12.29. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.3;12.3. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.4;12.4. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.6;12.6. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.7;12.7. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.8;12.8. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);855;12. Polar and Nyquist Plots;12.9;12.9. nyquist plot;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.10;13.10. State equations;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.11;13.11. State equations;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.12;13.12. State equations;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.13;13.13. State equations;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.14;13.14. State equations;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.15;13.15. State equations;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.16;13.16. State equations;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.17;13.17. State equations;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.18;13.18. State equations;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.19;13.19. State equations;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.21;13.21. State equations;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.22;13.22. State equations;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.23;13.23. State equations;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.24;13.24. State equations;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.3;13.3. State equations;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.4;13.4. State equations;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.5;13.5. State equations;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.6;13.6. State equations;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.7;13.7. State equations;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.8;13.8. State equations;correct;runtime; -257;Control Systems(U. A. Bakshi And V. U. Bakshi);852;13. State Variable Analysis;13.9;13.9. State equations;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.1;1.1. ASCII symbol;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.10;1.10. Selection of an item;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.11;1.11. Computing the value of sine of x;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.12;1.12. Value of a given function;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.13;1.13. introduction to cplusplus;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.14;1.14. introduction to cplusplus;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.15;1.15. introduction to cplusplus;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.16;1.16. Reading elements from a matrix;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.17;1.17. introduction to cplusplus;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.18;1.18. introduction to cplusplus;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.19;1.19. introduction to cplusplus;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.2;1.2. Data Types;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.20;1.20. Summation using a Constructor;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.21;1.21. introduction to cplusplus;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.3;1.3. General program;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.4;1.4. Program to find whether integer is even or odd;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.5;1.5. for loop usuage;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.6;1.6. Return key;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.7;1.7. fibbonacci series and golden ratio;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.8;1.8. Natural Algorithm;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1173;1. Cplusplus and Object Oriented Programming;1.9;1.9. Natural Algorithm woithout else block;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1143;2. Accuracy and Stability in Numerical Computing;2.1;2.1. Finding a inverse using significant figures;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1143;2. Accuracy and Stability in Numerical Computing;2.2;2.2. Calculation of Error;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1143;2. Accuracy and Stability in Numerical Computing;2.3;2.3. Addition using float data type;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1143;2. Accuracy and Stability in Numerical Computing;2.4;2.4. Maclaurin expansion and Pade approximation;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1144;3. Solution of Simultaneous Linear Algebraic Equations;3.1;3.1. Types of Algebraic equations;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1144;3. Solution of Simultaneous Linear Algebraic Equations;3.10;3.10. Cholesky Method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1144;3. Solution of Simultaneous Linear Algebraic Equations;3.11;3.11. Gauss Jordan reduction;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1144;3. Solution of Simultaneous Linear Algebraic Equations;3.12;3.12. Calculating the coefficients;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1144;3. Solution of Simultaneous Linear Algebraic Equations;3.13;3.13. Inverse of a matrix using Gauss Jordan method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1144;3. Solution of Simultaneous Linear Algebraic Equations;3.14;3.14. Solving set of Algebraic Equations;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1144;3. Solution of Simultaneous Linear Algebraic Equations;3.15;3.15. Solving set of Algebraic equations;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1144;3. Solution of Simultaneous Linear Algebraic Equations;3.16;3.16. Solving set of Algebraic equations with Trigonal coefficient matrix;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1144;3. Solution of Simultaneous Linear Algebraic Equations;3.17;3.17. Gauss Seidel Method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1144;3. Solution of Simultaneous Linear Algebraic Equations;3.18;3.18. Gauss Seidel Method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1144;3. Solution of Simultaneous Linear Algebraic Equations;3.19;3.19. Gauss Seidel substitution with successive over relaxation;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1144;3. Solution of Simultaneous Linear Algebraic Equations;3.2;3.2. Gauss Elimination;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1144;3. Solution of Simultaneous Linear Algebraic Equations;3.3;3.3. Number of multiplications and divisions in GE;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1144;3. Solution of Simultaneous Linear Algebraic Equations;3.4;3.4. Gauss Elimination;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1144;3. Solution of Simultaneous Linear Algebraic Equations;3.5;3.5. Gauss Elimination;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1144;3. Solution of Simultaneous Linear Algebraic Equations;3.6;3.6. LU Decomposition;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1144;3. Solution of Simultaneous Linear Algebraic Equations;3.7;3.7. LU Decomposition with partial pivoting through rows;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1144;3. Solution of Simultaneous Linear Algebraic Equations;3.8;3.8. Possibility of Cholesky decomposition;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1144;3. Solution of Simultaneous Linear Algebraic Equations;3.9;3.9. Cholesky Method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.1;4.1. Bisection method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.10;4.10. Secant Method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.11;4.11. Secant Method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.12;4.12. Multivariable newton raphson method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.13;4.13. Multivariable newton raphson method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.14;4.14. computing value of polynomial and its derivative;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.15;4.15. Synthetic division;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.16;4.16. Synthetic division;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.17;4.17. Graeffes root squaring method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.18;4.18. Graeffes root squaring method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.19;4.19. Lins method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.2;4.2. Bisection method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.20;4.20. Complex conjugate roots of two polynomials;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.21;4.21. Newton raphson method for finding a complex root;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.3;4.3. Number of iterations required to find root;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.4;4.4. False position method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.5;4.5. False position method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.6;4.6. Method of succesive substitution;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.7;4.7. Method of succesive substitution;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.8;4.8. Newton raphson method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1174;4. Solution of Nonlinear Equations;4.9;4.9. Newton raphson method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1145;5. Eigenvalues and Eigenvectors of Matrices;5.1;5.1. Characteristic equation of a matrix;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1145;5. Eigenvalues and Eigenvectors of Matrices;5.10;5.10. Eigen values and corresponding eigen vectors of a symmetrix matrix using power method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1145;5. Eigenvalues and Eigenvectors of Matrices;5.11;5.11. Theoretical Question;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1145;5. Eigenvalues and Eigenvectors of Matrices;5.12;5.12. Eigen values and eigen vectors of a matrix using Jacobis method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1145;5. Eigenvalues and Eigenvectors of Matrices;5.13;5.13. Eigen values and Eigen vectors of a symmetric matrix using Jacobis method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1145;5. Eigenvalues and Eigenvectors of Matrices;5.14;5.14. Reduction of a matrix in to tridiagonal form by Householders transformation;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1145;5. Eigenvalues and Eigenvectors of Matrices;5.15;5.15. Theoretical Question;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1145;5. Eigenvalues and Eigenvectors of Matrices;5.16;5.16. Converting a matrix in to a tridiagonal form using Householders method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1145;5. Eigenvalues and Eigenvectors of Matrices;5.17;5.17. Characteristic polynomial of a tridiagonal matrix;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1145;5. Eigenvalues and Eigenvectors of Matrices;5.18;5.18. Bracketing the eigenvalues of a tridiagonal matrix;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1145;5. Eigenvalues and Eigenvectors of Matrices;5.2;5.2. Characteristic Equation of a matrix;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1145;5. Eigenvalues and Eigenvectors of Matrices;5.3;5.3. Checking the orthogonality and orthonormality of a matrix;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1145;5. Eigenvalues and Eigenvectors of Matrices;5.4;5.4. Finding the Coefficients of characteristic polynomial of a matrix;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1145;5. Eigenvalues and Eigenvectors of Matrices;5.5;5.5. Finding the principal moments of inertia and the eigenvalues of a matrix;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1145;5. Eigenvalues and Eigenvectors of Matrices;5.6;5.6. Finding the Eigen values of a matrix using the power method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1145;5. Eigenvalues and Eigenvectors of Matrices;5.7;5.7. Usage of power method for finding Lambda D;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1145;5. Eigenvalues and Eigenvectors of Matrices;5.8;5.8. Minimum Eigen value of a matrix;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1145;5. Eigenvalues and Eigenvectors of Matrices;5.9;5.9. Eigen values and corresponding Eigen vectors of a matrix using power method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1176;6. Approximation of Functions;6.1;6.1. Probability;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1176;6. Approximation of Functions;6.10;6.10. Mean Variance and Standard Deviation;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1176;6. Approximation of Functions;6.11;6.11. Mean and standard deviation;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1176;6. Approximation of Functions;6.12;6.12. Theoretical example;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1176;6. Approximation of Functions;6.13;6.13. Confidence Intervals;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1176;6. Approximation of Functions;6.14;6.14. Significance Level;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1176;6. Approximation of Functions;6.15;6.15. Significance Level;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1176;6. Approximation of Functions;6.2;6.2. Thoeretical;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1176;6. Approximation of Functions;6.3;6.3. Theoretical example;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1176;6. Approximation of Functions;6.4;6.4. Probability;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1176;6. Approximation of Functions;6.5;6.5. Cumulative Distrubution;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1176;6. Approximation of Functions;6.6;6.6. Theoretical example;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1176;6. Approximation of Functions;6.7;6.7. Median;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1176;6. Approximation of Functions;6.8;6.8. Theoretical example;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1176;6. Approximation of Functions;6.9;6.9. Theoretical example;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1119;7. Curve Fitting;7.1;7.1. Theory question;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1119;7. Curve Fitting;7.2;7.2. Theory question;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1119;7. Curve Fitting;7.3;7.3. Determination of coefficients of equation of curve and computing the Coefficient of Determination;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1119;7. Curve Fitting;7.4;7.4. Finding the linear correlation;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1119;7. Curve Fitting;7.5;7.5. Curve fitting to a second order polynomial;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1119;7. Curve Fitting;7.6;7.6. Curve fitting a second order least squares polynomial;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1119;7. Curve Fitting;7.7;7.7. Finding the constants of multiple regression;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1119;7. Curve Fitting;7.8;7.8. Multiple Regression;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1119;7. Curve Fitting;7.9;7.9. Regression using Orthogonal Polynomial;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1118;8. Sorting of Data;8.1;8.1. Bubble sort Algorithm;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1118;8. Sorting of Data;8.2;8.2. Bubble sort algorithm;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1118;8. Sorting of Data;8.3;8.3. Shells method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1118;8. Sorting of Data;8.4;8.4. Insertion sort;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1118;8. Sorting of Data;8.5;8.5. Shells method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1118;8. Sorting of Data;8.6;8.6. Quick sort method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1118;8. Sorting of Data;8.7;8.7. Quick sort method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1175;9. Approximation of Functions;9.1;9.1. Theoretical example;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1175;9. Approximation of Functions;9.2;9.2. Zeros of chebyshev polynomial;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1175;9. Approximation of Functions;9.3;9.3. Linear and quadratic approximations;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1175;9. Approximation of Functions;9.4;9.4. Chebyshev Approximation;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1175;9. Approximation of Functions;9.5;9.5. Pade Approximation;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1175;9. Approximation of Functions;9.6;9.6. erf value computation;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1175;9. Approximation of Functions;9.7;9.7. Gamma function;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1175;9. Approximation of Functions;9.8;9.8. Bessel Function;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1123;10. Interpolation;10.1;10.1. 3rd order interpolating polynomial;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1123;10. Interpolation;10.10;10.10. Quadratic splines;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1123;10. Interpolation;10.11;10.11. Cubic Splines;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1123;10. Interpolation;10.12;10.12. Cubic Splines;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1123;10. Interpolation;10.2;10.2. 3rd order polynomial using forward difference formula;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1123;10. Interpolation;10.3;10.3. 3rd order polynomial using backward difference formula;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1123;10. Interpolation;10.4;10.4. Theory question;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1123;10. Interpolation;10.5;10.5. Method of Central Difference;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1123;10. Interpolation;10.6;10.6. Divided difference polynomial of order 3;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1123;10. Interpolation;10.7;10.7. Largange Interpolation;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1123;10. Interpolation;10.8;10.8. Lagrange Interpolation;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1123;10. Interpolation;10.9;10.9. Linear Splines;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1065;11. Solution of Simultaneous Linear Algebraic Equations;11.1;11.1. Numerical integration;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1065;11. Solution of Simultaneous Linear Algebraic Equations;11.10;11.10. Gauss Legendre quadrature formula;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1065;11. Solution of Simultaneous Linear Algebraic Equations;11.11;11.11. Five point formula;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1065;11. Solution of Simultaneous Linear Algebraic Equations;11.12;11.12. Integration of Data;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1065;11. Solution of Simultaneous Linear Algebraic Equations;11.13;11.13. Integration of Data;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1065;11. Solution of Simultaneous Linear Algebraic Equations;11.2;11.2. Numerical Integration;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1065;11. Solution of Simultaneous Linear Algebraic Equations;11.3;11.3. Numerical Integration;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1065;11. Solution of Simultaneous Linear Algebraic Equations;11.4;11.4. Simpsons one third rule;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1065;11. Solution of Simultaneous Linear Algebraic Equations;11.5;11.5. Simpsons three by eighth rule;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1065;11. Solution of Simultaneous Linear Algebraic Equations;11.6;11.6. Simpsons three by eighth rule;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1065;11. Solution of Simultaneous Linear Algebraic Equations;11.7;11.7. Trapezoidal Rule;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1065;11. Solution of Simultaneous Linear Algebraic Equations;11.8;11.8. Romberg Method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1065;11. Solution of Simultaneous Linear Algebraic Equations;11.9;11.9. Romberg method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1076;12. Numerical Differentiation;12.1;12.1. First Order Derivative;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1076;12. Numerical Differentiation;12.2;12.2. Second Derivative;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1076;12. Numerical Differentiation;12.3;12.3. Richardsons Extrapolation;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1076;12. Numerical Differentiation;12.4;12.4. Richardsons Extrapolation;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1076;12. Numerical Differentiation;12.5;12.5. Lagranges Diiferentiation Formula;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1120;13. Solution of Ordinary Differential Equations Initial Value Problems;13.1;13.1. Solution of a simple ODE using Taylor series expansion;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1120;13. Solution of Ordinary Differential Equations Initial Value Problems;13.10;13.10. Calculation of stiffness ratio for a set of ODEs;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1120;13. Solution of Ordinary Differential Equations Initial Value Problems;13.11;13.11. Stability of Eulers method with different stepsizes;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1120;13. Solution of Ordinary Differential Equations Initial Value Problems;13.12;13.12. Eulers Implicit method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1120;13. Solution of Ordinary Differential Equations Initial Value Problems;13.13;13.13. Multistep Euler predictor corrector method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1120;13. Solution of Ordinary Differential Equations Initial Value Problems;13.14;13.14. Multistep Eulers method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1120;13. Solution of Ordinary Differential Equations Initial Value Problems;13.15;13.15. Milnes Predictor Corrector method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1120;13. Solution of Ordinary Differential Equations Initial Value Problems;13.16;13.16. Milnes method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1120;13. Solution of Ordinary Differential Equations Initial Value Problems;13.17;13.17. Adams Predictor Corrector method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1120;13. Solution of Ordinary Differential Equations Initial Value Problems;13.18;13.18. Fourth Order Backward Differentiation Formulas;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1120;13. Solution of Ordinary Differential Equations Initial Value Problems;13.19;13.19. Differential Algebraic Equations;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1120;13. Solution of Ordinary Differential Equations Initial Value Problems;13.2;13.2. Solving an ODE with Initial condition;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1120;13. Solution of Ordinary Differential Equations Initial Value Problems;13.3;13.3. Eulers predictor and corrector method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1120;13. Solution of Ordinary Differential Equations Initial Value Problems;13.4;13.4. Solving an ODE with Initial condition;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1120;13. Solution of Ordinary Differential Equations Initial Value Problems;13.5;13.5. Mid point method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1120;13. Solution of Ordinary Differential Equations Initial Value Problems;13.6;13.6. Fourth order RK method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1120;13. Solution of Ordinary Differential Equations Initial Value Problems;13.7;13.7. Application of RKG;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1120;13. Solution of Ordinary Differential Equations Initial Value Problems;13.8;13.8. RK Fehlberg;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1120;13. Solution of Ordinary Differential Equations Initial Value Problems;13.9;13.9. Solution of set of ODEs;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1135;14. Solution of Ordinary Differential Equations Boundary Value Problems;14.1;14.1. Shooting Method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1135;14. Solution of Ordinary Differential Equations Boundary Value Problems;14.2;14.2. Finite Difference Method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1135;14. Solution of Ordinary Differential Equations Boundary Value Problems;14.3;14.3. Finite Difference Method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1135;14. Solution of Ordinary Differential Equations Boundary Value Problems;14.4;14.4. Forward and Backward difference approximations;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1135;14. Solution of Ordinary Differential Equations Boundary Value Problems;14.5;14.5. Graeffes method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1135;14. Solution of Ordinary Differential Equations Boundary Value Problems;14.6;14.6. Finding matrices A and B;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1135;14. Solution of Ordinary Differential Equations Boundary Value Problems;14.7;14.7. OC solution;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1135;14. Solution of Ordinary Differential Equations Boundary Value Problems;14.8;14.8. Eigen value problem;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1121;15. Numerical Solution of Partial Differential Equations;15.1;15.1. Classifying the PDEs;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1121;15. Numerical Solution of Partial Differential Equations;15.2;15.2. Finding the Temperature distribution in a plate;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1121;15. Numerical Solution of Partial Differential Equations;15.3;15.3. Solving a PDE using Explicit method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1121;15. Numerical Solution of Partial Differential Equations;15.4;15.4. Solving PDE using Crank Nicolson method;correct;runtime; -260;Numerical Methods With Computer Programs In C++(P. Ghosh);1121;15. Numerical Solution of Partial Differential Equations;15.5;15.5. Solution of Hyperbolic PDE;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );825;1. Development of circuit concept;1.1;1.1. capacitance parameter;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );827;3. Network equations;3.1;3.1. KVL;error;file_not_found;/var/www/scilab_in/uploads-backup/269/CH3/EX3.1/ : NO SCILAB FILE INSIDE -269;Network Analysis(M. E. Van Valkenburg );827;3. Network equations;3.10;3.10. KVL KCL;error;file_not_found;/var/www/scilab_in/uploads-backup/269/CH3/EX3.10/ : NO SCILAB FILE INSIDE -269;Network Analysis(M. E. Van Valkenburg );827;3. Network equations;3.14;3.14. cramers rule;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );827;3. Network equations;3.2;3.2. KVL;error;file_not_found;/var/www/scilab_in/uploads-backup/269/CH3/EX3.2/ : NO SCILAB FILE INSIDE -269;Network Analysis(M. E. Van Valkenburg );827;3. Network equations;3.3;3.3. KCL;error;file_not_found;/var/www/scilab_in/uploads-backup/269/CH3/EX3.3/ : NO SCILAB FILE INSIDE -269;Network Analysis(M. E. Van Valkenburg );827;3. Network equations;3.4;3.4. KCL;error;file_not_found;/var/www/scilab_in/uploads-backup/269/CH3/EX3.4/ : NO SCILAB FILE INSIDE -269;Network Analysis(M. E. Van Valkenburg );827;3. Network equations;3.7;3.7. KCL;error;file_not_found;/var/www/scilab_in/uploads-backup/269/CH3/EX3.7/ : NO SCILAB FILE INSIDE -269;Network Analysis(M. E. Van Valkenburg );827;3. Network equations;3.8;3.8. KVL;error;file_not_found;/var/www/scilab_in/uploads-backup/269/CH3/EX3.8/ : NO SCILAB FILE INSIDE -269;Network Analysis(M. E. Van Valkenburg );827;3. Network equations;3.9;3.9. KCL;error;file_not_found;/var/www/scilab_in/uploads-backup/269/CH3/EX3.9/ : NO SCILAB FILE INSIDE -269;Network Analysis(M. E. Van Valkenburg );946;4. FirstOrder Differential Equations;4.1;4.1. differential equations;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );946;4. FirstOrder Differential Equations;4.2;4.2. differential equations;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );946;4. FirstOrder Differential Equations;4.3;4.3. KVL;error;file_not_found;/var/www/scilab_in/uploads-backup/269/CH4/EX4.3/ : NO SCILAB FILE INSIDE -269;Network Analysis(M. E. Van Valkenburg );946;4. FirstOrder Differential Equations;4.4;4.4. KVL KCL;error;file_not_found;/var/www/scilab_in/uploads-backup/269/CH4/EX4.4/ : NO SCILAB FILE INSIDE -269;Network Analysis(M. E. Van Valkenburg );947;5. Initial Conditions in a Network;5.1;5.1. initial conditions;error;file_not_found;/var/www/scilab_in/uploads-backup/269/CH5/EX5.1/ : NO SCILAB FILE INSIDE -269;Network Analysis(M. E. Van Valkenburg );948;6. Differential equations continued;6.1;6.1. KVL;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );948;6. Differential equations continued;6.3;6.3. KVL;error;file_not_found;/var/www/scilab_in/uploads-backup/269/CH6/EX6.3/ : NO SCILAB FILE INSIDE -269;Network Analysis(M. E. Van Valkenburg );949;7. The Laplace Transformation;7.1;7.1. Laplace transform;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );949;7. The Laplace Transformation;7.10;7.10. laplace;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );949;7. The Laplace Transformation;7.11;7.11. laplace;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );949;7. The Laplace Transformation;7.12;7.12. laplace;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );949;7. The Laplace Transformation;7.13;7.13. Laplace transform;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );949;7. The Laplace Transformation;7.14;7.14. laplace;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );949;7. The Laplace Transformation;7.2;7.2. Laplace transform;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );949;7. The Laplace Transformation;7.3;7.3. laplace;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );949;7. The Laplace Transformation;7.4;7.4. Laplace transform;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );949;7. The Laplace Transformation;7.5;7.5. laplace;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );949;7. The Laplace Transformation;7.7;7.7. laplace;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );949;7. The Laplace Transformation;7.8;7.8. laplace;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );949;7. The Laplace Transformation;7.9;7.9. laplace;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );950;8. Transforms of other signal waveforms;8.1;8.1. laplace;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );950;8. Transforms of other signal waveforms;8.2;8.2. laplace;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );950;8. Transforms of other signal waveforms;8.3;8.3. laplace;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );950;8. Transforms of other signal waveforms;8.5;8.5. laplace;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );950;8. Transforms of other signal waveforms;8.6;8.6. laplace;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );950;8. Transforms of other signal waveforms;8.7;8.7. laplace;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );951;9. Impedance Functions and Network Theorems;9.1;9.1. Initial conditions laplace;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );951;9. Impedance Functions and Network Theorems;9.3;9.3. Initial conditions laplace;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );951;9. Impedance Functions and Network Theorems;9.4;9.4. Initial conditions laplace;error;file_not_found;/var/www/scilab_in/uploads-backup/269/CH9/EX9.4/ : NO SCILAB FILE INSIDE -269;Network Analysis(M. E. Van Valkenburg );951;9. Impedance Functions and Network Theorems;9.6;9.6. Thevenins theorem;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );951;9. Impedance Functions and Network Theorems;9.7;9.7. Thevenins theorem;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );952;10. Network Functions Poles and Zeros;10.13;10.13. stability;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );952;10. Network Functions Poles and Zeros;10.14;10.14. stability;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );952;10. Network Functions Poles and Zeros;10.15;10.15. stability;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );952;10. Network Functions Poles and Zeros;10.16;10.16. stability;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );952;10. Network Functions Poles and Zeros;10.17;10.17. stability;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );952;10. Network Functions Poles and Zeros;10.18;10.18. stability;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );952;10. Network Functions Poles and Zeros;10.19;10.19. stability;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );965;12. Sinusoidal Steady State Analysis;12.1;12.1. phasors;error;file_not_found;/var/www/scilab_in/uploads-backup/269/CH12/EX12.1/ : NO SCILAB FILE INSIDE -269;Network Analysis(M. E. Van Valkenburg );965;12. Sinusoidal Steady State Analysis;12.3;12.3. phasors;error;file_not_found;/var/www/scilab_in/uploads-backup/269/CH12/EX12.3/ : NO SCILAB FILE INSIDE -269;Network Analysis(M. E. Van Valkenburg );965;12. Sinusoidal Steady State Analysis;12.4;12.4. phasors;error;file_not_found;/var/www/scilab_in/uploads-backup/269/CH12/EX12.4/ : NO SCILAB FILE INSIDE -269;Network Analysis(M. E. Van Valkenburg );965;12. Sinusoidal Steady State Analysis;12.6;12.6. KVL KCL PHASORS;error;file_not_found;/var/www/scilab_in/uploads-backup/269/CH12/EX12.6/ : NO SCILAB FILE INSIDE -269;Network Analysis(M. E. Van Valkenburg );964;13. Frequency Response Plots;13.1;13.1. Bode plot;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );964;13. Frequency Response Plots;13.2;13.2. Bode plot;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );964;13. Frequency Response Plots;13.3;13.3. Bode plot;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );964;13. Frequency Response Plots;13.4;13.4. Bode plot;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );964;13. Frequency Response Plots;13.7;13.7. root locus;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );826;14. Input power Power transfer and Insertion Loss;14.2;14.2. Integration over an area;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );826;14. Input power Power transfer and Insertion Loss;14.3;14.3. power calculations;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );826;14. Input power Power transfer and Insertion Loss;14.4;14.4. power calculations;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );983;16. Fourier integral and continous spectra;16.1;16.1. fourier transform;correct;runtime; -269;Network Analysis(M. E. Van Valkenburg );983;16. Fourier integral and continous spectra;16.2;16.2. fourier transform;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);802;4. Electron Ballistics;4.1;4.1. Calculation of acceleration time taken and distance covered and kinetic energy of an accelerating proton;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);802;4. Electron Ballistics;4.2;4.2. electrostatic deflection;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);802;4. Electron Ballistics;4.3;4.3. electron projected at an angle into a uniform electric field;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);802;4. Electron Ballistics;4.4;4.4. motion of an electron in a uniform magnetic field;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);802;4. Electron Ballistics;4.5;4.5. motion of an electron in a uniform magnetic field acting at an angle;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);802;4. Electron Ballistics;4.6;4.6. Magnetostatic deflection;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);802;4. Electron Ballistics;4.7;4.7. electric and magnetic fields in crossed configuration;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);803;5. Electron Optics;5.1;5.1. Electron refraction calculation of potential difference;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);803;5. Electron Optics;5.2;5.2. Cyclotron;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);803;5. Electron Optics;5.4;5.4. calculation of linear separation of lines formed on photographic plates;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);804;6. Properties of Light;6.1;6.1. Optical path calculation;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);804;6. Properties of Light;6.2;6.2. Coherence length calculation;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);805;7. Interference and Diffraction;7.1;7.1. plane parallel thin film;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);805;7. Interference and Diffraction;7.2;7.2. wedge shaped thin film;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);805;7. Interference and Diffraction;7.3;7.3. Newtons ring experiment;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);805;7. Interference and Diffraction;7.4;7.4. nonreflecting film;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);806;8. Polarization;8.2;8.2. Polarizer;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);806;8. Polarization;8.3;8.3. calculation of birefringence;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);808;11. Architectural Acoustics;11.1;11.1. calculation of total absorption and average absorption coefficient;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);808;11. Architectural Acoustics;11.2;11.2. calculation of average absorption coefficient;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);808;11. Architectural Acoustics;11.3;11.3. calculation of average absorption coefficient and area;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);807;12. Ultrasonics;12.1;12.1. calculation of natural frequency;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);807;12. Ultrasonics;12.2;12.2. calculation of natural frequency;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);807;12. Ultrasonics;12.3;12.3. calculation of depth and wavelength;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);809;13. Atomic Physics;13.1;13.1. calculation of rate of flow of photons;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);809;13. Atomic Physics;13.2;13.2. calculation of threshold wavelength and stopping potential;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);809;13. Atomic Physics;13.3;13.3. calculation of momentum of Xray photon undergoing scattering;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);809;13. Atomic Physics;13.4;13.4. calculation of wavelength of scattered radiation and velocity of recoiled electrone;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);809;13. Atomic Physics;13.5;13.5. calculation of wavelength of light emitted;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);809;13. Atomic Physics;13.6;13.6. calculation of de Broglie wavelength;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);809;13. Atomic Physics;13.7;13.7. calculation of uncertainty in position;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);809;13. Atomic Physics;13.8;13.8. Energy states of an electron and grain of dust;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);810;14. Lasers;14.1;14.1. calculation of intensity of laser beam;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);810;14. Lasers;14.2;14.2. calculation of intensity of laser beam;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);810;14. Lasers;14.3;14.3. calculation of coherence length bandwidth and line width;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);810;14. Lasers;14.4;14.4. calculation of frequency difference;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);810;14. Lasers;14.5;14.5. calculation of frequency difference;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);811;15. Atomic nucleus and nuclear energy;15.1;15.1. calculation of binding energy per nucleon;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);811;15. Atomic nucleus and nuclear energy;15.10;15.10. calculation of crossection;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);811;15. Atomic nucleus and nuclear energy;15.11;15.11. calculation of final energy;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);811;15. Atomic nucleus and nuclear energy;15.12;15.12. calculation of amount of fuel;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);811;15. Atomic nucleus and nuclear energy;15.13;15.13. calculation of power output;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);811;15. Atomic nucleus and nuclear energy;15.14;15.14. calculation of power developed;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);811;15. Atomic nucleus and nuclear energy;15.15;15.15. calculation of amount of dueterium consumed;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);811;15. Atomic nucleus and nuclear energy;15.2;15.2. calculation of energy;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);811;15. Atomic nucleus and nuclear energy;15.3;15.3. calculation of binding energy;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);811;15. Atomic nucleus and nuclear energy;15.4;15.4. calculation of binding energy;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);811;15. Atomic nucleus and nuclear energy;15.5;15.5. calculation of halflife;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);811;15. Atomic nucleus and nuclear energy;15.6;15.6. calculation of activity;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);811;15. Atomic nucleus and nuclear energy;15.7;15.7. calculation of age of mineral;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);811;15. Atomic nucleus and nuclear energy;15.8;15.8. calculation of age of wooden piece;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);811;15. Atomic nucleus and nuclear energy;15.9;15.9. calculation of energy released;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);812;16. Structure of Solids;16.1;16.1. calculation of density;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);812;16. Structure of Solids;16.2;16.2. calculation of no of atoms;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);812;16. Structure of Solids;16.3;16.3. calculation of distance;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);812;16. Structure of Solids;16.4;16.4. calculation of interatomic spacing;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);813;17. The Band Theory of Solids;17.1;17.1. calculation of velocity of fraction of free electrone;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);813;17. The Band Theory of Solids;17.2;17.2. calculation of velocity of e;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);813;17. The Band Theory of Solids;17.3;17.3. calculation of velocity of fraction of free electrones;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);814;18. Semiconductors;18.2;18.2. calculation of probability;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);814;18. Semiconductors;18.3;18.3. calculation of fraction of e in CB;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);814;18. Semiconductors;18.4;18.4. calculation of fractionional change in no of e;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);814;18. Semiconductors;18.5;18.5. calculation of resistivity;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);814;18. Semiconductors;18.6;18.6. calculation of conductivity of intrinsic and doped semiconductors;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);814;18. Semiconductors;18.7;18.7. calculation of hole concentration;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);814;18. Semiconductors;18.8;18.8. calculation of Hall voltage;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);815;19. PN Junction Diode;19.1;19.1. calculation of potential barrier;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);815;19. PN Junction Diode;19.2;19.2. calculation of current;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);816;21. Magnetic Materials;21.1;21.1. calculation of magnetizing force and relative permeability;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);816;21. Magnetic Materials;21.2;21.2. calculation of magnetization and magnetic flux density;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);816;21. Magnetic Materials;21.3;21.3. calculation of relative permeability;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);817;22. Superconductivity;22.1;22.1. calculation of magnetic field;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);817;22. Superconductivity;22.2;22.2. calculation of transition temperature;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);817;22. Superconductivity;22.3;22.3. calculation of temp at which there is max critical field;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);818;23. Dielectrics;23.1;23.1. calculation of relative permittivity;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);818;23. Dielectrics;23.2;23.2. calculation of electronic polarizability;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);818;23. Dielectrics;23.3;23.3. calculation of electronic polarizability and relative permittivity;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);818;23. Dielectrics;23.4;23.4. calculation of electronic polarizability and relative permittivity;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);818;23. Dielectrics;23.5;23.5. calculation of ionic polarizability;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);818;23. Dielectrics;23.6;23.6. calculation of frequency and phase difference;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);818;23. Dielectrics;23.7;23.7. calculation of frequency;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);819;24. Fibre optics;24.1;24.1. Fiber optics numerical aperture calculation;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);819;24. Fibre optics;24.2;24.2. calculation of acceptance angle;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);819;24. Fibre optics;24.3;24.3. calculation of normailsed frequency;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);819;24. Fibre optics;24.4;24.4. calculation of normailsed frequency and no of modes;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);819;24. Fibre optics;24.5;24.5. calculation of numerical aperture and maximum acceptance angle;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);819;24. Fibre optics;24.6;24.6. calculation of power level;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);819;24. Fibre optics;24.7;24.7. calculation of power loss;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.1;25.1. sum of two binary numbers;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.10;25.10. binary division;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.11;25.11. octal addition;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.12;25.12. octal multiplication;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.13;25.13. hexadecimal addition;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.14;25.14. binary to decimal conversion;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.15;25.15. decimal to binary conversion;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.16;25.16. decimal to binary conversion;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.17;25.17. decimal to octal conversion;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.18;25.18. octal to binary conversion;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.19;25.19. octal to binary conversion;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.2;25.2. sum of two binary numbers;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.20;25.20. binary to octal conversion;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.21;25.21. hexa to decimal conversion;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.22;25.22. decimal to hexadecimal conversion;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.23;25.23. hexa to binary conversion;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.24;25.24. binary to hexa conversion;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.25;25.25. Substraction by ones complement method;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.26;25.26. Substraction by ones complement method;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.27;25.27. Substraction by ones complement method;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.28;25.28. finding twos complement;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.29;25.29. Addition of negative number by twos complement method;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.3;25.3. sum of two binary numbers;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.30;25.30. Substraction by twos complement method;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.4;25.4. difference of two binary numbers;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.5;25.5. difference of two binary numbers;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.6;25.6. difference of two binary numbers;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.7;25.7. product of two binary numbers;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.8;25.8. binary multiplication;correct;runtime; -273;A Textbook Of Engineering Physics(M. N. Avadhanulu, And P. G. Kshirsagar);881;25. Digital electronics;25.9;25.9. binary division;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.11;1.1.11. Find the forward and reverse resistance and cut in voltage for diode;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.20;1.1.20. Find the dynamic resistance;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.24;1.1.24. calculate current in circuit in fig 18;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.25;1.1.25. calculate diode current;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.26;1.1.26. calculate diode current across 2 diodes;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.27;1.1.27. find the forward current in circuit of fig 22;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.28;1.1.28. find out battery voltage;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.29;1.1.29. find out series resistance;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.31;1.1.31. Plot the piecewise linear characterisic of si diode;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.32;1.1.32. Plot the piecewiselinear characterisic of Germanium diode;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.34;1.1.34. find out diode current;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.35;1.1.35. find out series resistance in circuit fig 32;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.48;1.1.48. Find the maximum forward current at 25c;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.49;1.1.49. Find the maximum forward current at 25c and 80c and plot power temperature curve;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.50;1.1.50. Find maximum forward current at 80c;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.51;1.1.51. Find maximum forward current at 75c and draw power temperature curve;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.54;1.1.54. Find the forward voltage drop at 100c and dynamic resistance at 25c and 100c;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.55;1.1.55. Find the maximum and mini forward voltage drop and dynamic resistance;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.56;1.1.56. Find the max forward current and voltage and dynamic resistance;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.57;1.1.57. Find the diode currents at 25c and 100c;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.65;1.1.65. Find the minimal fall time;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.66;1.1.66. Estimate the maximum reverse recovery time;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.72;1.1.72. Find the maximum current flow through zener;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.75;1.1.75. Find the current through zener at 50c and 80c;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.76;1.1.76. Find the diode current and power dissipation;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.8;1.1.8. Find the forward and reverse resistance for diode;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);837;1. PN Junction Diode;1.1.9;1.1.9. Find the forward and reverse resistance for diode;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.11;2.2.11. Calculate Peak ac dc load current dc diode voltage total input power percentage regulation of HW Rectifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.12;2.2.12. Calculate DC RMS load voltage PIV across diode Rectification efficiency DC power delivered to load Frequency of output waveform of HW rectifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.20;2.2.20. Calculate peak RMS DC load current DC in each diode DC output voltage percentage regulation PIV RMS current DC load voltage of FW rectifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.21;2.2.21. Find the load current and rms value of input current of FW rectifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.22;2.2.22. Calculate Average load current and voltage and Ripple voltage of FW rectifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.23;2.2.23. Calculate Average voltage rectification efficiency and percentage regulation of FW rectifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.24;2.2.24. Calculate Average load voltage RMS load current PIV DC output power Frequency of output waveform;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.28;2.2.28. Calculate all characteristics of FW bridge rectifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.29;2.2.29. Calculate Average output voltage avg load current frequency of output waveform dc power output of FWBR;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.34;2.2.34. Calculate Ripple factor DC output voltage DC load current PIV RMS output ripple voltage of HWR;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.35;2.2.35. Calculate the capacitance of HWR;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.40;2.2.40. Estimate the value of capacitor required to keep ripple factor less than 1per of FWR;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.41;2.2.41. Calculate minimum value of capacitance used in the filter to keep ripple voltage below 2per of FWR;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.42;2.2.42. Find Ripple factor Dc output voltage Ripple voltage DC load current of FWR;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.43;2.2.43. Find the ripple factor and output voltage if a capacitor of 160uf is connected in parallel with load of FWR;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.44;2.2.44. Find the ripple factor and DC load current of FWBR;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.45;2.2.45. Find the capacitor value for half wave rectifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.46;2.2.46. Find the capacitor value for full wave rectifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.50;2.2.50. calculate load and source effects and load and line regulation;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.51;2.2.51. calculate load and source effects and load and line regulation;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.54;2.2.54. Design the Zener Diode Voltage regulator for given specification;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.55;2.2.55. Design a zener diode voltage regulator to meet following specification;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.56;2.2.56. Design a zener diode voltage regulator to meet following specification;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.57;2.2.57. Calculate the value of series resistance and Zener diode current when load is 1200ohm;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.58;2.2.58. Design a voltage regulator using zener diode to meet following specification;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.59;2.2.59. Design a zener voltage regulator to meet following specification;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.60;2.2.60. Design a zener voltage regulator to meet following specification;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.61;2.2.61. Design a zener voltage regulator to meet following specification;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.63;2.2.63. Design a 6V dc reference source to operate from a 16v supply;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.64;2.2.64. Design a 8V dc reference source to operate from a 20v supply and find maximum load current;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.65;2.2.65. Calculate circuit current when supply voltage drops to 27V select suitable components;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.66;2.2.66. Calculate the effect of a 10per variation supply voltage on diode current;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);899;2. Semiconductor Diode Applications;2.2.68;2.2.68. Calculate the line regulation output resistance load regulation and ripple rejection ratio;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.14;3.3.14. calculate the value of Ic Ie beta for a transistor;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.15;3.3.15. Find the value of alpha and beta of transistor and Ib for desired Ic;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.16;3.3.16. calculate the value of alpha beta and Ib for a transistor;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.17;3.3.17. calculate the value of beta for transistor and find new collector current when beta of new transistor is 70;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.18;3.3.18. calculate the value of Ic Ie for a transistor and Find beta for transistor;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.19;3.3.19. calculate the value of Ie alpha beta for a transistor and find Ib for new value of Ic;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.20;3.3.20. calculate the value of Ic and Ie for a transistor;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.21;3.3.21. calculate the value of Ic alpha beta for a transistor and Ic when Ib is 150uA;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.22;3.3.22. calculate the value of Ib beta for a transistor and Ic Ie for new value of beta;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.25;3.3.25. Find the DC collector voltage and voltage gain of ckt for Vi is 50mV;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.26;3.3.26. FInd the DC current gain for circuit fig 15 and ac voltage gain;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.27;3.3.27. Find the parameters of the ckt of question 27;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.34;3.3.34. Obtain the CB current gain and output characteristics;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.46;3.3.46. For the circuit given draw a DC load line;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.50;3.3.50. Draw a DC load line for the base bias circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.51;3.3.51. Draw a DC load line for the base bias circuit for different hFE;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.52;3.3.52. Find Ic and Vce and Draw a DC load line for the base bias circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.53;3.3.53. Find Ic and Vce and Draw a DC load line for the base bias circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.54;3.3.54. Draw a DC load line for the base bias circuit neglecting Vbe;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.55;3.3.55. Calculate transistor hFE and new Vce level for hFE is 100 of base bias ciruit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.57;3.3.57. Design a Base bias circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.58;3.3.58. Draw the DC load line and determine Rc for base bias circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.59;3.3.59. Calculate Base resistance for base bias circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.61;3.3.61. Determine the Ic and Vce levels and draw DC load line for Collector to base bias;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.62;3.3.62. Determine the hFE and new Vce for hFE is 50 for Collector to base bias;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.63;3.3.63. Draw a DC load line for Collector to base bias;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.64;3.3.64. Draw a DC load line for Collector to base bias for different hFE;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.66;3.3.66. Design a Collector to base bias circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.67;3.3.67. Design a Collector to base bias circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.68;3.3.68. Calculate required base resistance for Collector to base bias circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.72;3.3.72. Draw a DC load line for Voltage divider circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.73;3.3.73. Find the Ve Ic Vce and Vc and Draw a DC load line for Voltage divider circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.74;3.3.74. Find the Ve Ic Vce and Vc and Draw a DC load line for Voltage divider circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.76;3.3.76. Design a Voltage divider bias circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.77;3.3.77. Design a Voltage divider bias circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.79;3.3.79. Calculate the suitable resistor values for Voltage divider bias circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.85;3.3.85. Find the stability factor and change in Ic for increase in temperature of base bias circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.86;3.3.86. Find the stability factor and change in Ic for increase in temperature of collector to base bias circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.87;3.3.87. Find the stability factor and change in Ic for increase in temperature of Voltage divider bias circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.89;3.3.89. Calculate the change in Ic produced by effect of Vbe changes over temperature of Voltage divider bias circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);937;3. pnp and npn Transistors;3.3.90;3.3.90. Calculate the change in Ic produced by effect of Vbe changes over temperature of Voltage divider bias circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);893;4. Other Devices;4.4.18;4.4.18. Calculate input votage that turns SCR ON and supply voltage that turns OFF;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);893;4. Other Devices;4.4.28;4.4.28. Calculate the values of R1 R2 and Rp of SCR circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);893;4. Other Devices;4.4.29;4.4.29. Calculate the values of R1 R2 and Rp of SCR circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);893;4. Other Devices;4.4.40;4.4.40. Design the SCR crowbar circuit to protect the load from voltage levels greater than 12V;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);893;4. Other Devices;4.4.41;4.4.41. Design the SCR crowbar circuit to protect the load from voltage levels greater than specified voltage;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);893;4. Other Devices;4.4.49;4.4.49. Determine the minimum and maximum triggering voltage for a UJT;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);893;4. Other Devices;4.4.51;4.4.51. find maximum oscillating frequency of UJT;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);893;4. Other Devices;4.4.52;4.4.52. Determine the minimum and maximum values of VEB1 for a UJT;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);893;4. Other Devices;4.4.53;4.4.53. find maximum oscillating frequency of UJT;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);893;4. Other Devices;4.4.74;4.4.74. plot the drain characteristics of JFET;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);893;4. Other Devices;4.4.77;4.4.77. calculate Vds at these gate source voltages and circuit voltage gain of JFET;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);893;4. Other Devices;4.4.78;4.4.78. calculate the minimum and maximum variation in Vds and circuit voltage gain of JFET;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);893;4. Other Devices;4.4.79;4.4.79. calculate transconductance of JFET;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);893;4. Other Devices;4.4.80;4.4.80. determine the suitable value of load resistor Rd of JFET;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.10;5.5.10. Calculate overall voltage gain and output voltage when input voltage is 1uV for cascaded amplifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.11;5.5.11. Calculate overall voltage gain in db of cascaded 2 stage amplifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.12;5.5.12. Calculate overall voltage gain and gain of 2nd and 3rd stage and input voltage of 2nd stage;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.15;5.5.15. For CE amplifier find R1 R2 Re and Rc;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.16;5.5.16. For CE amplifier find R1 R2 Re and Rc;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.19;5.5.19. calculate upper cutoff frequency and voltage gain at lower cutoff frequency;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.23;5.5.23. calculate closed loop gain for the negative feedback amplifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.24;5.5.24. calculate closed loop gain for the negative feedback amplifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.27;5.5.27. calculate input impedance of amplifier with negative feedback;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.29;5.5.29. calculate input and output impedance of amplifier with negative feedback;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.3;5.5.3. Calculate output power change in decibel of amplifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.35;5.5.35. Estimate the closed loop upper cut off frequency and total harmonic distortion;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.36;5.5.36. calculate open loop cut off frequency if the open loop gain is 200000;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.37;5.5.37. calculate the phase shift with negative feedback;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.38;5.5.38. calculate bandwidth and gain and harmonic distortion with feedback;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.4;5.5.4. Calculate output power change in decibel of amplifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.40;5.5.40. calculate the frequency of oscillation and feedback factor of Hartley oscillator;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.43;5.5.43. calculate the frequency of oscillation of RC phase shift oscillator;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.44;5.5.44. calculate the value of Capacitor for a RC phase shift oscillator;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.45;5.5.45. calculate the value of R and C for RC phase shift oscillator;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.49;5.5.49. calculate frequency of oscillation and feedback factor and gain of hartley oscillator;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.5;5.5.5. Calculate power gain of amplifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.51;5.5.51. calculate the value of L1 and L2 of Hartley oscillator;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.53;5.5.53. Design the value of L1 L2 and C for a hartley oscillator;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.55;5.5.55. calculate the frequency of oscillation of Colpitts oscillator;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.56;5.5.56. calculate the frequency of oscillation feedback factor and gain required for sustained oscillation;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.57;5.5.57. calculate the value of L of Colpitts oscillator;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.58;5.5.58. calculate the value of C1 and C2 of Colpitts oscillator;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.59;5.5.59. calculate the value of L and C for a colpitts oscillator;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.6;5.5.6. Calculate new level of output voltage when it has fallen by 4db;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.61;5.5.61. calculate the frequency of oscillation for Wein Bridge Oscillator;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.62;5.5.62. calculate the value of R and C for Wein Bridge oscillator;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);894;5. Amplifiers and Oscillators;5.5.65;5.5.65. calculate the Series and parallel resonant frequencies of Crystal;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);822;6. Operational Amplifier;6.6.15;6.6.15. Calculate maximum frequency at which output is faithful reproduction of input;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);822;6. Operational Amplifier;6.6.19;6.6.19. Calculate common mode output voltage;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);822;6. Operational Amplifier;6.6.20;6.6.20. Express CMRR in dB;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);822;6. Operational Amplifier;6.6.24;6.6.24. Calculate and sketch the output;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);822;6. Operational Amplifier;6.6.25;6.6.25. Calculate design value of inverting amplifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);822;6. Operational Amplifier;6.6.26;6.6.26. Calculate output voltage of inverting amplifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);822;6. Operational Amplifier;6.6.27;6.6.27. Calculate closed loop gain and input voltage for a specified output voltage;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);822;6. Operational Amplifier;6.6.28;6.6.28. Calculate feedback resistor and closed loop gain;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);822;6. Operational Amplifier;6.6.31;6.6.31. Calculate output voltage for given input voltage of non inverting amplifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);822;6. Operational Amplifier;6.6.32;6.6.32. Calculate closed loop gain and input voltage for a specified output voltage of noninverting amplifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);822;6. Operational Amplifier;6.6.33;6.6.33. Calculate output voltage for inverting amplifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);822;6. Operational Amplifier;6.6.34;6.6.34. Calculate output voltage for non inverting amplifier;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);822;6. Operational Amplifier;6.6.37;6.6.37. Calculate closed loop gain and current;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);822;6. Operational Amplifier;6.6.45;6.6.45. Calculate output voltage for summer;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);822;6. Operational Amplifier;6.6.55;6.6.55. Calculate bandwidth;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);822;6. Operational Amplifier;6.6.56;6.6.56. Calculate the design value of amplifier circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);822;6. Operational Amplifier;6.6.57;6.6.57. Calculate design value of circuit;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);823;7. Communication System;7.7.25;7.7.25. Determine sideband frequencies and Bandwidth;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);823;7. Communication System;7.7.27;7.7.27. Calculate total power in modulated wave;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);823;7. Communication System;7.7.28;7.7.28. Determine radiated power;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);823;7. Communication System;7.7.34;7.7.34. Calculate carrier power;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);823;7. Communication System;7.7.35;7.7.35. Determine power content of carrier and sidebands;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);823;7. Communication System;7.7.36;7.7.36. Calculate sideband frequencies and bandwidth and total power;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);823;7. Communication System;7.7.37;7.7.37. Calculate modulation index;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);823;7. Communication System;7.7.38;7.7.38. Determine antenna current;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);823;7. Communication System;7.7.39;7.7.39. Calculate tranmission power efficiency and average power in carrier component;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);823;7. Communication System;7.7.40;7.7.40. Calculate modulation index;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);823;7. Communication System;7.7.41;7.7.41. Sketch the frequency spectrum;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);823;7. Communication System;7.7.42;7.7.42. Find the saving power in LSB alone;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);823;7. Communication System;7.7.55;7.7.55. Find maximum frequency deviation and modulation index;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);823;7. Communication System;7.7.56;7.7.56. Calculate frequency deviation and modulation index;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);823;7. Communication System;7.7.92;7.7.92. Find the peak value of unknown voltage;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.10;8.8.10. convert the decimal to binary numbers;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.12;8.8.12. convert the octal to decimal;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.13;8.8.13. convert the decimael numbers to Octal;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.14;8.8.14. convert the binary number to Octal;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.15;8.8.15. convert the octal to binary number;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.17;8.8.17. convert the hexadecimael numbers to decimal;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.18;8.8.18. convert the decimael numbers to hexadecimal;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.19;8.8.19. convert the binary numbers to hexadecimal;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.21;8.8.21. Add the binary numbers;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.23;8.8.23. Add the octal numbers;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.25;8.8.25. Add the hexadecimal numbers;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.30a;8.8.30a. perform the decimal subtraction using 9s complements;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.30b;8.8.30b. perform the decimal subtraction using 10s complements;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.31a;8.8.31a. perform the binary substraction using 1s complement;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.31b;8.8.31b. perform the binary substraction using 2s complement;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.48a;8.8.48a. Prove the boolean thereom;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.48b;8.8.48b. Prove the boolean thereom;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.49a;8.8.49a. Prove the boolean identities;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.49b;8.8.49b. Prove the boolean identities;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.50a;8.8.50a. Construct the Truth Table for logic expression;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.50b;8.8.50b. Construct the Truth Table for logic expression;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.50c;8.8.50c. Construct the Truth Table for logic expression;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.7;8.8.7. Convert the binary number to decimal without decimal point;correct;runtime; -275;Basic Electronics(R. D. S. Samuel, U. B. M. Swamy And V. Nattarasu);936;8. Digital Logic;8.8.8;8.8.8. Convert the binary number to decimal with decimal point;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);904;3. Ch3;3.1;3.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);904;3. Ch3;3.2;3.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);904;3. Ch3;3.3;3.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);904;3. Ch3;3.4;3.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);905;4. Ch4;4.1;4.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);905;4. Ch4;4.10;4.10. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);905;4. Ch4;4.11;4.11. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);905;4. Ch4;4.12;4.12. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);905;4. Ch4;4.13;4.13. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);905;4. Ch4;4.14;4.14. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);905;4. Ch4;4.15;4.15. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);905;4. Ch4;4.16;4.16. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);905;4. Ch4;4.17;4.17. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);905;4. Ch4;4.18;4.18. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);905;4. Ch4;4.19;4.19. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);905;4. Ch4;4.2;4.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);905;4. Ch4;4.3;4.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);905;4. Ch4;4.4;4.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);905;4. Ch4;4.5;4.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);905;4. Ch4;4.6;4.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);905;4. Ch4;4.7;4.7. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);905;4. Ch4;4.8;4.8. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);905;4. Ch4;4.9;4.9. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.1;5.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.10;5.10. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.11;5.11. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.13;5.13. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.14;5.14. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.15;5.15. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.16;5.16. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.17;5.17. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.18;5.18. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.19;5.19. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.2;5.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.20;5.20. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.21;5.21. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.22;5.22. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.24;5.24. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.25;5.25. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.26;5.26. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.3;5.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.4;5.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.5;5.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.6;5.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.7;5.7. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.8;5.8. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);907;5. Ch5;5.9;5.9. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);906;6. Ch6;6.1;6.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);906;6. Ch6;6.10;6.10. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);906;6. Ch6;6.11;6.11. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);906;6. Ch6;6.12;6.12. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);906;6. Ch6;6.13;6.13. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);906;6. Ch6;6.14;6.14. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);906;6. Ch6;6.2;6.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);906;6. Ch6;6.3;6.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);906;6. Ch6;6.4;6.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);906;6. Ch6;6.5;6.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);906;6. Ch6;6.6;6.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);906;6. Ch6;6.7;6.7. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);906;6. Ch6;6.8;6.8. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);906;6. Ch6;6.9;6.9. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);991;7. Ch7;7.1;7.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);991;7. Ch7;7.2;7.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);991;7. Ch7;7.3;7.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);991;7. Ch7;7.4;7.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);991;7. Ch7;7.5;7.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);991;7. Ch7;7.6;7.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);908;8. Ch8;8.1;8.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);908;8. Ch8;8.2;8.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);908;8. Ch8;8.3;8.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);908;8. Ch8;8.4;8.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);908;8. Ch8;8.5;8.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);909;9. Ch9;24.5;24.5. Machine design;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/278/CH24/EX24.5/: PATH DOES NOT EXIST -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);909;9. Ch9;9.1;9.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);909;9. Ch9;9.10;9.10. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);909;9. Ch9;9.11;9.11. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);909;9. Ch9;9.12;9.12. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);909;9. Ch9;9.13;9.13. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);909;9. Ch9;9.14;9.14. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);909;9. Ch9;9.15;9.15. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);909;9. Ch9;9.16;9.16. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);909;9. Ch9;9.17;9.17. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);909;9. Ch9;9.18;9.18. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);909;9. Ch9;9.2;9.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);909;9. Ch9;9.3;9.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);909;9. Ch9;9.4;9.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);909;9. Ch9;9.5;9.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);909;9. Ch9;9.6;9.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);909;9. Ch9;9.7;9.7. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);909;9. Ch9;9.8;9.8. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);909;9. Ch9;9.9;9.9. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);910;10. Ch10;10.1;10.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);910;10. Ch10;10.10;10.10. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);910;10. Ch10;10.11;10.11. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);910;10. Ch10;10.12;10.12. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);910;10. Ch10;10.13;10.13. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);910;10. Ch10;10.14;10.14. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);910;10. Ch10;10.15;10.15. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);910;10. Ch10;10.16;10.16. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);910;10. Ch10;10.2;10.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);910;10. Ch10;10.3;10.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);910;10. Ch10;10.4;10.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);910;10. Ch10;10.5;10.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);910;10. Ch10;10.6;10.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);910;10. Ch10;10.7;10.7. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);910;10. Ch10;10.8;10.8. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);910;10. Ch10;10.9;10.9. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);911;11. Ch11;11.1;11.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);911;11. Ch11;11.10;11.10. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);911;11. Ch11;11.11;11.11. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);911;11. Ch11;11.12;11.12. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);911;11. Ch11;11.13;11.13. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);911;11. Ch11;11.14;11.14. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);911;11. Ch11;11.15;11.15. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);911;11. Ch11;11.16;11.16. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);911;11. Ch11;11.17;11.17. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);911;11. Ch11;11.18;11.18. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);911;11. Ch11;11.19;11.19. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);911;11. Ch11;11.2;11.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);911;11. Ch11;11.3;11.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);911;11. Ch11;11.4;11.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);911;11. Ch11;11.5;11.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);911;11. Ch11;11.6;11.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);911;11. Ch11;11.7;11.7. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);911;11. Ch11;11.8;11.8. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);911;11. Ch11;11.9;11.9. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);929;12. Ch12;12.1;12.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);929;12. Ch12;12.2;12.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);929;12. Ch12;12.3;12.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);929;12. Ch12;12.4;12.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);929;12. Ch12;12.5;12.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);929;12. Ch12;12.6;12.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);929;12. Ch12;12.7;12.7. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);929;12. Ch12;12.8;12.8. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);929;12. Ch12;12.9;12.9. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);930;13. Ch13;13.1;13.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);930;13. Ch13;13.10;13.10. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);930;13. Ch13;13.11;13.11. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);930;13. Ch13;13.13;13.13. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);930;13. Ch13;13.2;13.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);930;13. Ch13;13.3;13.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);930;13. Ch13;13.4;13.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);930;13. Ch13;13.5;13.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);930;13. Ch13;13.6;13.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);930;13. Ch13;13.7;13.7. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);930;13. Ch13;13.8;13.8. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);930;13. Ch13;13.9;13.9. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);931;14. Ch14;14.1;14.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);931;14. Ch14;14.10;14.10. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);931;14. Ch14;14.11;14.11. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);931;14. Ch14;14.12;14.12. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);931;14. Ch14;14.13;14.13. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);931;14. Ch14;14.2;14.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);931;14. Ch14;14.3;14.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);931;14. Ch14;14.4;14.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);931;14. Ch14;14.5;14.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);931;14. Ch14;14.6;14.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);931;14. Ch14;14.7;14.7. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);931;14. Ch14;14.8;14.8. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);931;14. Ch14;14.9;14.9. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);932;15. Ch15;15.1;15.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);932;15. Ch15;15.10;15.10. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);932;15. Ch15;15.11;15.11. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);932;15. Ch15;15.2;15.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);932;15. Ch15;15.3;15.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);932;15. Ch15;15.4;15.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);932;15. Ch15;15.5;15.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);932;15. Ch15;15.6;15.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);932;15. Ch15;15.7;15.7. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);932;15. Ch15;15.8;15.8. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);932;15. Ch15;15.9;15.9. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);933;16. Ch16;16.1;16.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);933;16. Ch16;16.2;16.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);933;16. Ch16;16.3;16.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);933;16. Ch16;16.4;16.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);933;16. Ch16;16.5;16.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);933;16. Ch16;16.6;16.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);934;17. Ch17;17.1;17.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);934;17. Ch17;17.10;17.10. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);934;17. Ch17;17.11;17.11. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);934;17. Ch17;17.12;17.12. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);934;17. Ch17;17.14;17.14. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);934;17. Ch17;17.15;17.15. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);934;17. Ch17;17.16;17.16. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);934;17. Ch17;17.17;17.17. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);934;17. Ch17;17.2;17.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);934;17. Ch17;17.3;17.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);934;17. Ch17;17.4;17.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);934;17. Ch17;17.5;17.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);934;17. Ch17;17.6;17.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);934;17. Ch17;17.7;17.7. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);934;17. Ch17;17.9;17.9. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);935;18. Ch18;18.1;18.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);935;18. Ch18;18.10;18.10. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);935;18. Ch18;18.11;18.11. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);935;18. Ch18;18.2;18.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);935;18. Ch18;18.3;18.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);935;18. Ch18;18.4;18.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);935;18. Ch18;18.5;18.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);935;18. Ch18;18.7;18.7. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);935;18. Ch18;18.8;18.8. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);935;18. Ch18;18.9;18.9. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);938;19. Ch19;19.1;19.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);938;19. Ch19;19.2;19.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);938;19. Ch19;19.3;19.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);939;20. Ch20;20.1;20.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);939;20. Ch20;20.10;20.10. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);939;20. Ch20;20.11;20.11. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);939;20. Ch20;20.12;20.12. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);939;20. Ch20;20.2;20.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);939;20. Ch20;20.3;20.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);939;20. Ch20;20.5;20.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);939;20. Ch20;20.6;20.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);939;20. Ch20;20.7;20.7. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);939;20. Ch20;20.8;20.8. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);939;20. Ch20;20.9;20.9. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);940;21. Ch21;21.1;21.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);941;22. Ch22;22.1;22.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);941;22. Ch22;22.10;22.10. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);941;22. Ch22;22.11;22.11. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);941;22. Ch22;22.13;22.13. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);941;22. Ch22;22.2;22.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);941;22. Ch22;22.3;22.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);941;22. Ch22;22.4;22.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);941;22. Ch22;22.5;22.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);941;22. Ch22;22.6;22.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);941;22. Ch22;22.7;22.7. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);941;22. Ch22;22.9;22.9. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.1;23.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.10;23.10. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.11;23.11. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.12;23.12. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.13;23.13. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.15;23.15. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.16;23.16. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.18;23.18. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.19;23.19. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.2;23.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.20;23.20. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.21;23.21. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.22;23.22. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.23;23.23. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.24;23.24. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.26;23.26. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.3;23.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.4;23.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.5;23.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.6;23.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.7;23.7. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.8;23.8. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);942;23. Ch23;23.9;23.9. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);943;24. Ch24;24.1;24.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);943;24. Ch24;24.10;24.10. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);943;24. Ch24;24.11;24.11. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);943;24. Ch24;24.12;24.12. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);943;24. Ch24;24.13;24.13. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);943;24. Ch24;24.14;24.14. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);943;24. Ch24;24.2;24.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);943;24. Ch24;24.3;24.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);943;24. Ch24;24.4;24.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);943;24. Ch24;24.6;24.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);943;24. Ch24;24.7;24.7. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);943;24. Ch24;24.8;24.8. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);943;24. Ch24;24.9;24.9. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);944;25. Ch25;25.1;25.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);944;25. Ch25;25.10;25.10. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);944;25. Ch25;25.11;25.11. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);944;25. Ch25;25.12;25.12. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);944;25. Ch25;25.14;25.14. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);944;25. Ch25;25.15;25.15. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);944;25. Ch25;25.2;25.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);944;25. Ch25;25.3;25.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);944;25. Ch25;25.4;25.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);944;25. Ch25;25.5;25.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);944;25. Ch25;25.6;25.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);944;25. Ch25;25.7;25.7. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);944;25. Ch25;25.8;25.8. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);944;25. Ch25;25.9;25.9. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);944;25. Ch25;26.5;26.5. Machine design;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/278/CH26/EX26.5/: PATH DOES NOT EXIST -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);945;26. Ch26;26.1;26.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);945;26. Ch26;26.10;26.10. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);945;26. Ch26;26.2;26.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);945;26. Ch26;26.3;26.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);945;26. Ch26;26.4;26.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);945;26. Ch26;26.6;26.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);945;26. Ch26;26.7;26.7. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);945;26. Ch26;26.8;26.8. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);945;26. Ch26;26.9;26.9. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);945;26. Ch26;29.10;29.10. Machine design;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/278/CH29/EX29.10/: PATH DOES NOT EXIST -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);953;27. Ch27;27.1;27.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);953;27. Ch27;27.2;27.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);953;27. Ch27;27.3;27.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);953;27. Ch27;27.4;27.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);953;27. Ch27;27.5;27.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);953;27. Ch27;27.6;27.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);954;28. ch28;28.1;28.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);954;28. ch28;28.2;28.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);954;28. ch28;28.3;28.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);954;28. ch28;28.4;28.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);954;28. ch28;28.5;28.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);954;28. ch28;28.6;28.6. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);954;28. ch28;28.7;28.7. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);955;29. Ch29;29.1;29.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);955;29. Ch29;29.2;29.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);955;29. Ch29;29.3;29.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);956;30. ch30;30.1;30.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);956;30. ch30;30.2;30.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);956;30. ch30;30.3;30.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);956;30. ch30;30.4;30.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);957;31. Ch31;31.1;31.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);957;31. Ch31;31.2;31.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);957;31. Ch31;31.3;31.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);957;31. Ch31;31.4;31.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);958;32. Ch32;32.1;32.1. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);958;32. Ch32;32.2;32.2. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);958;32. Ch32;32.3;32.3. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);958;32. Ch32;32.4;32.4. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);958;32. Ch32;32.5;32.5. Machine design;correct;runtime; -278;A Textbook Of Machine Design(R. S. Khurmi And J. K. Gupta);958;32. Ch32;32.6;32.6. Machine design;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);959;1. Introduction to Operational Amplifiers;1.1;1.1. Voltage follower;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);959;1. Introduction to Operational Amplifiers;1.2;1.2. Non Inverting amplifier;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);959;1. Introduction to Operational Amplifiers;1.3;1.3. Inverting amplifier;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);960;2. Operational Amplifier Parameters;2.1;2.1. Non Inverting amplifier;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);960;2. Operational Amplifier Parameters;2.2;2.2. PSVR;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);960;2. Operational Amplifier Parameters;2.3;2.3. Offset voltage;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);960;2. Operational Amplifier Parameters;2.4;2.4. Input impedance;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);960;2. Operational Amplifier Parameters;2.5;2.5. Output impedance;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);961;3. Op Amps as DC Amplifiers;3.1;3.1. Voltage follower;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);961;3. Op Amps as DC Amplifiers;3.10;3.10. Differential and common mode input resistance;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);961;3. Op Amps as DC Amplifiers;3.11;3.11. Output voltage nulling;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);961;3. Op Amps as DC Amplifiers;3.2;3.2. Voltage follower;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);961;3. Op Amps as DC Amplifiers;3.3;3.3. Potential divider and voltage follower;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);961;3. Op Amps as DC Amplifiers;3.4;3.4. Non Inverting amplifier;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);961;3. Op Amps as DC Amplifiers;3.5;3.5. Non Inverting amplifier;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);961;3. Op Amps as DC Amplifiers;3.6;3.6. Input impedance of non inverting amplifier;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);961;3. Op Amps as DC Amplifiers;3.7;3.7. Inverting amplifier;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);961;3. Op Amps as DC Amplifiers;3.8;3.8. Inverting amplifier;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);961;3. Op Amps as DC Amplifiers;3.9;3.9. Summing amplifier;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);962;4. Op Amps as AC Amplifiers;4.1;4.1. Capacitor coupled voltage follower;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);962;4. Op Amps as AC Amplifiers;4.2;4.2. Capacitor coupled voltage follower;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);962;4. Op Amps as AC Amplifiers;4.3;4.3. High Zin Capacitor coupled voltage follower;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);962;4. Op Amps as AC Amplifiers;4.4;4.4. Capacitor coupled non inverting amplifier;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);962;4. Op Amps as AC Amplifiers;4.5;4.5. High Zin Capacitor coupled non inverting;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);962;4. Op Amps as AC Amplifiers;4.6;4.6. Capacitor coupled inverting amplifier;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);962;4. Op Amps as AC Amplifiers;4.7;4.7. Capacitor coupled non inverting amplifier;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);963;5. Op Amp Frequency response and Compensation;5.1;5.1. Inverting amplifier;error;file_not_found;/var/www/scilab_in/uploads-backup/281/CH5/EX5.1/ : NO SCILAB FILE INSIDE -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);963;5. Op Amp Frequency response and Compensation;5.10;5.10. Slew rate effects;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);963;5. Op Amp Frequency response and Compensation;5.11;5.11. Input stray capacitance;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);963;5. Op Amp Frequency response and Compensation;5.12;5.12. Input stray capacitance;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);963;5. Op Amp Frequency response and Compensation;5.13;5.13. feedback capacitor;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);963;5. Op Amp Frequency response and Compensation;5.14;5.14. load capacitor;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);963;5. Op Amp Frequency response and Compensation;5.15;5.15. feedback capacitance;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);963;5. Op Amp Frequency response and Compensation;5.16;5.16. Zin mod compensation;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);963;5. Op Amp Frequency response and Compensation;5.2;5.2. Voltage follower;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);963;5. Op Amp Frequency response and Compensation;5.3;5.3. Inverting amplifier;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);963;5. Op Amp Frequency response and Compensation;5.4;5.4. Inverting amplifier;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);963;5. Op Amp Frequency response and Compensation;5.5;5.5. Non Inverting amplifier;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);963;5. Op Amp Frequency response and Compensation;5.6;5.6. upper cut off frequency;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);963;5. Op Amp Frequency response and Compensation;5.7;5.7. Gain bandwidth product;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);963;5. Op Amp Frequency response and Compensation;5.8;5.8. Upper cutt off frequency of voltage follower;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);963;5. Op Amp Frequency response and Compensation;5.9;5.9. Slew rate effects;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);967;6. Miscellaneous Op Amp Linear Applications;6.1;6.1. Voltage source;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);967;6. Miscellaneous Op Amp Linear Applications;6.2;6.2. Precision Voltage source;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);967;6. Miscellaneous Op Amp Linear Applications;6.3;6.3. Current source;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);967;6. Miscellaneous Op Amp Linear Applications;6.4;6.4. Precision current sink;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);967;6. Miscellaneous Op Amp Linear Applications;6.5;6.5. HWR voltmeter;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);967;6. Miscellaneous Op Amp Linear Applications;6.6;6.6. Linear ohmmeter;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);967;6. Miscellaneous Op Amp Linear Applications;6.7;6.7. Instrumentation Amplifier;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);968;7. Signal Processing Circuits;7.1;7.1. Precision Half Wave rectifier;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);968;7. Signal Processing Circuits;7.2;7.2. Precision full Wave rectifier;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);968;7. Signal Processing Circuits;7.3;7.3. High Zin Precision full Wave rectifier;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);968;7. Signal Processing Circuits;7.4;7.4. Peak clipping circuit;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);968;7. Signal Processing Circuits;7.5;7.5. Dead zone circuit;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);968;7. Signal Processing Circuits;7.6;7.6. precision clipping circuit;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);968;7. Signal Processing Circuits;7.7;7.7. precision clamping circuit;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);968;7. Signal Processing Circuits;7.8;7.8. Peak detector circuit;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);968;7. Signal Processing Circuits;7.9;7.9. Sample and hold circuit;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);969;8. Differentiating and Integrating Circuits;8.1;8.1. Differentiating circuit;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);969;8. Differentiating and Integrating Circuits;8.2;8.2. slew rate for Differentiating circuit;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);969;8. Differentiating and Integrating Circuits;8.3;8.3. Integrating Circuit;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);969;8. Differentiating and Integrating Circuits;8.4;8.4. slew rate for Integrating circuit;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);970;9. Op Amp Nonlinear Circuits;9.1;9.1. Capacitor coupled zero crossing detector;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);970;9. Op Amp Nonlinear Circuits;9.2;9.2. slew rate for Capacitor coupled zero crossing detector;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);970;9. Op Amp Nonlinear Circuits;9.3;9.3. Inverting Schmitt trigger circuit;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);970;9. Op Amp Nonlinear Circuits;9.4;9.4. Noninverting Schmitt trigger circuit;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);970;9. Op Amp Nonlinear Circuits;9.5;9.5. UTP and LTP Noninverting Schmitt trigger circuit;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);970;9. Op Amp Nonlinear Circuits;9.6;9.6. Astable Multivibrators;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);970;9. Op Amp Nonlinear Circuits;9.7;9.7. Monostable Multivibrators;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);971;10. Signal Generators;10.1;10.1. Triangular and rectangular signal generator;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);971;10. Signal Generators;10.2;10.2. Phase shift oscillator;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);971;10. Signal Generators;10.3;10.3. Phase shift oscillator;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);971;10. Signal Generators;10.4;10.4. Wein bridge oscillator;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);971;10. Signal Generators;10.5;10.5. signal generator;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);972;11. Active Filters;11.1;11.1. All pass circuit;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);972;11. Active Filters;11.10;11.10. Bandpass Filter;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);972;11. Active Filters;11.11;11.11. State variable bandpass filter;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);972;11. Active Filters;11.2;11.2. First order active low pass filter;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);972;11. Active Filters;11.3;11.3. Second order low pass filter;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);972;11. Active Filters;11.4;11.4. First order active high pass filter;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);972;11. Active Filters;11.5;11.5. second order active high pass filter;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);972;11. Active Filters;11.6;11.6. Third order low pass filter;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);972;11. Active Filters;11.7;11.7. Third order high pass filter;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);972;11. Active Filters;11.8;11.8. Highest signal frequency in 3rd order HPF;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);972;11. Active Filters;11.9;11.9. Single stage band pass filter;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);973;12. DC Voltage Regulators;12.1;12.1. DC voltage source;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);973;12. DC Voltage Regulators;12.2;12.2. Voltage Regulator;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);973;12. DC Voltage Regulators;12.3;12.3. analysing Voltage Regulator;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);973;12. DC Voltage Regulators;12.4;12.4. DC Voltage Regulator;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);973;12. DC Voltage Regulators;12.5;12.5. Voltage Regulator;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);973;12. DC Voltage Regulators;12.6;12.6. foldback current limiting circuit;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);973;12. DC Voltage Regulators;12.7;12.7. Positive Voltage Regulator;correct;runtime; -281;Operational Amplifiers & Linear Integrated Circuits(D. A. Bell);973;12. DC Voltage Regulators;12.8;12.8. LM217 Voltage Regulator;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1169;1. Introduction to Quantum Mechanics;1.1;1.1. Photon energy;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1169;1. Introduction to Quantum Mechanics;1.2;1.2. Broglie wavelength;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1169;1. Introduction to Quantum Mechanics;1.3;1.3. Electron in infinite potential well;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1169;1. Introduction to Quantum Mechanics;1.4;1.4. Penetration depth of a particle impinging on a potential barrier;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1169;1. Introduction to Quantum Mechanics;1.5;1.5. Probability of an electron tunneling through a potential barrier;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1171;2. Introduction to the quantum theory of solids;2.1;2.1. Change in kinetic energy;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1171;2. Introduction to the quantum theory of solids;2.2;2.2. Lowest allowed energy bandwidth;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1171;2. Introduction to the quantum theory of solids;2.3;2.3. Density of States;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1171;2. Introduction to the quantum theory of solids;2.4;2.4. The Fermi Dirac Probability Function;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1171;2. Introduction to the quantum theory of solids;2.5;2.5. The Fermi Dirac Probability Function;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1171;2. Introduction to the quantum theory of solids;2.6;2.6. The Distribution function and the Fermi Energy;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1171;2. Introduction to the quantum theory of solids;2.7;2.7. The Distribution function and the Fermi Energy;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1172;3. The Semiconductor in Equilibrium;3.1;3.1. Equilibrium Distribution of Electrons and holes;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1172;3. The Semiconductor in Equilibrium;3.10;3.10. Charge Neutrality;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1172;3. The Semiconductor in Equilibrium;3.11;3.11. Charge Neutrality;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1172;3. The Semiconductor in Equilibrium;3.12;3.12. Charge Neutrality;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1172;3. The Semiconductor in Equilibrium;3.13;3.13. Position of Fermi Energy level;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1172;3. The Semiconductor in Equilibrium;3.14;3.14. Position of Fermi Energy level;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1172;3. The Semiconductor in Equilibrium;3.2;3.2. Equilibrium Distribution of Electrons and holes;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1172;3. The Semiconductor in Equilibrium;3.3;3.3. Intrinsic carrier concentration;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1172;3. The Semiconductor in Equilibrium;3.4;3.4. Intrinsic fermi level position;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1172;3. The Semiconductor in Equilibrium;3.5;3.5. Extrinsic Semiconductor;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1172;3. The Semiconductor in Equilibrium;3.6;3.6. Extrinsic Semiconductor;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1172;3. The Semiconductor in Equilibrium;3.7;3.7. Statistics of acceptors and donors;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1172;3. The Semiconductor in Equilibrium;3.8;3.8. Statistics of acceptors and donors;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1172;3. The Semiconductor in Equilibrium;3.9;3.9. Charge Neutrality;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1225;4. Carrier Transport Phenomenon;4.1;4.1. Carrier drift;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1225;4. Carrier Transport Phenomenon;4.2;4.2. Carrier drift;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1225;4. Carrier Transport Phenomenon;4.3;4.3. Conductivity;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1225;4. Carrier Transport Phenomenon;4.4;4.4. Carrier diffusion;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1225;4. Carrier Transport Phenomenon;4.5;4.5. Graded impurity distribution;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1225;4. Carrier Transport Phenomenon;4.6;4.6. The Einstein relation;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1225;4. Carrier Transport Phenomenon;4.7;4.7. The hall effect;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1226;5. Non Equilibrium excess careers in semiconductors;5.10;5.10. Surface effects;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1226;5. Non Equilibrium excess careers in semiconductors;5.5;5.5. Relaxation time;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1226;5. Non Equilibrium excess careers in semiconductors;5.6;5.6. Quasi Energy Fermi levels;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1227;6. The pn junction;6.1;6.1. Zero applied bias;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1227;6. The pn junction;6.2;6.2. Space charge width;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1227;6. The pn junction;6.3;6.3. Space charge width;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1227;6. The pn junction;6.4;6.4. Space charge width;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1227;6. The pn junction;6.5;6.5. Junction capacitance;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1227;6. The pn junction;6.6;6.6. Junction capacitance;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1228;7. The pn junction diode;7.1;7.1. pn junction current;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1228;7. The pn junction diode;7.2;7.2. pn junction current;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1228;7. The pn junction diode;7.3;7.3. pn junction current;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1228;7. The pn junction diode;7.4;7.4. pn junction current;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1228;7. The pn junction diode;7.5;7.5. Temperature effects on pn junction;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1228;7. The pn junction diode;7.6;7.6. small signal admittance;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1228;7. The pn junction diode;7.7;7.7. Generation recombination currents;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1229;8. Metal semiconductors and semiconductor heterojunctions;8.1;8.1. Shottky barrier diode;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1229;8. Metal semiconductors and semiconductor heterojunctions;8.2;8.2. Non ideal effects on barrier height;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1229;8. Metal semiconductors and semiconductor heterojunctions;8.3;8.3. Non ideal effects on barrier height;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1229;8. Metal semiconductors and semiconductor heterojunctions;8.4;8.4. Current voltage relationship;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1229;8. Metal semiconductors and semiconductor heterojunctions;8.5;8.5. Comparison of the schottky barrier diode and the pn junction diode;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1229;8. Metal semiconductors and semiconductor heterojunctions;8.6;8.6. Shottky barrier diode and pn junction;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1229;8. Metal semiconductors and semiconductor heterojunctions;8.7;8.7. Tunnelling barrier;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1229;8. Metal semiconductors and semiconductor heterojunctions;8.8;8.8. Equilibrium electrostatics;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1230;9. The Bipolar transistor;9.1;9.1. Gain factors;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1230;9. The Bipolar transistor;9.10;9.10. Ebers moll model;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1230;9. The Bipolar transistor;9.12;9.12. Transistor cut off frequency;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1230;9. The Bipolar transistor;9.2;9.2. Gain factors;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1230;9. The Bipolar transistor;9.3;9.3. Gain factors;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1230;9. The Bipolar transistor;9.4;9.4. Gain factors;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1230;9. The Bipolar transistor;9.5;9.5. Non ideal effects;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1230;9. The Bipolar transistor;9.6;9.6. Non ideal effects;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1230;9. The Bipolar transistor;9.7;9.7. Non ideal effects;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1230;9. The Bipolar transistor;9.8;9.8. Breakdown voltage;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1230;9. The Bipolar transistor;9.9;9.9. Breakdown voltage;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1231;10. Fundamentals of the Metal Oxide semiconductor Field Effect Transistor;10.1;10.1. The two terminal MOS structure;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1231;10. Fundamentals of the Metal Oxide semiconductor Field Effect Transistor;10.10;10.10. Substrate bias effects;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1231;10. Fundamentals of the Metal Oxide semiconductor Field Effect Transistor;10.11;10.11. Cut off frequency;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1231;10. Fundamentals of the Metal Oxide semiconductor Field Effect Transistor;10.2;10.2. Work function;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1231;10. Fundamentals of the Metal Oxide semiconductor Field Effect Transistor;10.3;10.3. Flat band voltage;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1231;10. Fundamentals of the Metal Oxide semiconductor Field Effect Transistor;10.4;10.4. Flat band voltage;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1231;10. Fundamentals of the Metal Oxide semiconductor Field Effect Transistor;10.5;10.5. Threshold voltage;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1231;10. Fundamentals of the Metal Oxide semiconductor Field Effect Transistor;10.6;10.6. Threshold voltage;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1231;10. Fundamentals of the Metal Oxide semiconductor Field Effect Transistor;10.7;10.7. Capacitance Voltage characteristics;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1231;10. Fundamentals of the Metal Oxide semiconductor Field Effect Transistor;10.8;10.8. Current voltage relationship;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1231;10. Fundamentals of the Metal Oxide semiconductor Field Effect Transistor;10.9;10.9. Threshold voltage;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1232;11. Metal semiconductors and semiconductor heterojunctions Additional concepts;11.1;11.1. Mobility variation;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1232;11. Metal semiconductors and semiconductor heterojunctions Additional concepts;11.2;11.2. Mobility variation;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1232;11. Metal semiconductors and semiconductor heterojunctions Additional concepts;11.3;11.3. narrow channel effects;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1232;11. Metal semiconductors and semiconductor heterojunctions Additional concepts;11.4;11.4. Breakdown voltage;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1232;11. Metal semiconductors and semiconductor heterojunctions Additional concepts;11.5;11.5. Lightly doped drain transistor;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1232;11. Metal semiconductors and semiconductor heterojunctions Additional concepts;11.6;11.6. Radiation and hot electron effect;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1233;12. The junction field effect transistor;12.1;12.1. Device characteristics;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1233;12. The junction field effect transistor;12.10;12.10. High electron mobility transistor;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1233;12. The junction field effect transistor;12.2;12.2. Device characteristics;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1233;12. The junction field effect transistor;12.3;12.3. Depletion mode JFET;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1233;12. The junction field effect transistor;12.4;12.4. Transconductance;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1233;12. The junction field effect transistor;12.5;12.5. The MESFET;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1233;12. The junction field effect transistor;12.6;12.6. The MESFET;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1233;12. The junction field effect transistor;12.7;12.7. The MESFET;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1233;12. The junction field effect transistor;12.8;12.8. The MESFET channel length modulation;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1233;12. The junction field effect transistor;12.9;12.9. cut off frequency;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1234;13. Optical devices;13.1;13.1. Optical absorption;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1234;13. Optical devices;13.10;13.10. Quantum efficiency;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1234;13. Optical devices;13.2;13.2. Electron hole pair generation rate;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1234;13. Optical devices;13.3;13.3. Solar cells;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1234;13. Optical devices;13.4;13.4. Solar concentration;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1234;13. Optical devices;13.5;13.5. Photo conductor;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1234;13. Optical devices;13.6;13.6. Photo diode;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1234;13. Optical devices;13.7;13.7. PIN Photodiode;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1234;13. Optical devices;13.8;13.8. Materials;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1234;13. Optical devices;13.9;13.9. Quantum efficiency;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1234;13. Optical devices;14.4;14.4. Heat sinks and junction temperature;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/284/CH14/EX14.4/: PATH DOES NOT EXIST -284;Semiconductor Physics And Devices(D. A. Neamen);1235;14. Semiconductor Power Devices;14.1;14.1. Power transistor characteristics;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1235;14. Semiconductor Power Devices;14.2;14.2. Power MOSFET characteristics;correct;runtime; -284;Semiconductor Physics And Devices(D. A. Neamen);1235;14. Semiconductor Power Devices;14.3;14.3. Heat sinks and junction temperature;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1168;3. Access Technologies;3.1;3.1. Spectral Efficiency;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1168;3. Access Technologies;3.2;3.2. Spectral Efficiency of TDMA;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1168;3. Access Technologies;3.3;3.3. Frame Efficiency of TDMA;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1168;3. Access Technologies;3.4;3.4. Frame Efficiency of TDMA;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1170;4. Cellular Communications Fundamentals;4.1;4.1. GSM Parameters;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1170;4. Cellular Communications Fundamentals;4.2;4.2. GSM Parameters;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1170;4. Cellular Communications Fundamentals;4.3;4.3. GSM Parameters;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1170;4. Cellular Communications Fundamentals;4.4;4.4. GSM Parameters;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1012;6. Radio Link Features in GSM Systems;6.1;6.1. Adaptive Array Elements;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1284;13. Propagation Path Loss and Propagation Models;13.1;13.1. Level Crossing Rate;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1284;13. Propagation Path Loss and Propagation Models;13.2;13.2. Received Power;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1284;13. Propagation Path Loss and Propagation Models;13.3;13.3. SNR;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1284;13. Propagation Path Loss and Propagation Models;13.4;13.4. Signal Sensitivity;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1284;13. Propagation Path Loss and Propagation Models;13.5;13.5. Mean Path Loss;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1330;14. Planning and Design of a GSM Wireless Network;14.2;14.2. Planning of Wireless Network;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1330;14. Planning and Design of a GSM Wireless Network;14.3;14.3. Determine Signal power;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1330;14. Planning and Design of a GSM Wireless Network;14.4;14.4. Cellular System;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1330;14. Planning and Design of a GSM Wireless Network;14.5;14.5. PCS System;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1330;14. Planning and Design of a GSM Wireless Network;14.6;14.6. TDMA frame for Cellular System;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1014;17. An Overview of Signaling System 7;17.1;17.1. Mean STP message transfer time;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1014;17. An Overview of Signaling System 7;17.2;17.2. EN Bloc and Overlap Signalling;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1288;18. Telecommunication Traffic Engineering;18.1;18.1. Traffic Measurement Units;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1288;18. Telecommunication Traffic Engineering;18.2;18.2. Offered Load;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1288;18. Telecommunication Traffic Engineering;18.3;18.3. Traffic Intensity;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1288;18. Telecommunication Traffic Engineering;18.4;18.4. Traffic Intensity;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1288;18. Telecommunication Traffic Engineering;18.5;18.5. Traffic Intensity;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1288;18. Telecommunication Traffic Engineering;18.6;18.6. Data Collection Categories;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1288;18. Telecommunication Traffic Engineering;18.7;18.7. Offered Load;correct;runtime; -287;Principles And Applications Of GSM(V. K. Garg And J. E. Wilkes);1288;18. Telecommunication Traffic Engineering;18.8;18.8. GSM Users;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);914;2. Descriptive Statistics;2.2a;2.2a. Relative Frequency;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);914;2. Descriptive Statistics;2.2b;2.2b. pie chart;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);914;2. Descriptive Statistics;2.3a;2.3a. Sample mean;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);914;2. Descriptive Statistics;2.3b;2.3b. Sample mean of age;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);914;2. Descriptive Statistics;2.3c;2.3c. Sample Median;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);914;2. Descriptive Statistics;2.3d;2.3d. Mean and Median;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);914;2. Descriptive Statistics;2.3e;2.3e. Mean Median and Mode;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);914;2. Descriptive Statistics;2.3f;2.3f. sample variance;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);914;2. Descriptive Statistics;2.3g;2.3g. sample variance of accidents;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);914;2. Descriptive Statistics;2.3h;2.3h. Percentile;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);914;2. Descriptive Statistics;2.3i;2.3i. Quartiles;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);914;2. Descriptive Statistics;2.4a;2.4a. Chebyshev Inequality;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);914;2. Descriptive Statistics;2.5a;2.5a. Empirical Rule;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);914;2. Descriptive Statistics;2.6a;2.6a. Sample Correlation Coefficient;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);914;2. Descriptive Statistics;2.6b;2.6b. Sample Correlation Coefficient;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);915;3. Elements Of Probability;3.4a;3.4a. Union;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);915;3. Elements Of Probability;3.5a;3.5a. Basic Principle of Counting;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);915;3. Elements Of Probability;3.5b;3.5b. Basic Principle of Counting;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);915;3. Elements Of Probability;3.5c;3.5c. Basic Principle of Counting;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);915;3. Elements Of Probability;3.5d;3.5d. Committee Probability;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);915;3. Elements Of Probability;3.5f;3.5f. Pairing Probability;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);915;3. Elements Of Probability;3.6a;3.6a. Acceptable Transistor;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);915;3. Elements Of Probability;3.6b;3.6b. Both Boys;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);915;3. Elements Of Probability;3.6c;3.6c. Branch Manager;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);915;3. Elements Of Probability;3.7a;3.7a. Accident Probability;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);915;3. Elements Of Probability;3.7b;3.7b. Accident within a year;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);915;3. Elements Of Probability;3.7c;3.7c. Multiple Choice Test;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);915;3. Elements Of Probability;3.7d;3.7d. blood test;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);915;3. Elements Of Probability;3.7e;3.7e. Criminal Investigation;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);915;3. Elements Of Probability;3.7f;3.7f. Missing Plane;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);915;3. Elements Of Probability;3.8a;3.8a. Independent Events;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.1a;4.1a. sum of two fair dice;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.1b;4.1b. Defective or Acceptable;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.1c;4.1c. X exceeds 1;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.2a;4.2a. sum of pmf;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.2b;4.2b. pdf;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.3a;4.3a. Joint distribution of batteries;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.3b;4.3b. Joint distribution of boys and girls;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.3c;4.3c. Joint Density Function;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.3e;4.3e. Density of Independent Random Variables;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.3f;4.3f. Conditional Probability Mass Function;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.3g;4.3g. Conditional Probability Mass Function;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.4a;4.4a. Expectation of a fair die;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.4d;4.4d. Expectation of the message time;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.5a;4.5a. Expectation;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.5b;4.5b. Expected cost of breakdown;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.5c;4.5c. Expectation;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.5d;4.5d. Expectation;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.5e;4.5e. Expected profit;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.5f;4.5f. Letters in Correct Envelopes;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.5g;4.5g. Different types of coupons;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.6a;4.6a. Variance of a fair die;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.7a;4.7a. Variance of 10 rolls of a fair die;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.7b;4.7b. Variance of 10 tosses of a coin;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);916;4. Random Variables And Expectation;4.9a;4.9a. Inequalities;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.1a;5.1a. Returning of disks;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.1b;5.1b. Colour of Eyes;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.1e;5.1e. Binomial Random Variable;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.2a;5.2a. Probability of accident;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.2b;5.2b. Defective Items;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.2c;5.2c. Number of Alpha particles;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.2d;5.2d. Claims handled by an insurance company;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.2f;5.2f. Defective stereos;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.3a;5.3a. Functional system;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.3b;5.3b. Determining Population Size;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.3c;5.3c. Conditional Probability;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.4b;5.4b. Bus Timings;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.4c;5.4c. Current in a diode;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.5a;5.5a. Normal Random Variable;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.5b;5.5b. Noise in Binary Message;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.5c;5.5c. Power dissipation;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.5d;5.5d. Yearly precipitation;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.6a;5.6a. Wearing of Battery;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.6b;5.6b. Working Machines;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.6c;5.6c. Series System;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.8a;5.8a. Chi square random variable;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.8b;5.8b. Chi square random variable;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.8c;5.8c. Locating a Target;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.8d;5.8d. Locating a Target in 2D space;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.8e;5.8e. T distribution;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);918;5. Special Random Variables;5.8f;5.8f. F Distribution;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);919;6. Distribution of Sampling Statistics;6.3a;6.3a. Claims handled by an insurance company;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);919;6. Distribution of Sampling Statistics;6.3c;6.3c. Class strength;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);919;6. Distribution of Sampling Statistics;6.3d;6.3d. Weights of workers;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);919;6. Distribution of Sampling Statistics;6.3e;6.3e. Distance of a start;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);919;6. Distribution of Sampling Statistics;6.5a;6.5a. Processing time;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);919;6. Distribution of Sampling Statistics;6.6a;6.6a. Candidate winning an election;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);919;6. Distribution of Sampling Statistics;6.6b;6.6b. Pork consumption;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.2a;7.2a. Maximum likelihood estimator of a bernoulli parameter;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.2b;7.2b. Errors in a manuscript;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.2c;7.2c. Maximum likelihood estimator of a poisson parameter;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.2d;7.2d. Number of traffic accidents;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.2e;7.2e. Maximum likelihood estimator in a normal population;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.2f;7.2f. Kolmogorovs law of fragmentation;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.2g;7.2g. Estimating Mean of a Uniform Distribution;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.3a;7.3a. Error in a signal;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.3b;7.3b. Confidence interval;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.3c;7.3c. Confidence interval;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.3d;7.3d. Weight of a salmon;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.3e;7.3e. Error in a signal;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.3f;7.3f. Average resting pulse;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.3g;7.3g. Evaluating integrals;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.3h;7.3h. Thickness of washers;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.4a;7.4a. Cable insulation;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.4b;7.4b. Battery production;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.5a;7.5a. Transistors;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.5b;7.5b. Survey;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.5c;7.5c. Acceptable chips;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.6a;7.6a. Life of a product;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.7a;7.7a. Point estimator;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.7b;7.7b. Point estimator;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.7c;7.7c. Point estimator of a uniform distribution;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.8a;7.8a. Bayes estimator;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.8b;7.8b. Bayes estimator of a normal population;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);920;7. Parameter Estimation;7.8d;7.8d. estimator of the signal value;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.3a;8.3a. Noise in a Signal;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.3b;8.3b. Error in a signal;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.3c;8.3c. Error in a signal;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.3d;8.3d. Number of signals to be sent;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.3e;8.3e. Number of signals to be sent;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.3f;8.3f. Nicotine content in a cigarette;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.3g;8.3g. Blood cholestrol level;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.3h;8.3h. Water usage;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.3i;8.3i. Life of a tire;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.3j;8.3j. Service Time;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.4a;8.4a. Tire lives;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.4b;8.4b. Medicine for cold;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.4c;8.4c. Unknown population variance;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.4d;8.4d. effectiveness of safety program;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.5a;8.5a. effectiveness of machine;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.5b;8.5b. Catalyst;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.6a;8.6a. Computer chip manufacturing;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.6b;8.6b. Finding p value;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.6c;8.6c. Change in manufacturing pattern;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.7a;8.7a. Mean number of defective chips;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.7b;8.7b. Safety Conditions in a plant;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);921;8. Hypothesis Testing;8.7c;8.7c. Better proof reader;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);922;9. Regression;9.10a;9.10a. Multiple Linear Regression;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);922;9. Regression;9.10b;9.10b. Estimate of variance;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);922;9. Regression;9.10c;9.10c. Diameter of a tree;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);922;9. Regression;9.10d;9.10d. Estimating hardness;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);922;9. Regression;9.11a;9.11a. Animal fsickalling;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);922;9. Regression;9.1a;9.1a. Scatter Diagram;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);922;9. Regression;9.2a;9.2a. Relative humidity and moisture content;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);922;9. Regression;9.3a;9.3a. Moisture against Density;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);922;9. Regression;9.4a;9.4a. Effect of speed on mileage;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);922;9. Regression;9.4b;9.4b. Confidence interval estimate;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);922;9. Regression;9.4c;9.4c. Regression to the mean;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);922;9. Regression;9.4d;9.4d. Motor vehicle deaths;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);922;9. Regression;9.4e;9.4e. Confidence interval for height;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);922;9. Regression;9.4f;9.4f. Confidence interval for height;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);922;9. Regression;9.5a;9.5a. Height of son and father;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);922;9. Regression;9.7a;9.7a. Percentage of chemical used;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);922;9. Regression;9.8b;9.8b. Distance vs Travel Time;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);922;9. Regression;9.9a;9.9a. Polynomial Fitting;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);923;10. Analysis of Variance;10.3a;10.3a. Dependence of mileage on gas used;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);923;10. Analysis of Variance;10.3b;10.3b. Dependence of mileage on gas used;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);923;10. Analysis of Variance;10.3c;10.3c. Difference in GPA;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);923;10. Analysis of Variance;10.4b;10.4b. Estimating Parameters;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);923;10. Analysis of Variance;10.5a;10.5a. Species collected;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);924;11. Goodness of Fit Tests and Categorical Data Analysis;11.2a;11.2a. Relation between death date and birth date;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);924;11. Goodness of Fit Tests and Categorical Data Analysis;11.2b;11.2b. Quality of bulbs;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);924;11. Goodness of Fit Tests and Categorical Data Analysis;11.2d;11.2d. Six outcomes;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);924;11. Goodness of Fit Tests and Categorical Data Analysis;11.3a;11.3a. Weekly accidents;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);924;11. Goodness of Fit Tests and Categorical Data Analysis;11.4a;11.4a. Ploitical affiliation and Gender;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);924;11. Goodness of Fit Tests and Categorical Data Analysis;11.4b;11.4b. Machine Breakdown and shift;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);924;11. Goodness of Fit Tests and Categorical Data Analysis;11.5a;11.5a. Lung cancer and smoking;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);924;11. Goodness of Fit Tests and Categorical Data Analysis;11.5b;11.5b. Females reporting abuse;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);924;11. Goodness of Fit Tests and Categorical Data Analysis;11.6a;11.6a. Testing distribution of a population;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);925;12. Non parametric Hypothesis Tests;12.2a;12.2a. testing the median;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);925;12. Non parametric Hypothesis Tests;12.2b;12.2b. testing the median;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);925;12. Non parametric Hypothesis Tests;12.3b;12.3b. Signed Rank Test;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);925;12. Non parametric Hypothesis Tests;12.3c;12.3c. Determining Population Distribution;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);925;12. Non parametric Hypothesis Tests;12.4a;12.4a. Treatments against corrosion;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);925;12. Non parametric Hypothesis Tests;12.4b;12.4b. Determining P;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);925;12. Non parametric Hypothesis Tests;12.4c;12.4c. Finding p value;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);925;12. Non parametric Hypothesis Tests;12.4d;12.4d. Comparing production methods;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);925;12. Non parametric Hypothesis Tests;12.4e;12.4e. Determining p value;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);925;12. Non parametric Hypothesis Tests;12.5a;12.5a. Testing randomness;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);925;12. Non parametric Hypothesis Tests;12.5c;12.5c. Determining p value;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);926;13. Quality Control;13.2a;13.2a. Steel shaft diameter;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);926;13. Quality Control;13.2b;13.2b. unknown mean and variance;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);926;13. Quality Control;13.3a;13.3a. determining control limits;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);926;13. Quality Control;13.4a;13.4a. Defectives Screws;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);926;13. Quality Control;13.5a;13.5a. Control during production of cars;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);926;13. Quality Control;13.6b;13.6b. Service Time;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);926;13. Quality Control;13.6c;13.6c. Exponentially weighted moving average control;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);926;13. Quality Control;13.6d;13.6d. Finding control limit;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);927;14. Life Testing;14.3a;14.3a. Lifetime of a transistor;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);927;14. Life Testing;14.3b;14.3b. Lifetime of Battery;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);927;14. Life Testing;14.3c;14.3c. One at a time sequential test;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);927;14. Life Testing;14.3d;14.3d. Lifetime of semiconductors;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);927;14. Life Testing;14.3e;14.3e. Bayes estimator;correct;runtime; -291;Probability And Statistics For Engineers And Scientists(S. M. Ross);927;14. Life Testing;14.4a;14.4a. Lifetime of items produced by two plants;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);838;1. The Fundamental laws of Electrical Engineering;1.1;1.1. force between two like charges in free space;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);868;2. The circuit elements;2.1.a;2.1.a. Determine the current flow and voltage drop across the resistor;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);868;2. The circuit elements;2.1.b;2.1.b. Determine the current flow and voltage drop across each resistor;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);868;2. The circuit elements;2.1.c;2.1.c. Repeat parts A and B with the voltage source replaced by a current source of 1A;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);868;2. The circuit elements;2.10;2.10. Design an opamp circuit solution of the given equation;error;file_not_found;/var/www/scilab_in/uploads-backup/293/CH2/EX2.10/ : NO SCILAB FILE INSIDE -293;Electrical Engineering Fundamentals(V. Del Toro);868;2. The circuit elements;2.2;2.2. From the given list of resistors choose a suitable resistor which can carry a current of 300mA;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);868;2. The circuit elements;2.3;2.3. Find the resistance of the round copper conductor having the given specifications;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);868;2. The circuit elements;2.4;2.4. Find the resistance of the round copper conductor having the given specifications;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);868;2. The circuit elements;2.5;2.5. Find the time variation of the voltage drop appearing across the inductor terminals;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);868;2. The circuit elements;2.6;2.6. Find the time variation of the capacitor voltage;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);868;2. The circuit elements;2.7;2.7. Find A actual value of the voltage gain of the opamp circuit B ideal value of the voltage gain C percent error;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);868;2. The circuit elements;2.8;2.8. Design a non inverting opamp circuit of voltage gain 4;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);868;2. The circuit elements;2.9;2.9. Find the input resistance of an inverting opamp circuit with voltage gain of 4;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);841;3. Elementary network theory;3.1;3.1. for the given circuit calculate the current flowing from the voltage source;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);841;3. Elementary network theory;3.10;3.10. Find the value of the node pair voltages V1 and V2;error;file_not_found;/var/www/scilab_in/uploads-backup/293/CH3/EX3.10/ : NO SCILAB FILE INSIDE -293;Electrical Engineering Fundamentals(V. Del Toro);841;3. Elementary network theory;3.11;3.11. Find the branch current flowing through R2;error;file_not_found;/var/www/scilab_in/uploads-backup/293/CH3/EX3.11/ : NO SCILAB FILE INSIDE -293;Electrical Engineering Fundamentals(V. Del Toro);841;3. Elementary network theory;3.12;3.12. Find A current flowing through Rl B valye of Rl for which the power transfer is maximum and the maximum power;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);841;3. Elementary network theory;3.13;3.13. Find the current flowing through R2 by using Nortons current source equivalent circuit;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);841;3. Elementary network theory;3.14;3.14. Find the value of the output voltage;error;file_not_found;/var/www/scilab_in/uploads-backup/293/CH3/EX3.14/ : NO SCILAB FILE INSIDE -293;Electrical Engineering Fundamentals(V. Del Toro);841;3. Elementary network theory;3.15;3.15. Find the current delivered to the source by the network;error;file_not_found;/var/www/scilab_in/uploads-backup/293/CH3/EX3.15/ : NO SCILAB FILE INSIDE -293;Electrical Engineering Fundamentals(V. Del Toro);841;3. Elementary network theory;3.2;3.2. Calculate the potential difference across terminals bc;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);841;3. Elementary network theory;3.3;3.3. Determine the equivalent series circuit;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);841;3. Elementary network theory;3.4;3.4. Value of E for which power dissipation in R5 is 15W R5 is 15;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);841;3. Elementary network theory;3.5;3.5. Determine the current which flows through R2;error;file_not_found;/var/www/scilab_in/uploads-backup/293/CH3/EX3.5/ : NO SCILAB FILE INSIDE -293;Electrical Engineering Fundamentals(V. Del Toro);841;3. Elementary network theory;3.6;3.6. Find the power dissipation in R1;error;file_not_found;/var/www/scilab_in/uploads-backup/293/CH3/EX3.6/ : NO SCILAB FILE INSIDE -293;Electrical Engineering Fundamentals(V. Del Toro);841;3. Elementary network theory;3.7;3.7. Find the current which flows through R2;error;file_not_found;/var/www/scilab_in/uploads-backup/293/CH3/EX3.7/ : NO SCILAB FILE INSIDE -293;Electrical Engineering Fundamentals(V. Del Toro);841;3. Elementary network theory;3.8;3.8. Find current flowing through all the branches of the circuit;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);841;3. Elementary network theory;3.9;3.9. Find the magnitude and direction of each of the branch currents;error;file_not_found;/var/www/scilab_in/uploads-backup/293/CH3/EX3.9/ : NO SCILAB FILE INSIDE -293;Electrical Engineering Fundamentals(V. Del Toro);869;4. Circuit differential equations Forms and Solutions;4.3;4.3. Determine the operational driving point impedances appearing at terminals ad and dg;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);870;5. Circuit dynamics and forced responses;5.1;5.1. Find the expression for the current flowing through the circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/293/CH5/EX5.1/ : NO SCILAB FILE INSIDE -293;Electrical Engineering Fundamentals(V. Del Toro);870;5. Circuit dynamics and forced responses;5.2;5.2. Find the expression for the current flowing through the circuit and the total energy dissipated in the resistor;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);870;5. Circuit dynamics and forced responses;5.3;5.3. Determine the voltage which appears across each capacitor at steady state;error;file_not_found;/var/www/scilab_in/uploads-backup/293/CH5/EX5.3/ : NO SCILAB FILE INSIDE -293;Electrical Engineering Fundamentals(V. Del Toro);870;5. Circuit dynamics and forced responses;5.5;5.5. Find the complete solution for the charge on the capacitor and show a plot of the response;error;file_not_found;/var/www/scilab_in/uploads-backup/293/CH5/EX5.5/ : NO SCILAB FILE INSIDE -293;Electrical Engineering Fundamentals(V. Del Toro);870;5. Circuit dynamics and forced responses;5.6;5.6. Describe the dynamic behaviour of the given circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/293/CH5/EX5.6/ : NO SCILAB FILE INSIDE -293;Electrical Engineering Fundamentals(V. Del Toro);870;5. Circuit dynamics and forced responses;5.7;5.7. Obtain the critically damped response for the circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/293/CH5/EX5.7/ : NO SCILAB FILE INSIDE -293;Electrical Engineering Fundamentals(V. Del Toro);870;5. Circuit dynamics and forced responses;5.8;5.8. Repeat the previous example for the case where the resistance R is changed;error;file_not_found;/var/www/scilab_in/uploads-backup/293/CH5/EX5.8/ : NO SCILAB FILE INSIDE -293;Electrical Engineering Fundamentals(V. Del Toro);871;6. The laplace transform method of finding circuit solutions;6.1;6.1. Find the laplace transform of the given pulse;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);867;7. Sinusoidal steady state response of circuits;7.1;7.1. Find the average value of the given periodic function;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);867;7. Sinusoidal steady state response of circuits;7.10;7.10. Find the current in the Z3 branchby using the Nodal method;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);867;7. Sinusoidal steady state response of circuits;7.11;7.11. Find the current flowing through Z3 by using Thevinins theoram;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);867;7. Sinusoidal steady state response of circuits;7.2;7.2. Determine the power factor and average power delivered to the circuit;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);867;7. Sinusoidal steady state response of circuits;7.3;7.3. Find the expression for the sum of i1 and i2;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);867;7. Sinusoidal steady state response of circuits;7.4;7.4. Find the effective value of the resultant current;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);867;7. Sinusoidal steady state response of circuits;7.5;7.5. Find the time expression for the resultant current;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);867;7. Sinusoidal steady state response of circuits;7.6;7.6. Find the value of the given expression;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);867;7. Sinusoidal steady state response of circuits;7.7;7.7. Find A value of steady state current and the relative phase angle C magnitude and phase of voltage drops appearing across each element D average power E power factor;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);867;7. Sinusoidal steady state response of circuits;7.8;7.8. Find the equivalent impedance appearing between points a and c;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);867;7. Sinusoidal steady state response of circuits;7.9;7.9. Find the current which flows through branch Z3;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);866;9. Semiconductor electronic devices;9.2;9.2. Find the values of self bais source resistance and drain load resistance at Q point;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);866;9. Semiconductor electronic devices;9.3;9.3. Find A midband frequency current gain of the first stage B bandwidth of the first stage amplifier;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);865;11. Binary logic Theory and Implimentation;11.1;11.1. Determine th decimal equivalents of the binary numbers A 101 B 11011;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);865;11. Binary logic Theory and Implimentation;11.2;11.2. Determine the decimal equivalent of A octal number 432 B hexadecimal number C4F;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);865;11. Binary logic Theory and Implimentation;11.3;11.3. Find the binary and octal equivalents of 247;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);864;12. Simplifying logical functions;12.2;12.2. Prove the given theoram;error;file_not_found;/var/www/scilab_in/uploads-backup/293/CH12/EX12.2/ : NO SCILAB FILE INSIDE -293;Electrical Engineering Fundamentals(V. Del Toro);864;12. Simplifying logical functions;12.3.a;12.3.a. Design a digital logic circuit that provides logic 1 whenever majority votes yes;error;file_not_found;/var/www/scilab_in/uploads-backup/293/CH12/EX12.3.a/ : NO SCILAB FILE INSIDE -293;Electrical Engineering Fundamentals(V. Del Toro);864;12. Simplifying logical functions;12.3.b;12.3.b. Modify part A so that only NAND gates are used;error;file_not_found;/var/www/scilab_in/uploads-backup/293/CH12/EX12.3.b/ : NO SCILAB FILE INSIDE -293;Electrical Engineering Fundamentals(V. Del Toro);863;15. Magnetic circuit computations;15.1;15.1. Find A magneto motive force B current C relative permiability and reluctance of each material;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);863;15. Magnetic circuit computations;15.3;15.3. Find the mmf produced by the coil;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);863;15. Magnetic circuit computations;15.5;15.5. B Find the magnetic force exerted on the plunger;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);872;16. Transformers;16.1;16.1. Find A equivalent resistance and reactance referred to both the sides B voltage drops across these in Volts and in per cent of the rated winding voltage C Repeat B for the low voltage side D equivalent leakage impedances referred to both the sides;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);872;16. Transformers;16.2;16.2. Compute the 6 parameters of the equivalent circuit referred to the high and low sides;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);872;16. Transformers;16.3;16.3. For the transformer compute A efficiency B voltage regulation;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);862;18. The three phase Induction motor;18.1;18.1. Find A input line current and power factor B developed electromagnetic torque C horse power output D efficiency;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);861;19. Computations of Synchronous Motor Performance;19.1;19.1. Find A induced excitation voltage per phase B line current C power factor;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);860;20. DC machines;20.2;20.2. Caculate A electromagnetic torque B flux per pole C rotational losses D efficiency E shaft laod;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);860;20. DC machines;20.3;20.3. Determine the new operating speed;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);860;20. DC machines;20.4;20.4. find A motor speed B required pulse frequency C repeat part A and B for the given ON time to cycle time ratio;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);859;23. Principles of Automatic Control;23.1;23.1. Determine the new transfer gain and feedback factor;correct;runtime; -293;Electrical Engineering Fundamentals(V. Del Toro);858;24. Dynamic behaviour of Control systems;24.2;24.2. find A dynamic response of the system B position lag error C change in amplifier gain D damping ratio and maximum percent overshoot E output gain factor for maximum overshoot equal to 25percent;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1005;1. Crystal Properties and Growth of Semiconductors;1.1;1.1. Maximum packing fraction;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1005;1. Crystal Properties and Growth of Semiconductors;1.2;1.2. planes and directions;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1005;1. Crystal Properties and Growth of Semiconductors;1.3;1.3. Volume density of Silicon in lattice;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1005;1. Crystal Properties and Growth of Semiconductors;1.4;1.4. Czochralski method for Silicon crystal growth;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1261;2. Atoms and Electrons;2.1;2.1. expectation of momentum;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1006;3. Energy Bands and Charge Carriers in Semiconductors;3.1;3.1. free electron momentum;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1006;3. Energy Bands and Charge Carriers in Semiconductors;3.2;3.2. E k Rleationship;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1006;3. Energy Bands and Charge Carriers in Semiconductors;3.3;3.3. radius of electron orbit;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1006;3. Energy Bands and Charge Carriers in Semiconductors;3.4;3.4. density of states effective mass;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1006;3. Energy Bands and Charge Carriers in Semiconductors;3.5;3.5. equilibrium hole concentration;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1006;3. Energy Bands and Charge Carriers in Semiconductors;3.6;3.6. conductivity effective mass;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1006;3. Energy Bands and Charge Carriers in Semiconductors;3.7;3.7. current and resistance in a Si bar;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1006;3. Energy Bands and Charge Carriers in Semiconductors;3.8;3.8. concentration and mobility of majority carrier;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1007;4. Excess Carriers in Semiconductors;4.1;4.1. Excitation and band to band recombination leading to photoluminescence;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1007;4. Excess Carriers in Semiconductors;4.2;4.2. decay of excess population for a carrier recombination;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1007;4. Excess Carriers in Semiconductors;4.3;4.3. steady state carrier generation;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1007;4. Excess Carriers in Semiconductors;4.4;4.4. electron quasi fermi level position and carrier concentration;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1007;4. Excess Carriers in Semiconductors;4.5;4.5. diffusion length and hole current;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1007;4. Excess Carriers in Semiconductors;4.6;4.6. Haynes Shockley experiment;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1008;5. Junctions;5.1;5.1. contact potential and fermi level position;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1008;5. Junctions;5.2;5.2. electric field and charge density in junction;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1008;5. Junctions;5.4;5.4. Current in forward and reverse biased pn junction;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1008;5. Junctions;5.6;5.6. depletion capacitance;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1008;5. Junctions;5.7;5.7. Heterojunctions;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1009;6. Field Effect Transistors;6.1;6.1. mos transistor;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1009;6. Field Effect Transistors;6.2;6.2. drain current in mosfet;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1009;6. Field Effect Transistors;6.3;6.3. ion implantation;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1010;7. Bipolar Junction Transistor;7.1;7.1. steady state charge in transistor;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1010;7. Bipolar Junction Transistor;7.4;7.4. bjt saturation current;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1011;8. Optoelectronic Devices;8.2;8.2. solar cells;correct;runtime; -296;Solid State Electronic Devices(B. G. Streetman And S. K. Banerjee);1011;8. Optoelectronic Devices;8.3;8.3. fibre optic communication;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1419;1. Introduction;1.1;1.1. example1;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1419;1. Introduction;1.2;1.2. example2;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1419;1. Introduction;1.4;1.4. example4;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1419;1. Introduction;1.6;1.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1420;2. Semiconductors;2.5;2.5. example5;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1420;2. Semiconductors;2.6;2.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1420;2. Semiconductors;2.7;2.7. example7;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1421;3. Diode Theory;3.2;3.2. example2;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1421;3. Diode Theory;3.3;3.3. example3;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1421;3. Diode Theory;3.4;3.4. example4;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1421;3. Diode Theory;3.5;3.5. example5;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1421;3. Diode Theory;3.6;3.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1421;3. Diode Theory;3.7;3.7. example7;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1421;3. Diode Theory;3.8;3.8. example8;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1422;4. Diode Circuits;4.1;4.1. example1;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1422;4. Diode Circuits;4.10;4.10. example10;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1422;4. Diode Circuits;4.2;4.2. example2;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1422;4. Diode Circuits;4.3;4.3. example3;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1422;4. Diode Circuits;4.5;4.5. example5;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1422;4. Diode Circuits;4.6;4.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1422;4. Diode Circuits;4.7;4.7. example7;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1422;4. Diode Circuits;4.8;4.8. example8;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1422;4. Diode Circuits;4.9;4.9. example9;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1426;5. Special Purpose Diodes;5.1;5.1. example1;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1426;5. Special Purpose Diodes;5.10;5.10. example10;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1426;5. Special Purpose Diodes;5.11;5.11. example11;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1426;5. Special Purpose Diodes;5.12;5.12. example12;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1426;5. Special Purpose Diodes;5.13;5.13. example13;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1426;5. Special Purpose Diodes;5.14;5.14. example14;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1426;5. Special Purpose Diodes;5.15;5.15. example15;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1426;5. Special Purpose Diodes;5.2;5.2. example2;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1426;5. Special Purpose Diodes;5.3;5.3. example3;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1426;5. Special Purpose Diodes;5.7;5.7. example7;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1426;5. Special Purpose Diodes;5.8;5.8. example8;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1429;6. Bipolar Junction Transistor;6.1;6.1. example1;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1429;6. Bipolar Junction Transistor;6.11;6.11. example11;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1429;6. Bipolar Junction Transistor;6.12;6.12. example12;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1429;6. Bipolar Junction Transistor;6.2;6.2. example2;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1429;6. Bipolar Junction Transistor;6.3;6.3. example3;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1429;6. Bipolar Junction Transistor;6.4;6.4. example4;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1429;6. Bipolar Junction Transistor;6.5;6.5. example5;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1429;6. Bipolar Junction Transistor;6.6;6.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1429;6. Bipolar Junction Transistor;6.7;6.7. example7;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1429;6. Bipolar Junction Transistor;6.8;6.8. example8;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1429;6. Bipolar Junction Transistor;6.9;6.9. example9;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1430;7. Transistor Fundamentals;7.1;7.1. example1;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1430;7. Transistor Fundamentals;7.2;7.2. example2;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1430;7. Transistor Fundamentals;7.3;7.3. example3;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1430;7. Transistor Fundamentals;7.4;7.4. example4;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1430;7. Transistor Fundamentals;7.5;7.5. example5;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1430;7. Transistor Fundamentals;7.6;7.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1430;7. Transistor Fundamentals;7.7;7.7. example7;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1430;7. Transistor Fundamentals;7.8;7.8. example8;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1430;7. Transistor Fundamentals;7.9;7.9. example9;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1431;8. Transistor Biasing;8.1;8.1. example1;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1431;8. Transistor Biasing;8.3;8.3. example3;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1431;8. Transistor Biasing;8.4;8.4. example4;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1431;8. Transistor Biasing;8.5;8.5. example5;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1431;8. Transistor Biasing;8.6;8.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1431;8. Transistor Biasing;8.7;8.7. example7;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1433;9. AC Models;9.1;9.1. example1;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1433;9. AC Models;9.2;9.2. example2;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1433;9. AC Models;9.3;9.3. example3;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1433;9. AC Models;9.4;9.4. example4;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1433;9. AC Models;9.5;9.5. example5;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1433;9. AC Models;9.6;9.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1439;10. Voltage Amplifiers;10.1;10.1. example1;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1439;10. Voltage Amplifiers;10.2;10.2. example2;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1439;10. Voltage Amplifiers;10.3;10.3. example3;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1439;10. Voltage Amplifiers;10.4;10.4. example4;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1439;10. Voltage Amplifiers;10.5;10.5. example5;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1439;10. Voltage Amplifiers;10.6;10.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1439;10. Voltage Amplifiers;10.7;10.7. example7;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1439;10. Voltage Amplifiers;10.8;10.8. example8;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1439;10. Voltage Amplifiers;10.9;10.9. example9;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1440;12. Power Amplifiers;12.1;12.1. example1;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1440;12. Power Amplifiers;12.10;12.10. example10;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1440;12. Power Amplifiers;12.12;12.12. example12;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1440;12. Power Amplifiers;12.13;12.13. example13;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1440;12. Power Amplifiers;12.14;12.14. example14;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1440;12. Power Amplifiers;12.2;12.2. example2;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1440;12. Power Amplifiers;12.3;12.3. example3;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1440;12. Power Amplifiers;12.4;12.4. example4;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1440;12. Power Amplifiers;12.6;12.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1440;12. Power Amplifiers;12.7;12.7. example7;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1440;12. Power Amplifiers;12.8;12.8. example8;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1440;12. Power Amplifiers;12.9;12.9. example9;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1457;13. JFETs;13.1;13.1. example1;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1457;13. JFETs;13.10;13.10. example10;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1457;13. JFETs;13.11;13.11. example11;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1457;13. JFETs;13.12;13.12. example12;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1457;13. JFETs;13.13;13.13. example13;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1457;13. JFETs;13.14;13.14. example14;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1457;13. JFETs;13.15;13.15. example15;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1457;13. JFETs;13.16;13.16. example16;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1457;13. JFETs;13.2;13.2. example2;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1457;13. JFETs;13.3;13.3. example3;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1457;13. JFETs;13.4;13.4. example4;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1457;13. JFETs;13.6;13.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1457;13. JFETs;13.8;13.8. example8;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1469;14. MOSFETs;14.1;14.1. example1;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1469;14. MOSFETs;14.12;14.12. example12;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1469;14. MOSFETs;14.13;14.13. example13;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1469;14. MOSFETs;14.14;14.14. example14;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1469;14. MOSFETs;14.15;14.15. example15;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1469;14. MOSFETs;14.2;14.2. example2;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1469;14. MOSFETs;14.6;14.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1469;14. MOSFETs;14.7;14.7. example7;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1469;14. MOSFETs;14.9;14.9. example9;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1470;15. Thyristors;15.1;15.1. example1;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1470;15. Thyristors;15.4;15.4. example4;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1470;15. Thyristors;15.5;15.5. example5;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1470;15. Thyristors;15.6;15.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1470;15. Thyristors;15.8;15.8. example8;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1471;16. Frequency Effects;16.1;16.1. example1;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1471;16. Frequency Effects;16.3;16.3. example3;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1471;16. Frequency Effects;16.4;16.4. example4;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1471;16. Frequency Effects;16.5;16.5. example5;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1471;16. Frequency Effects;16.6;16.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1471;16. Frequency Effects;16.7;16.7. example7;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1472;17. Differential Amplifiers;17.1;17.1. example1;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1472;17. Differential Amplifiers;17.10;17.10. example10;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1472;17. Differential Amplifiers;17.11;17.11. example11;error;file_not_found;/var/www/scilab_in/uploads-backup/317/CH17/EX17.11/ : NO SCILAB FILE INSIDE -317;Electronic Principles(A. Malvino And D. J. Bates);1472;17. Differential Amplifiers;17.12;17.12. example12;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1472;17. Differential Amplifiers;17.13;17.13. example13;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1472;17. Differential Amplifiers;17.2;17.2. example2;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1472;17. Differential Amplifiers;17.3;17.3. example3;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1472;17. Differential Amplifiers;17.4;17.4. example4;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1472;17. Differential Amplifiers;17.5;17.5. example5;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1472;17. Differential Amplifiers;17.8;17.8. example8;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1472;17. Differential Amplifiers;17.9;17.9. example9;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1474;18. Operational Amplifiers;18.10;18.10. example10;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1474;18. Operational Amplifiers;18.11;18.11. example11;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1474;18. Operational Amplifiers;18.12;18.12. example12;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1474;18. Operational Amplifiers;18.13;18.13. example13;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1474;18. Operational Amplifiers;18.4;18.4. example4;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1474;18. Operational Amplifiers;18.5;18.5. example5;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1474;18. Operational Amplifiers;18.6;18.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1474;18. Operational Amplifiers;18.7;18.7. example7;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1474;18. Operational Amplifiers;18.8;18.8. example8;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1474;18. Operational Amplifiers;18.9;18.9. example9;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1552;19. Negative Feedback;19.1;19.1. example1;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1552;19. Negative Feedback;19.10;19.10. example10;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1552;19. Negative Feedback;19.11;19.11. example11;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1552;19. Negative Feedback;19.12;19.12. example12;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1552;19. Negative Feedback;19.13;19.13. example13;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1552;19. Negative Feedback;19.2;19.2. example2;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1552;19. Negative Feedback;19.3;19.3. example3;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1552;19. Negative Feedback;19.4;19.4. example4;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1552;19. Negative Feedback;19.6;19.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1552;19. Negative Feedback;19.9;19.9. example9;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1553;20. Linear Op Amp Circuits;20.10;20.10. example10;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1553;20. Linear Op Amp Circuits;20.2;20.2. example2;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1553;20. Linear Op Amp Circuits;20.3;20.3. example3;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1553;20. Linear Op Amp Circuits;20.5;20.5. example5;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1553;20. Linear Op Amp Circuits;20.6;20.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1553;20. Linear Op Amp Circuits;20.7;20.7. example7;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1553;20. Linear Op Amp Circuits;20.8;20.8. example8;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1553;20. Linear Op Amp Circuits;20.9;20.9. example9;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1554;21. Active Filters;21.1;21.1. example1;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1554;21. Active Filters;21.10;21.10. example10;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1554;21. Active Filters;21.12;21.12. example12;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1554;21. Active Filters;21.13;21.13. example13;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1554;21. Active Filters;21.2;21.2. example2;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1554;21. Active Filters;21.3;21.3. example3;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1554;21. Active Filters;21.4;21.4. example4;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1554;21. Active Filters;21.5;21.5. example5;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1554;21. Active Filters;21.6;21.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1554;21. Active Filters;21.7;21.7. example7;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1554;21. Active Filters;21.9;21.9. example9;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1555;22. Non Linear Op Amp Circuits;22.10;22.10. example10;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1555;22. Non Linear Op Amp Circuits;22.12;22.12. example12;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1555;22. Non Linear Op Amp Circuits;22.4;22.4. example4;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1555;22. Non Linear Op Amp Circuits;22.5;22.5. example5;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1555;22. Non Linear Op Amp Circuits;22.6;22.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1555;22. Non Linear Op Amp Circuits;22.7;22.7. example7;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1555;22. Non Linear Op Amp Circuits;22.8;22.8. example8;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1556;23. Oscillators;23.1;23.1. example1;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1556;23. Oscillators;23.10;23.10. example10;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1556;23. Oscillators;23.12;23.12. example12;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1556;23. Oscillators;23.2;23.2. example2;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1556;23. Oscillators;23.4;23.4. example4;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1556;23. Oscillators;23.5;23.5. example5;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1556;23. Oscillators;23.6;23.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1556;23. Oscillators;23.7;23.7. example7;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1556;23. Oscillators;23.8;23.8. example8;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1557;24. Regulated Power Supplies;24.1;24.1. example1;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1557;24. Regulated Power Supplies;24.10;24.10. example10;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1557;24. Regulated Power Supplies;24.13;24.13. example13;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1557;24. Regulated Power Supplies;24.15;24.15. example15;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1557;24. Regulated Power Supplies;24.16;24.16. example16;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1557;24. Regulated Power Supplies;24.2;24.2. example2;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1557;24. Regulated Power Supplies;24.3;24.3. example3;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1557;24. Regulated Power Supplies;24.4;24.4. example4;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1557;24. Regulated Power Supplies;24.6;24.6. example6;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1557;24. Regulated Power Supplies;24.7;24.7. example7;correct;runtime; -317;Electronic Principles(A. Malvino And D. J. Bates);1557;24. Regulated Power Supplies;24.8;24.8. example8;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.10;1.10. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.11;1.11. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.12;1.12. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.14;1.14. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.15;1.15. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.16;1.16. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.18;1.18. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.19;1.19. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.2;1.2. Find Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.21;1.21. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.22;1.22. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.23;1.23. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.24;1.24. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.25;1.25. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.26;1.26. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.27;1.27. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.28;1.28. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.29;1.29. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.3;1.3. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.30;1.30. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.31;1.31. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.4;1.4. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.5;1.5. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.6;1.6. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.7;1.7. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.8;1.8. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1089;1. Basic Circuit Concepts;1.9;1.9. Resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.1;2.1. Equivalent resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.10;2.10. Find current through 2ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.11;2.11. Determine current through 5 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.12;2.12. Find current supplied by the battery;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.13;2.13. Determine voltage;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.14;2.14. Find current through 2ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.15;2.15. Find current through 10 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.16;2.16. Find current in 3 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.17;2.17. Find current in 5 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.19;2.19. Find voltage at nodes 1 and 2;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.2;2.2. Equivalent resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.20;2.20. Find Va and Vb;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.21;2.21. Calculate the current through the 5 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.23;2.23. Find Va and Vb;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.24;2.24. Find voltage across 5 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.25;2.25. Find currents I1 I2 and I3;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.26;2.26. Find currents and voltages;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.27;2.27. Find current in the 10 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.28;2.28. Find V1 and V2;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.29;2.29. Find voltage across the 100 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.3;2.3. Equivalent resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.30;2.30. Find current through the 4 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.31;2.31. Find current through the 4 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.4;2.4. Equivalent resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.42;2.42. Find the current between the 2 ohm resistor connected btw A and B;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.43;2.43. Find the current through the 10 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.44;2.44. Find the current through the 10 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.45;2.45. Find the current through the 40 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.46;2.46. Find the current through the 10 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.47;2.47. Find current through the 24 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.49;2.49. Find the current through the 20 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.50;2.50. Find the current through the 3 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.51;2.51. Find the current through the 30 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.53;2.53. Find the current through the 20 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.54;2.54. Find the current through the 5 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.55;2.55. Find the current through the 10 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.56;2.56. Find current through the 1 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.57;2.57. Find current in the 10 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.58;2.58. Find current in the 10 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.59;2.59. Find the current through the 10 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.6;2.6. Equivalent resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.60;2.60. Find current through 10 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.61;2.61. Find current in the 10 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.62;2.62. Nortons equivalent;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.63;2.63. Find current through the 8 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.64;2.64. Find current through the 1 ohm resistor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.65;2.65. Find max power;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.66;2.66. Find max power;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.67;2.67. Find max power;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.68;2.68. Find Rl and calculate maximum power;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.69;2.69. Find Rl and calculate max power;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.7;2.7. Equivalent resistance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.70;2.70. Find Rl and max power;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.71;2.71. Max power;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1093;2. DC CIRCUITS;2.9;2.9. Find current;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1401;3. AC Fundamentals;3.1;3.1. Mean value of current;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1401;3. AC Fundamentals;3.10;3.10. Time at which current attain a particular value;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1401;3. AC Fundamentals;3.15;3.15. Form factor Frequence and Crest Factor;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1401;3. AC Fundamentals;3.16;3.16. RMS value and maximum value;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1401;3. AC Fundamentals;3.17;3.17. Average value and RMS value of voltage;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1401;3. AC Fundamentals;3.2;3.2. Time at which current attain a particular value;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1401;3. AC Fundamentals;3.3;3.3. Time at which current attain a particular value;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1401;3. AC Fundamentals;3.4;3.4. Time at which current attain a particular value;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1401;3. AC Fundamentals;3.5;3.5. Time at which current attain a particular value;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1401;3. AC Fundamentals;3.6;3.6. Time at which current attain a particular value;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1401;3. AC Fundamentals;3.8;3.8. Time at which current attain a particular value;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1095;4. Three Phase Circuits;4.1;4.1. Calculation of Z;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1095;4. Three Phase Circuits;4.11;4.11. Calculation of phase resistance and phase impedance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1095;4. Three Phase Circuits;4.13;4.13. Calculation of phase resistance and phase reactance;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1095;4. Three Phase Circuits;4.14;4.14. Calculation of Q;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1095;4. Three Phase Circuits;4.17;4.17. Calculation of active and reactive components of phase current;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1095;4. Three Phase Circuits;4.2;4.2. Calculation of Z;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1095;4. Three Phase Circuits;4.20;4.20. Calculation of P;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1095;4. Three Phase Circuits;4.3;4.3. Calculation of active power reactive power and total power;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1095;4. Three Phase Circuits;4.4;4.4. Calculation of P;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1095;4. Three Phase Circuits;4.5;4.5. Calculation of different powers for line and phase voltages;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1095;4. Three Phase Circuits;4.6;4.6. Calculation of different powers for line and phase voltages;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1095;4. Three Phase Circuits;4.7;4.7. Calculation of different powers for line and phase voltages;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1095;4. Three Phase Circuits;4.8;4.8. Calculation of P;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1095;4. Three Phase Circuits;4.9;4.9. Calculation of active power reactive power and total power;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.1;5.1. Example number 1;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.11;5.11. Example number 11;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.12;5.12. Example number 12;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.13;5.13. Example number 13;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.15;5.15. Example number 15;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.17;5.17. Example number 17;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.18;5.18. Example number 18;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.19;5.19. Example number 19;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.2;5.2. Example number 2;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.20;5.20. Example number 20;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.21;5.21. Example number 21;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.22;5.22. Example number 22;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.23;5.23. Example number 23;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.28;5.28. Example number 28;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.3;5.3. Example number 3;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.4;5.4. Example number 4;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.5;5.5. Example number 5;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.6;5.6. Example 6;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.7;5.7. Example 7;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.8;5.8. Example number 8;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1098;5. Single phase Transformer;5.9;5.9. Example number 9;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1099;6. Electrical Machines;6.1;6.1. Example 1;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1099;6. Electrical Machines;6.2;6.2. Example number 2;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1099;6. Electrical Machines;6.3;6.3. Example number 3;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1099;6. Electrical Machines;6.4;6.4. Example number 4;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1099;6. Electrical Machines;6.5;6.5. Example number 5;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1099;6. Electrical Machines;6.6;6.6. Example number 6;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1099;6. Electrical Machines;6.7;6.7. Example number 7;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1100;7. Semiconductor devices and rectifiers;7.1;7.1. Calculation of base current;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1100;7. Semiconductor devices and rectifiers;7.13;7.13. Calculation of Idc;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1100;7. Semiconductor devices and rectifiers;7.14;7.14. Calculation of peak value of current;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1100;7. Semiconductor devices and rectifiers;7.16;7.16. Calculation of Vrms;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1100;7. Semiconductor devices and rectifiers;7.17;7.17. Calculation of percent regulation;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1100;7. Semiconductor devices and rectifiers;7.18;7.18. To find out voltage across conducting diode;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1100;7. Semiconductor devices and rectifiers;7.19;7.19. Percentage regulation;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1100;7. Semiconductor devices and rectifiers;7.2;7.2. Calculation of alpha dc;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1100;7. Semiconductor devices and rectifiers;7.21;7.21. Peak inverse voltage;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1100;7. Semiconductor devices and rectifiers;7.4;7.4. Calculation of collector current;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1100;7. Semiconductor devices and rectifiers;7.5;7.5. Calculation of emitter current;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1100;7. Semiconductor devices and rectifiers;7.6;7.6. Calculation of base current;correct;runtime; -323;Basic Electrical And Electronics Engineering(R. R. Singh);1100;7. Semiconductor devices and rectifiers;7.7;7.7. Calculation of base current;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1023;3. Review of Basic Statistical Measures;3.1;3.1. Program to determine the Arithmetic Mean;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1023;3. Review of Basic Statistical Measures;3.10;3.10. Mode of grouped data;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1023;3. Review of Basic Statistical Measures;3.11;3.11. Relationship between Mean Median and Mode;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1023;3. Review of Basic Statistical Measures;3.12;3.12. Geometric Mean;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1023;3. Review of Basic Statistical Measures;3.13;3.13. Harmonic Mean;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1023;3. Review of Basic Statistical Measures;3.14;3.14. Quartile Deviation;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1023;3. Review of Basic Statistical Measures;3.15;3.15. Average Deviation and Coefficient of AD;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1023;3. Review of Basic Statistical Measures;3.16;3.16. Standard Deviation for grouped data;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1023;3. Review of Basic Statistical Measures;3.17;3.17. Coefficient of variation;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1023;3. Review of Basic Statistical Measures;3.18;3.18. Measure of Skewness;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1023;3. Review of Basic Statistical Measures;3.19;3.19. Bowleys Measure of Skewness;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1023;3. Review of Basic Statistical Measures;3.2;3.2. Arithmetic Mean of grouped Data;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1023;3. Review of Basic Statistical Measures;3.3;3.3. Shortcut method for Arithmetic Mean of grouped data;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1023;3. Review of Basic Statistical Measures;3.4;3.4. Weighted Arithmetic mean of ungrouped data;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1023;3. Review of Basic Statistical Measures;3.5;3.5. Weighted Arithmetic mean of Grouped data Grading scheme;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1023;3. Review of Basic Statistical Measures;3.6;3.6. Medain of ungrouped data;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1023;3. Review of Basic Statistical Measures;3.7;3.7. Median of Ungrouped data;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1023;3. Review of Basic Statistical Measures;3.8;3.8. Median of grouped data;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1023;3. Review of Basic Statistical Measures;3.9;3.9. Mode of ungrouped data;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1024;4. Design and Analysis of Experiments;4.1;4.1. Completely Randomized Design;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1024;4. Design and Analysis of Experiments;4.2;4.2. Completely Randomized Design;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1024;4. Design and Analysis of Experiments;4.3;4.3. Randomized Complete Block Design;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1024;4. Design and Analysis of Experiments;4.4;4.4. Randomized Complete Block Design;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1024;4. Design and Analysis of Experiments;4.5;4.5. Latin Square Design;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1025;6. Probabiliy Distributions;6.1;6.1. Probability of occurrence of A given that B has occurred;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1025;6. Probabiliy Distributions;6.2;6.2. umulative distribution of the binomial distribution;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1025;6. Probabiliy Distributions;6.3;6.3. Cumulative distribution of the binomial distribution;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1025;6. Probabiliy Distributions;6.4;6.4. Poisson distribution;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1025;6. Probabiliy Distributions;6.5;6.5. Poisson Distribution;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1025;6. Probabiliy Distributions;6.6;6.6. Uniform Distribution;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1025;6. Probabiliy Distributions;6.7;6.7. Exponential Distribution;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1025;6. Probabiliy Distributions;6.8;6.8. Exponential Distribution;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1025;6. Probabiliy Distributions;6.9;6.9. Normal Distribution;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1026;7. Sampling Methods and Distributions;7.1;7.1. Proportional Stratified Sampling;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1026;7. Sampling Methods and Distributions;7.10;7.10. Sampling Distribution of Proportion;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1026;7. Sampling Methods and Distributions;7.11;7.11. Confidence Interval Estimation when Sample Size is Large;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1026;7. Sampling Methods and Distributions;7.12;7.12. Confidence Interval Estimation when Sample Size is Small;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1026;7. Sampling Methods and Distributions;7.13;7.13. Confidence Interval for Proportion;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1026;7. Sampling Methods and Distributions;7.14;7.14. Sample Size for Determining Sample Mean;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1026;7. Sampling Methods and Distributions;7.15;7.15. Sample Size for Determining Sample Proportion;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1026;7. Sampling Methods and Distributions;7.2;7.2. Dispropotional Stratified Sampling;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1026;7. Sampling Methods and Distributions;7.3;7.3. Sampling Distribution of mean When the population is infinite;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1026;7. Sampling Methods and Distributions;7.4;7.4. Sampling Distribution of Mean when the population is Finite;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1026;7. Sampling Methods and Distributions;7.5;7.5. Centrel Limit Theorem;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1026;7. Sampling Methods and Distributions;7.6;7.6. Sampling Distribution of Mean when Population Variance is Unknown;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1026;7. Sampling Methods and Distributions;7.7;7.7. Chi square Distribution Sampling Distributions of Variance;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1026;7. Sampling Methods and Distributions;7.8;7.8. F distribution Sampling Distributions of Variance;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1026;7. Sampling Methods and Distributions;7.9;7.9. F distribution Sampling Distributions of Variance;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.1;8.1. One tailed Tests Concerning Single Mean When the variance of the Population is Known and the Population is infinite;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.10;8.10. One tailed Tests Concerning Single Mean When the variance of the Population is UnKnown and the Sample size is Large;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.11;8.11. Two tailed Tests Concerning Single Mean When the variance of the Population is UnKnown and the Sample Size is Large;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.12;8.12. Two tailed Tests Concerning Single Mean When the variance of the Population is UnKnown and the Sample Size is Large;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.13;8.13. One tailed Tests Concerning Single Mean when the variance of the Population is Unknown and the Sample Size is Small;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.14;8.14. One tailed Tests Concerning Single Mean when the variance of the Population is Unknown and the Sample Size is Small;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.15;8.15. Two tailed Tests Concerning Single Mean when the variance of the Population is Unknown and the Sample Size is Small;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.16;8.16. One tailed Tests Concerning Difference between Two Means When the variances of the Populations are Known;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.17;8.17. One tailed Tests Concerning Difference between Two Means When the variances of the Populations are Known;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.18;8.18. Two tailed Tests Concerning Difference between Two Means;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.19;8.19. One tailed Tests Concerning Difference between Two Means;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.2;8.2. One tailed Tests Concerning Single Mean;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.20;8.20. Two tailed Test Concerning Difference between Two Means When the variances of the Populations are UnKnown and the Sample Sizes are Large;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.21;8.21. one tailed Tests Concerning Difference between Two Means When the variances of the Populations are UnKnown and the Sample Sizes are Small;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.22;8.22. Two tailed Test Concerning Difference between Two Means When the variances of the Populations are UnKnown and the Sample Sizes are Large;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.23;8.23. Test of Hypotheses concerning Proportions One tailed Tests Concerning Single Proportion;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.24;8.24. Test of Hypotheses concerning Proportions One tailed Tests Concerning Single Proportion;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.25;8.25. Test of Hypotheses concerning Proportions Two tailed Test Concerning Single Proportion;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.26;8.26. One tailed Tests Concerning Difference between Two Proportions;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.27;8.27. One tailed Tests Concerning Difference between Two Proportions;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.28;8.28. Two tailed Test Concerning the Difference between Two Proportions;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.29;8.29. Tests of Hypotheses Concerning variances One tailed Chi square Tests Concerning Single Population Variance;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.3;8.3. wo tailed Tests Concerning Single Mean;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.30;8.30. Tests of Hypotheses Concerning variances Two tailed Chi square Tests Concerning Single Population Variance;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.31;8.31. Two tailed Chi square Test Concerning Single Population Variance;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.32;8.32. One tailed F tests Concerning Two Population Variances;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.33;8.33. One tailed F tests Concerning Two Population Variances;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.34;8.34. Two tailed F test Concerning Equality of Two Population Variances;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.35;8.35. Chi Square Test for Checking Independence of categorized data;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.36;8.36. Chi Square Test for Checking Independence of categorized data;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.37;8.37. Goodness of Fit Test;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.38;8.38. Goodness of Fit Test;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.4;8.4. One tailed Tests Concerning Single Mean When the variance of the Population is Known and the Population is finite;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.5;8.5. One tailed Tests Concerning Single Mean When the variance of the Population is Known and the Population is finite;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.6;8.6. Two tailed Test Concerning Single Mean;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.7;8.7. One tailed Tests Concerning Single Mean When the variance of the Population is UnKnown and the Sample size is Large;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.8;8.8. One tailed Tests Concerning Single Mean When the variance of the Population is UnKnown and the Sample size is Large;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1030;8. Test of Hypothesis;8.9;8.9. One tailed Tests Concerning Single Mean When the variance of the Population is UnKnown and the Sample size is Large;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.1;9.1. One sample Sign Test for small samples;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.10;9.10. Run Test for Randomness;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.11;9.11. Run Test for Randomness;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.12;9.12. One tailed two samples sign tests with binomial distribution;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.13;9.13. Two tailed two samples sign test with binomial distribution;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.14;9.14. One tailed two samples sign test with normal approximation;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.15;9.15. One tailed two samples sign test with normal approximation;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.16;9.16. wo tailed two samples sign test with normal approximation;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.17;9.17. Two samples Medain Test;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.18;9.18. Two samples Medain Test Large Samples;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.19;9.19. Mann Whitney U Test;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.2;9.2. One sample Sign Test for small samples;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.20;9.20. Mann Whitney U Test;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.21;9.21. K samples Median Test;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.22;9.22. K samples Median Test;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.23;9.23. Kruskal Wallis Test H Test;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.3;9.3. Two tailed sign test for small sample;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.4;9.4. One tailed One sample test for large sample;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.5;9.5. One tailed One sample test for large sample;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.6;9.6. Two tailed one sample sign test for large sample;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.7;9.7. Kolmogorov Smirnov Test;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.8;9.8. Kolmogorov Smirnov Test;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1027;9. Nonparametric Tests;9.9;9.9. Kolmogorov Smirnov Test;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1028;10. Basic Multivariate Analysis;10.1;10.1. Correlation Coefficient for Ungrouped Data;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1028;10. Basic Multivariate Analysis;10.10;10.10. Linear regression and Time series Simple regression;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1028;10. Basic Multivariate Analysis;10.11;10.11. Linear regression and Time series Simple regression;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1028;10. Basic Multivariate Analysis;10.2;10.2. Correlation for Grouped Data;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1028;10. Basic Multivariate Analysis;10.3;10.3. Rank Correlation;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1028;10. Basic Multivariate Analysis;10.4;10.4. Auto correlation;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1028;10. Basic Multivariate Analysis;10.5;10.5. Forecasting;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1028;10. Basic Multivariate Analysis;10.6;10.6. Weighted Moving Average Method;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1028;10. Basic Multivariate Analysis;10.7;10.7. Simple Single Exponential Smoothing Method;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1028;10. Basic Multivariate Analysis;10.8;10.8. Linear regression and Time series;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1028;10. Basic Multivariate Analysis;10.9;10.9. Linear regression and Time series Simple regression;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1029;11. Advanced Multivariate Analysis;11.1;11.1. Two group Discriminan Analysis;correct;runtime; -331;Research Methodology Methods And Techniques(C. R. Kothari);1029;11. Advanced Multivariate Analysis;11.2;11.2. Factor Analysis Centroid Method;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);999;1. Introduction;1.1;1.1. Intrinsic wave impedance;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);999;1. Introduction;1.2;1.2. Comparing Inductances at different frequencies;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);999;1. Introduction;1.3;1.3. Frequency response of high frequency resistor;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);999;1. Introduction;1.4;1.4. Frequency response of high frequency capacitor;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);999;1. Introduction;1.5;1.5. frequency response of high frequency inductor;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1000;2. Transmission line analysis;2.1;2.1. Magnetic field inside and outside infinitely long current carrying wire;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1000;2. Transmission line analysis;2.10;2.10. Return Loss of Transmission line section;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1000;2. Transmission line analysis;2.3;2.3. Transmission line parameters of a parallel copper plate transmission line;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1000;2. Transmission line analysis;2.5;2.5. Phase velocity and Wavelength of PCB material;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1000;2. Transmission line analysis;2.6;2.6. Input Impedance for a short circuited transmission line;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1000;2. Transmission line analysis;2.7;2.7. Input impedance of open circuited transmission line;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1000;2. Transmission line analysis;2.8;2.8. Quarter wave parallel plate line transformer;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1000;2. Transmission line analysis;2.9;2.9. Power considerations of a transmission line;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1037;3. The Smith Chart;3.2;3.2. Input Impedance;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1037;3. The Smith Chart;3.4;3.4. SWR circles;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1042;4. Single and Multiport Networks;4.3;4.3. Internal resistances and current gain of BJT;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1042;4. Single and Multiport Networks;4.7;4.7. S parameters and resistive elements of T network;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1048;5. An Overview of RF Filter Design;5.1;5.1. Resonance frequency of a Bandpass filter;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1048;5. An Overview of RF Filter Design;5.2;5.2. Quality factors of a filter;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1066;6. Active RF Components;6.1;6.1. Conductivity of Si and Ge and GaAs;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1066;6. Active RF Components;6.10;6.10. Current Voltage characterisitcs of a MESFET;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1066;6. Active RF Components;6.11;6.11. Computation of HEMT related electric characteristics;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1066;6. Active RF Components;6.2;6.2. Barrier Voltage of a pn Junction;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1066;6. Active RF Components;6.3;6.3. Depletion Layer Capacitance of a pn Junction;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1066;6. Active RF Components;6.4;6.4. Parameters of a Schottky diode;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1066;6. Active RF Components;6.7;6.7. Maximum forward current gain of bipolar junction transistor;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1066;6. Active RF Components;6.8;6.8. Thermal analysis involving a BJT mounted on a heat sink;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1066;6. Active RF Components;6.9;6.9. Drain saturation current in a MESFET;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1068;7. Active RF Component Modelling;7.1;7.1. Small signal pn diode model;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1068;7. Active RF Component Modelling;7.4;7.4. Parameters of BJT;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1068;7. Active RF Component Modelling;7.5;7.5. Cutoff frequency of GaAs MESFET;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1068;7. Active RF Component Modelling;7.6;7.6. Small signal Hybrid pi parameters without Miller Effect;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1073;8. Matching and biasing networks;8.11;8.11. Efficiency of different types of amplifiers;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1073;8. Matching and biasing networks;8.12;8.12. Design of passive biasing networks for a BJT in CE config;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1074;9. RF Transistor Amplifier Design;9.1;9.1. Power relations for an RF amplifier;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1074;9. RF Transistor Amplifier Design;9.13;9.13. Amplifier design using the constant operating gain circles;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1074;9. RF Transistor Amplifier Design;9.14;9.14. Design of small signal amplifier for minimum noise figure and specified gain;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1074;9. RF Transistor Amplifier Design;9.15;9.15. Constant VSWR design for given gain and noise figure;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1074;9. RF Transistor Amplifier Design;9.7;9.7. Computation of source gain circles for a unilateral design;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1074;9. RF Transistor Amplifier Design;9.8;9.8. Design of 18 dB single stage MESFET amplifier;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1075;10. Oscillators and Mixers;10.1;10.1. Design of a Colpitt oscillator;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1075;10. Oscillators and Mixers;10.2;10.2. Prediction of resonance frequencies of quartz crystal;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1075;10. Oscillators and Mixers;10.3;10.3. Adding a positive feedback element to initiate oscillations;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1075;10. Oscillators and Mixers;10.6;10.6. Dielectric resonator oscillator design;correct;runtime; -339;Radio Frequency Circuit Design(R. Ludwig And G. Bogdanov);1075;10. Oscillators and Mixers;10.8;10.8. Local oscillator frequency selection;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.1;1.1. Resistance of Copper coil at 0 deg C;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.10;1.10. To find voltage divided among four resistances in series;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.11;1.11. To determine the current divided among three resistors in parallel;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.12;1.12. To calculate value of an unknown resistor and find the power absorbed by the circuit;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.13;1.13. To calculate the effective resistance of a circuit;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.14;1.14. To find the reading of an Ammeter in the circuit;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.15;1.15. To calculate effective resistance;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.16;1.16. To calculate battery current and effective resistance of the network;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.17;1.17. To calculate battery current;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.18;1.18. To calculate effective resistance;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.19;1.19. To calculate battery current;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.2;1.2. Temperature coefficient and resistance of field winding;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.20;1.20. To calculate effective resistance;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.21;1.21. To calculate effective resistance;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.22;1.22. To find the value of resistance;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.23;1.23. To find the value of resistance;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.24;1.24. To find current and voltages;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.26;1.26. To find current in 4 Ohm resistor using Source transformation;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.27;1.27. To find current in 3 Ohm resistor using Source transformation;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.28;1.28. To find current in 10 Ohm resistor using Source transformation;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.29;1.29. To find branch currents using Kirchoff laws;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.3;1.3. Resistance at 60 deg C of aluminium wire;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.30;1.30. To find branch currents using Kirchoff laws;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.31;1.31. To determine the current supplied by the battery;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.32;1.32. To determine current through 20 Ohm resistor;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.38;1.38. To find equivalent resistance between the terminals X and Y;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.4;1.4. Resistance at 50 deg C of shunt winding of motor;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.40;1.40. To find current I in the network;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.41;1.41. To find equivalent resistance between terminals X and Y;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.42;1.42. To find equivalent resistance between the terminals A and B;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.43;1.43. To find equivalent resistance between the terminals A and B;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.44;1.44. To find current in 1 Ohm resistor using Mesh analysis;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.45;1.45. To find I1 I2 I3 using Mesh analysis;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.47;1.47. To find current through 2 Ohm resistor using Mesh analysis;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.48;1.48. To find current in 100 Ohm resistor using Mesh analysis;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.49;1.49. To find current in 5 Ohm resistor using Mesh analysis;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.5;1.5. Temperature coefficient of material;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.50;1.50. To find current through 15 Ohm resistor using Nodal analysis;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.51;1.51. To find currents I1 I2 I3 using Nodal analysis;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.52;1.52. To determine voltages at A and B using Nodal Analysis;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.53;1.53. To find current in 2 Ohm and 3 Ohm resistor using Nodal analysis;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.54;1.54. To find currents in various resistors;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.55;1.55. To find different branch currents using Superposition theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.56;1.56. To find current in 1 Ohm resistor using Superposition theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.57;1.57. To determine current in 20 Ohm resistor using Superposition theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.58;1.58. To determine current in 1 Ohm resistor using Superposition theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.59;1.59. To determine current in 5 Ohm resistor using Superposition theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.6;1.6. Average temperature;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.60;1.60. To determine current in 10 Ohm resistor using Superposition theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.61;1.61. To determine current through 5 Ohm resistor using Thevenin theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.62;1.62. To determine current using Thevenin theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.63;1.63. To determine current through 8 Ohm resistor using Thevenin theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.64;1.64. To determine current in 10 Ohm resistor by Thevenin Theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.65;1.65. To obtain power drawn by 20 Ohm resistor using Thevenin Theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.66;1.66. To determine current in 30 Ohm resistor using Thevenin Theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.67;1.67. To find current in Rl using Thevenin Theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.68;1.68. To find current in 40 Ohm resistor using Thevenin Theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.69;1.69. To find current through 20 Ohm resistor using Norton theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.7;1.7. Mean temperature;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.70;1.70. To find current in 4 Ohm resistor using Norton Theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.71;1.71. To find current in 4 Ohm resistor using Norton Theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.72;1.72. To find current in 5 Ohm resistor using Norton theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.73;1.73. Calculation of RL for it to absorb maximum power using maximum power Transfer Theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.74;1.74. To find magnitude of Rl using Maximum Power transfer theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.75;1.75. To determine maximum power delivered to Rl;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.76;1.76. Calculation of RL for it to absorb maximum power using maximum power Transfer Theorem;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.8;1.8. To determine current through series connection of resistors;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1036;1. DC Circuits;1.9;1.9. To determine current and voltage through parallel connection of resistors;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.1;2.1. To find parameters of an alternating current;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.10;2.10. To find rms value of a waveform;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.11;2.11. To find rms value of a waveform;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.12;2.12. To find rms value of a waveform;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.13;2.13. To find rms value of a waveform;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.14;2.14. To find rms value of a waveform;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.15;2.15. To find rms value of a waveform;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.16;2.16. To find effective value of resultant current;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.17;2.17. To find parameters of an alternating current;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.19;2.19. To derive instantaneous value of sum and difference of voltages;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.2;2.2. To find parameters of an alternating current;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.21;2.21. To find resultant of four alternating voltages;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.22;2.22. To calculate an unknown alternating voltage;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.23;2.23. To find current in wire s;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.24;2.24. To find resultant emf across the series connected coils;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.25;2.25. To find potential difference;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.26;2.26. To find parameters of an AC circuit;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.27;2.27. To obtain voltage across an inductor;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.28;2.28. To find voltage and current in the circuit;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.29;2.29. To find parameters of an AC circuit;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.3;2.3. To find time taken by an alternating voltage to reach 0;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.30;2.30. To find parameters of an AC circuit;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.31;2.31. To find current and voltage;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.32;2.32. To find Z2;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.33;2.33. To determine impedance and power consumed;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.34;2.34. To find average power taken;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.35;2.35. To determine Z2;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.4;2.4. To find average value of a waveform;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.40;2.40. To determine active and reactive and apparent Power;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.43;2.43. To find impedance and Power;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.45;2.45. To find values of R and C;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.46;2.46. To find value of L and C;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.47;2.47. To find value of supply voltage;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.48;2.48. To find R and C;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.49;2.49. To find coil resistance and supply voltage;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.5;2.5. To find average value of a waveform;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.50;2.50. To compute various parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.51;2.51. To find parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.52;2.52. To find resistanca and inductance of a coil and also the Q factor of the circuit;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.53;2.53. To find current and voltage across capacitor;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.54;2.54. To find resonant frequency and voltage at resonance;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.55;2.55. to determine R L C;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.56;2.56. To find line current and power factor and power consumed;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.57;2.57. To determine parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.58;2.58. To determine branch currents and total current;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.59;2.59. To determine power taken by each branch;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.6;2.6. To find average value of a waveform;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.60;2.60. To determine various parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.61;2.61. To find the supply current;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.62;2.62. To find I1 and I2;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.63;2.63. To determine kW kVAR kVA and power factor;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.65;2.65. To determine parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.66;2.66. To determine equivalent impedance;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.68;2.68. To determine branch currents;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.69;2.69. To determine various parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.7;2.7. To find average value of a waveform;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.70;2.70. To calculate admittance;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.71;2.71. To determine various parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.72;2.72. To calculate equivalent impedance admittance and total current;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.73;2.73. To calculate admittance;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.74;2.74. To determine various parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.75;2.75. To determine various parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.76;2.76. To determine total impedance current and power factor;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.77;2.77. To determine various parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.78;2.78. To find supply voltage value and total current;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.79;2.79. To determine value of capacitance;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.8;2.8. To find average value of a waveform;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1945;2. AC Circuits;2.80;2.80. To determine various parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1978;3. Three phase circuits;3.1;3.1. To find parameters for Star and Delta connected circuits;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1978;3. Three phase circuits;3.10;3.10. To find impedance in delta connected circuit;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1978;3. Three phase circuits;3.11;3.11. To find various parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1978;3. Three phase circuits;3.12;3.12. To find power taken by resistor;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1978;3. Three phase circuits;3.13;3.13. To find power taken by resistor;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1978;3. Three phase circuits;3.16;3.16. To find total power and power factor after reversing the current of the coil;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1978;3. Three phase circuits;3.17;3.17. To determine various parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1978;3. Three phase circuits;3.18;3.18. To determine various parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1978;3. Three phase circuits;3.19;3.19. To determine various parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1978;3. Three phase circuits;3.2;3.2. To find parameters of star connected circuit;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1978;3. Three phase circuits;3.20;3.20. To find power factor;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1978;3. Three phase circuits;3.21;3.21. To find power factor;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1978;3. Three phase circuits;3.3;3.3. To find line current phase current and power absorbed by a delta connected circuit;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1978;3. Three phase circuits;3.4;3.4. To find capacitive reactance and Power consumed;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1978;3. Three phase circuits;3.5;3.5. To find various parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1978;3. Three phase circuits;3.7;3.7. To find values of circuit elements;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1978;3. Three phase circuits;3.8;3.8. To find values of resistance and inductance of each coil;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1978;3. Three phase circuits;3.9;3.9. To find circuit constants;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.1;4.1. To determine secondary voltage and primary and secondary currents;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.10;4.10. To find copper loss at 75 percent full load condition;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.11;4.11. To determine various parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.13;4.13. To find percentage regulation and secondary terminal voltage;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.14;4.14. To find efficiency at different conditions;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.15;4.15. To find load in KVA and maximum efficiency;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.16;4.16. To find efficiency and load in KVA;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.17;4.17. To find values of resistances;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.18;4.18. To find load and maximum efficiency;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.2;4.2. To determine various parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.20;4.20. To find efficiency;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.21;4.21. To find various parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.22;4.22. To find KVA at maximum efficiency;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.23;4.23. To find secondary voltage;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.24;4.24. To find various parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.25;4.25. To find percentage regulation;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.26;4.26. To find efficiency;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.27;4.27. To find efficiency;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.28;4.28. To find efficiency;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.29;4.29. To find efficiency;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.3;4.3. To find the number of turns;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.30;4.30. To find efficiency;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.4;4.4. To determine various parameters;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.5;4.5. To find maximum value of flux and core loss and magnetiizing current;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.6;4.6. To find value of resistance referred to primary;correct;runtime; -343;Basic Electrical And Electronics Engineering(B. R. Patil);1983;4. Single Phase Transformer;4.9;4.9. To find copper loss at half load and 60 percent full load condition;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1082;2. THE DEVICE;2.1;2.1. vlotage safety factor;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1082;2. THE DEVICE;2.2;2.2. peak inverse vlotage;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1082;2. THE DEVICE;2.3;2.3. capacitive current;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1082;2. THE DEVICE;2.4;2.4. equivalent capacitance;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1082;2. THE DEVICE;2.5;2.5. value of derivative of v;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1082;2. THE DEVICE;2.6;2.6. value of rate of voltage;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1082;2. THE DEVICE;2.7;2.7. Voltage safety factor;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1083;3. Fabrication and Thermal characteristics;3.1;3.1. junction temperature;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1083;3. Fabrication and Thermal characteristics;3.2;3.2. Maximum junction temperature;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1083;3. Fabrication and Thermal characteristics;3.3;3.3. value of junction temperature;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1083;3. Fabrication and Thermal characteristics;3.4;3.4. on state power loss;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1083;3. Fabrication and Thermal characteristics;3.5;3.5. case sink thermal resistance;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1198;4. Series and Parallel Connection of Thyristors;4.1;4.1. Derating factor;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1198;4. Series and Parallel Connection of Thyristors;4.2;4.2. series connection;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1199;5. Line Commutated converters;5.1;5.1. AC terminal power;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1199;5. Line Commutated converters;5.2;5.2. Voltage regulation;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1199;5. Line Commutated converters;5.3;5.3. Maximum dc voltage;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1199;5. Line Commutated converters;5.4;5.4. Firing angle;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1199;5. Line Commutated converters;5.5;5.5. Reactance of the reactor;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1199;5. Line Commutated converters;5.6;5.6. AC load current;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1199;5. Line Commutated converters;5.7;5.7. Average value of voltage;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1199;5. Line Commutated converters;5.8;5.8. DC output voltage;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1200;7. Inverter Circuits;7.1;7.1. Attenuation factor;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1200;7. Inverter Circuits;7.2;7.2. Value of inductance;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1200;7. Inverter Circuits;7.3;7.3. Value of R1;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1201;8. Harmonic and PowerFactor with the converter system;8.1;8.1. Shunt filter;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1201;8. Harmonic and PowerFactor with the converter system;8.2;8.2. DC reactor circuit;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1201;8. Harmonic and PowerFactor with the converter system;8.3;8.3. Commutation angle;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1201;8. Harmonic and PowerFactor with the converter system;8.4;8.4. Rating of shunt compensator;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1201;8. Harmonic and PowerFactor with the converter system;8.5;8.5. Shunt filter;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1201;8. Harmonic and PowerFactor with the converter system;8.6;8.6. Maximum current ripple;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1201;8. Harmonic and PowerFactor with the converter system;8.7;8.7. Voltage ripple;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1201;8. Harmonic and PowerFactor with the converter system;8.8;8.8. Triggering angle;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1201;8. Harmonic and PowerFactor with the converter system;8.9;8.9. Power factor;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1202;11. Control of DC Motors;11.1;11.1. Designing a thyristor;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1202;11. Control of DC Motors;11.2;11.2. Blocking angle;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1202;11. Control of DC Motors;11.3;11.3. Firing angle;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1202;11. Control of DC Motors;11.4;11.4. Reactive power;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1202;11. Control of DC Motors;11.5;11.5. Active and Reactive power;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1202;11. Control of DC Motors;11.6;11.6. Power at given load;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1202;11. Control of DC Motors;11.7;11.7. Triggering angle;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1203;12. Controllers and Their Optimisation;12.1;12.1. Permanent error of p contoller;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1203;12. Controllers and Their Optimisation;12.2;12.2. Motor armature time constant;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1203;12. Controllers and Their Optimisation;12.3;12.3. Controller parameters;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1203;12. Controllers and Their Optimisation;12.4;12.4. Designing a PI regulator;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1203;12. Controllers and Their Optimisation;12.5;12.5. Time constant of the controller;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1203;12. Controllers and Their Optimisation;12.6;12.6. Maximum overshoot;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1203;12. Controllers and Their Optimisation;12.7;12.7. Settling time;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1203;12. Controllers and Their Optimisation;12.8;12.8. Difference in response;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1204;13. Choppers and Transportation system Application;13.1;13.1. Instantaneous current;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1204;13. Choppers and Transportation system Application;13.2;13.2. Conduction and Blocking period;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1204;13. Choppers and Transportation system Application;13.3;13.3. Optimum frequency;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1204;13. Choppers and Transportation system Application;13.4;13.4. Required pulse width;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1204;13. Choppers and Transportation system Application;13.5;13.5. Pulse width;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1204;13. Choppers and Transportation system Application;13.6;13.6. Motor Torque;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1204;13. Choppers and Transportation system Application;13.7;13.7. Chopper Frequency;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1205;15. The AC motor control;15.1;15.1. Stator current;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1205;15. The AC motor control;15.10;15.10. Range of variation;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1205;15. The AC motor control;15.11;15.11. Load powerfactor;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1205;15. The AC motor control;15.12;15.12. Input displacement factor;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1205;15. The AC motor control;15.13;15.13. Firing angle;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1205;15. The AC motor control;15.14;15.14. Firing angle;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1205;15. The AC motor control;15.15;15.15. Input currents;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1205;15. The AC motor control;15.16;15.16. Load powerfactor;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1205;15. The AC motor control;15.2;15.2. Designing a thyristor converter;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1205;15. The AC motor control;15.3;15.3. Torque developed by the motor;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1205;15. The AC motor control;15.4;15.4. Torque developed by the motor;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1205;15. The AC motor control;15.5;15.5. Rotor Frequency;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1205;15. The AC motor control;15.6;15.6. Input voltage to the motor;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1205;15. The AC motor control;15.7;15.7. Rotor copper loss;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1205;15. The AC motor control;15.8;15.8. Stator frequency;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1205;15. The AC motor control;15.9;15.9. Distortion Factor;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1206;16. Faults and Protection;16.1;16.1. Peak inverse voltage;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1206;16. Faults and Protection;16.2;16.2. Voltage safety factor;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1206;16. Faults and Protection;16.3;16.3. Choke power;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1206;16. Faults and Protection;16.4;16.4. Snubber circuit;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1206;16. Faults and Protection;16.5;16.5. Suitable circuit;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1206;16. Faults and Protection;16.6;16.6. Suitable circuit;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1206;16. Faults and Protection;16.7;16.7. Energy dissipated per plate;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1206;16. Faults and Protection;16.8;16.8. Protection circuit;correct;runtime; -371;Thyristors Theory And Applications(R. K. Sugandhi And K. K. Sugandhi);1206;16. Faults and Protection;16.9;16.9. Additional value of inductance;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1117;1. Introduction to fibre communications;1.1;1.1. numerical aperture;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1117;1. Introduction to fibre communications;1.2;1.2. acceptance angle;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1117;1. Introduction to fibre communications;1.3;1.3. critical angle;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1115;2. Electromagnetic Wave Propogation through Optical Fibre;2.1;2.1. refractive index of cladding;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1115;2. Electromagnetic Wave Propogation through Optical Fibre;2.2;2.2. maximum core diameter;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1115;2. Electromagnetic Wave Propogation through Optical Fibre;2.3;2.3. minimum value;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1115;2. Electromagnetic Wave Propogation through Optical Fibre;2.4;2.4. cut off wavelength;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1115;2. Electromagnetic Wave Propogation through Optical Fibre;2.5;2.5. number of guided modes;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1191;3. Losses and Dispersions in Optical Fibre;3.0;3.0. bandwidth distance product;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1191;3. Losses and Dispersions in Optical Fibre;3.1;3.1. overall attenuation;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1191;3. Losses and Dispersions in Optical Fibre;3.2;3.2. attenuation in db;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1191;3. Losses and Dispersions in Optical Fibre;3.3;3.3. multiple time dispersion;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1191;3. Losses and Dispersions in Optical Fibre;3.4;3.4. critical radius;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1191;3. Losses and Dispersions in Optical Fibre;3.4.b;3.4.b. critical radius of curvature;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1191;3. Losses and Dispersions in Optical Fibre;3.5;3.5. threshold optical power;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1191;3. Losses and Dispersions in Optical Fibre;3.6;3.6. wave guide dispersion;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1191;3. Losses and Dispersions in Optical Fibre;3.7;3.7. approximate bit rate;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1192;4. Light Emitting Diode;4.1;4.1. internal generated power;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1192;4. Light Emitting Diode;4.2;4.2. optical power coupled;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1277;5. Semiconductor Lasers;5.1;5.1. threshold current;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1277;5. Semiconductor Lasers;5.1.b;5.1.b. external power efficiency;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1277;5. Semiconductor Lasers;5.2;5.2. minority carrier life time;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1277;5. Semiconductor Lasers;5.2.a;5.2.a. external power efficiency;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1277;5. Semiconductor Lasers;5.3.a;5.3.a. ratio of current densities;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1277;5. Semiconductor Lasers;5.4;5.4. wave length seperation;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1277;5. Semiconductor Lasers;5.4.a;5.4.a. seperation wave length between two modes;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1281;6. Photodetectors;6.1;6.1. incident power required;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1281;6. Photodetectors;6.10;6.10. critical wavelength;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1281;6. Photodetectors;6.2;6.2. responsivity;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1281;6. Photodetectors;6.3;6.3. incident optical power required;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1281;6. Photodetectors;6.4;6.4. cutoff wavelength;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1281;6. Photodetectors;6.5;6.5. fraction of incident power;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1281;6. Photodetectors;6.6;6.6. multiplication factor;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1281;6. Photodetectors;6.7;6.7. directivity;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1281;6. Photodetectors;6.8;6.8. common emitter current gain;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1281;6. Photodetectors;6.9;6.9. maximum bandwidth;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1278;7. Manufacture of Fibres and Cables;7.2;7.2. coupling efficiency;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1280;8. Optical fibre communication receiver;8.1;8.1. thermal noise generated;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1280;8. Optical fibre communication receiver;8.2;8.2. load resistance and bandwidth;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1280;8. Optical fibre communication receiver;8.3;8.3. signal to nise ratio;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1280;8. Optical fibre communication receiver;8.4;8.4. maximum bandwidth;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1280;8. Optical fibre communication receiver;8.4.a;8.4.a. minimum power required;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1273;9. Optical fibre measurments;9.1;9.1. attenuation per km;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1273;9. Optical fibre measurments;9.2;9.2. attenuation per km;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1273;9. Optical fibre measurments;9.3;9.3. optical band width;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1273;9. Optical fibre measurments;9.4;9.4. distance from the screen;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1273;9. Optical fibre measurments;9.4.a;9.4.a. outer diameter of the fibre;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1273;9. Optical fibre measurments;9.5;9.5. numerical aperture;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1273;9. Optical fibre measurments;9.5.a;9.5.a. excess loss of the conductor;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1270;11. Optical fibre links and wavelength Divison multiplexers;11.1;11.1. material dispersion delay;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1270;11. Optical fibre links and wavelength Divison multiplexers;11.2;11.2. mterial dispersion limited transmission distance;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1270;11. Optical fibre links and wavelength Divison multiplexers;11.3;11.3. modal dispersion limited transmission distance;correct;runtime; -374;Optoelectronics And Fiber Optics Communication(C. K. Sarkar And D. Sarkar);1270;11. Optical fibre links and wavelength Divison multiplexers;11.5;11.5. material dispersion delay time;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1146;1. QUANTUM MECHANICS OF SEMICONDUCTORS;1.1;1.1. EX 1;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1146;1. QUANTUM MECHANICS OF SEMICONDUCTORS;1.10;1.10. EX 10;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1146;1. QUANTUM MECHANICS OF SEMICONDUCTORS;1.2;1.2. EX 2;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1146;1. QUANTUM MECHANICS OF SEMICONDUCTORS;1.3;1.3. EX 3;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1146;1. QUANTUM MECHANICS OF SEMICONDUCTORS;1.4;1.4. EX 4;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1146;1. QUANTUM MECHANICS OF SEMICONDUCTORS;1.5;1.5. EX 5;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1146;1. QUANTUM MECHANICS OF SEMICONDUCTORS;1.6;1.6. EX 6;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1146;1. QUANTUM MECHANICS OF SEMICONDUCTORS;1.7;1.7. EX 7;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1146;1. QUANTUM MECHANICS OF SEMICONDUCTORS;1.8;1.8. EX 8;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1146;1. QUANTUM MECHANICS OF SEMICONDUCTORS;1.9;1.9. EX 9;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1147;3. BONDS AND BANDS;3.1;3.1. EX 1;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1147;3. BONDS AND BANDS;3.2;3.2. EX 2;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1147;3. BONDS AND BANDS;3.3;3.3. EX 3;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1147;3. BONDS AND BANDS;3.4;3.4. EX 4;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1081;4. Practical Semiconductors;4.1;4.1. 1st solved example;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1081;4. Practical Semiconductors;4.10;4.10. 10th solved example;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1081;4. Practical Semiconductors;4.11;4.11. 11th solved example;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1081;4. Practical Semiconductors;4.2;4.2. 2nd solved example;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1081;4. Practical Semiconductors;4.3;4.3. 3nd solved example;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1081;4. Practical Semiconductors;4.4;4.4. 4th solved example;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1081;4. Practical Semiconductors;4.5;4.5. 5th solved example;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1081;4. Practical Semiconductors;4.6;4.6. 6th solved example;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1081;4. Practical Semiconductors;4.7;4.7. 7th solved example;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1081;4. Practical Semiconductors;4.8;4.8. 8th solved example;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1081;4. Practical Semiconductors;4.9;4.9. 9th solved example;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1148;5. DOPING OF SEMICONDUCTORS;5.1;5.1. EX 1;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1148;5. DOPING OF SEMICONDUCTORS;5.2;5.2. EX 2;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1148;5. DOPING OF SEMICONDUCTORS;5.3;5.3. EX 3;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1148;5. DOPING OF SEMICONDUCTORS;5.4;5.4. EX 4;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1149;6. CARRIER PROCESSES IN SEMICONDUCTORS;6.1;6.1. EX 1;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1149;6. CARRIER PROCESSES IN SEMICONDUCTORS;6.2;6.2. EX 2;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1149;6. CARRIER PROCESSES IN SEMICONDUCTORS;6.3;6.3. EX 3;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1149;6. CARRIER PROCESSES IN SEMICONDUCTORS;6.4;6.4. EX 4;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1149;6. CARRIER PROCESSES IN SEMICONDUCTORS;6.5;6.5. EX 5;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1149;6. CARRIER PROCESSES IN SEMICONDUCTORS;6.6;6.6. EX 6;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1149;6. CARRIER PROCESSES IN SEMICONDUCTORS;6.7;6.7. EX 7;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1149;6. CARRIER PROCESSES IN SEMICONDUCTORS;6.8;6.8. EX 8;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1149;6. CARRIER PROCESSES IN SEMICONDUCTORS;6.9;6.9. EX 9;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1150;7. BANDGAP ENGINEERING;7.1;7.1. EX 1;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1150;7. BANDGAP ENGINEERING;7.2;7.2. EX 2;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1150;7. BANDGAP ENGINEERING;7.3;7.3. EX 3;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1150;7. BANDGAP ENGINEERING;7.4;7.4. EX 4;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1150;7. BANDGAP ENGINEERING;7.5;7.5. EX 5;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1151;8. SEMICONDUCTOR GROWTH PROCESSING AND ITS CHARACTERISATION;8.1;8.1. EX1;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1151;8. SEMICONDUCTOR GROWTH PROCESSING AND ITS CHARACTERISATION;8.2;8.2. EX2;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1151;8. SEMICONDUCTOR GROWTH PROCESSING AND ITS CHARACTERISATION;8.3;8.3. EX3;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1151;8. SEMICONDUCTOR GROWTH PROCESSING AND ITS CHARACTERISATION;8.4;8.4. EX4;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1151;8. SEMICONDUCTOR GROWTH PROCESSING AND ITS CHARACTERISATION;8.5;8.5. EX5;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1151;8. SEMICONDUCTOR GROWTH PROCESSING AND ITS CHARACTERISATION;8.6;8.6. EX6;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1152;9. JUNCTION ANALYSIS;9.1;9.1. EX1;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1152;9. JUNCTION ANALYSIS;9.10;9.10. EX10;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1152;9. JUNCTION ANALYSIS;9.11;9.11. EX11;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1152;9. JUNCTION ANALYSIS;9.2;9.2. EX2;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1152;9. JUNCTION ANALYSIS;9.3;9.3. EX3;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1152;9. JUNCTION ANALYSIS;9.4;9.4. EX4;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1152;9. JUNCTION ANALYSIS;9.5;9.5. EX5;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1152;9. JUNCTION ANALYSIS;9.6;9.6. EX6;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1152;9. JUNCTION ANALYSIS;9.7;9.7. EX7;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1152;9. JUNCTION ANALYSIS;9.8;9.8. EX8;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1152;9. JUNCTION ANALYSIS;9.9;9.9. EX9;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1153;10. BIPOLAR JUNCTION TRANSISTORS;10.1;10.1. EX1;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1153;10. BIPOLAR JUNCTION TRANSISTORS;10.2;10.2. EX2;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1153;10. BIPOLAR JUNCTION TRANSISTORS;10.3;10.3. EX3;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1153;10. BIPOLAR JUNCTION TRANSISTORS;10.4;10.4. EX4;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1153;10. BIPOLAR JUNCTION TRANSISTORS;10.5;10.5. EX5;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1153;10. BIPOLAR JUNCTION TRANSISTORS;10.6;10.6. EX6;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1153;10. BIPOLAR JUNCTION TRANSISTORS;10.7;10.7. EX7;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1154;11. JUNCTION FIELD EFFECT TRANSISTOR;11.1;11.1. EX1;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1154;11. JUNCTION FIELD EFFECT TRANSISTOR;11.2;11.2. EX2;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1154;11. JUNCTION FIELD EFFECT TRANSISTOR;11.3;11.3. EX3;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1154;11. JUNCTION FIELD EFFECT TRANSISTOR;11.4;11.4. EX4;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1154;11. JUNCTION FIELD EFFECT TRANSISTOR;11.5;11.5. EX5;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1155;12. METAL SEMICONDUCTOR FIELD EFFECT TRANSISTOR;12.1;12.1. EX1;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1155;12. METAL SEMICONDUCTOR FIELD EFFECT TRANSISTOR;12.2;12.2. EX2;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1155;12. METAL SEMICONDUCTOR FIELD EFFECT TRANSISTOR;12.3;12.3. EX3;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1155;12. METAL SEMICONDUCTOR FIELD EFFECT TRANSISTOR;12.4;12.4. EX4;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1155;12. METAL SEMICONDUCTOR FIELD EFFECT TRANSISTOR;12.5;12.5. EX5;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1155;12. METAL SEMICONDUCTOR FIELD EFFECT TRANSISTOR;12.6;12.6. EX6;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1156;13. HIGH ELECTRON MOBILITY TRANSISTORS;13.1;13.1. EX1;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1156;13. HIGH ELECTRON MOBILITY TRANSISTORS;13.2;13.2. EX2;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1156;13. HIGH ELECTRON MOBILITY TRANSISTORS;13.3;13.3. EX3;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1156;13. HIGH ELECTRON MOBILITY TRANSISTORS;13.4;13.4. EX4;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1157;14. METAL OXIDE SEMICONDUCTOR FIELD EFFECT TRANSISTOR;14.1;14.1. EX1;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1157;14. METAL OXIDE SEMICONDUCTOR FIELD EFFECT TRANSISTOR;14.10;14.10. EX10;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1157;14. METAL OXIDE SEMICONDUCTOR FIELD EFFECT TRANSISTOR;14.2;14.2. EX2;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1157;14. METAL OXIDE SEMICONDUCTOR FIELD EFFECT TRANSISTOR;14.3;14.3. EX3;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1157;14. METAL OXIDE SEMICONDUCTOR FIELD EFFECT TRANSISTOR;14.4;14.4. EX4;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1157;14. METAL OXIDE SEMICONDUCTOR FIELD EFFECT TRANSISTOR;14.5;14.5. EX5;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1157;14. METAL OXIDE SEMICONDUCTOR FIELD EFFECT TRANSISTOR;14.6;14.6. EX6;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1157;14. METAL OXIDE SEMICONDUCTOR FIELD EFFECT TRANSISTOR;14.7;14.7. EX7;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1157;14. METAL OXIDE SEMICONDUCTOR FIELD EFFECT TRANSISTOR;14.8;14.8. EX8;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1158;15. OPTOELECTRONIC DEVICES;15.1;15.1. EX1;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1158;15. OPTOELECTRONIC DEVICES;15.2;15.2. EX2;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1158;15. OPTOELECTRONIC DEVICES;15.3;15.3. EX3;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1158;15. OPTOELECTRONIC DEVICES;15.4;15.4. EX4;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1158;15. OPTOELECTRONIC DEVICES;15.5;15.5. EX5;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1158;15. OPTOELECTRONIC DEVICES;15.6;15.6. EX6;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1158;15. OPTOELECTRONIC DEVICES;15.7;15.7. EX7;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1158;15. OPTOELECTRONIC DEVICES;15.8;15.8. EX8;correct;runtime; -377;Semiconductor Physics And Devices(S. S. Islam);1158;15. OPTOELECTRONIC DEVICES;15.9;15.9. EX9;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1031;1. Review of electric circuit theory;1.1;1.1. finding the max power delivered;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1031;1. Review of electric circuit theory;1.2;1.2. Finding the current in the circuit and plot V vs T and I vs T curve;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1031;1. Review of electric circuit theory;1.3;1.3. Finding the value of capacitor;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1031;1. Review of electric circuit theory;1.4;1.4. Determine the line current and phase currents and power absorbed by the load and power dessipated by transmission line;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1031;1. Review of electric circuit theory;1.6;1.6. Determine load current load voltage load power and power factor;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1031;1. Review of electric circuit theory;1.7;1.7. Determine the reading of two wattmeters total power and power factor;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1032;2. Review of basic laws of electromagnetism;2.1;2.1. Find the induced emf in coil;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1032;2. Review of basic laws of electromagnetism;2.10;2.10. Find the percentage of flux setup by coil 1 links coil 2;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1032;2. Review of basic laws of electromagnetism;2.11;2.11. Find the Inductance of each coil mutual inductance and coefficient of coupling;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1032;2. Review of basic laws of electromagnetism;2.12;2.12. Find effective inductance when connected in parallel aiding and parallel opposing;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1032;2. Review of basic laws of electromagnetism;2.13;2.13. Find hysteresis loss and eddy current loss;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1032;2. Review of basic laws of electromagnetism;2.14;2.14. Find the minimum length of magnet for maintaining max energy in air gap;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1032;2. Review of basic laws of electromagnetism;2.6;2.6. Find the magnetic flux density;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1033;3. Principles of Electromechanical Energy Conversion;3.1;3.1. Find the mass of object and energy stored in the feild;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1033;3. Principles of Electromechanical Energy Conversion;3.3;3.3. Find the energy stored in the magnetic feild;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1033;3. Principles of Electromechanical Energy Conversion;3.4;3.4. Find the current in the coil and energy stored in the system;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1033;3. Principles of Electromechanical Energy Conversion;3.5;3.5. Find the current in the coil;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1033;3. Principles of Electromechanical Energy Conversion;3.6;3.6. Find the frequency of induced emf max value of induced emf rms value of induced emf average value of induced emf;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1033;3. Principles of Electromechanical Energy Conversion;3.7;3.7. Find the synchronous speed and percent slip of the motor;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1033;3. Principles of Electromechanical Energy Conversion;3.8;3.8. Find the rotor speed and average torque developed by motor;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1033;3. Principles of Electromechanical Energy Conversion;3.9;3.9. Find the restraining force of the spring;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1080;4. Transformers;4.10;4.10. Find the primary winding voltage secondary winding voltage ratio of transformation and nominal rating of transformer;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1080;4. Transformers;4.11;4.11. Find the efficiency and voltage regulation;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1080;4. Transformers;4.13;4.13. Find the line voltages and line currents and efficiency of the transformer;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1080;4. Transformers;4.14;4.14. Find the line current line voltage and power;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1080;4. Transformers;4.2;4.2. Find the a ratio and current in primary and the power supplied to load and the flux in the core;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1080;4. Transformers;4.3;4.3. Find the efficiency of transformer;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1080;4. Transformers;4.4;4.4. Find the efficiency of transformer;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1080;4. Transformers;4.6;4.6. Find efficiency and voltage regulation of transformer;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1080;4. Transformers;4.7;4.7. Find the KVA rating at max efficiency;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1080;4. Transformers;4.9;4.9. Find the generator voltage generator current and efficiency;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1038;5. Direct Current Generators;5.1;5.1. Find the coil pitch for 2 pole winding and 4 pole winding;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1038;5. Direct Current Generators;5.3;5.3. Find the induced emf in the armature winding induced emf per coil induced emf per turn induced emf per conductor;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1038;5. Direct Current Generators;5.4;5.4. Find the current in each conductor the torque developed the power developed;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1038;5. Direct Current Generators;5.5;5.5. Find induced emf at full load power developed torque developed applied torque efficiency external resistance in feild winding voltage regulation;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1038;5. Direct Current Generators;5.6;5.6. Find Rfx and terminal voltage voltage regulation Efficiency;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1038;5. Direct Current Generators;5.7;5.7. Find the voltage between far end of feeder and bus bar;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1038;5. Direct Current Generators;5.9;5.9. Find maximum efficiency of generator;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1039;6. Direct Current Motors;6.1;6.1. Find armature current at rated load efficiency at full load no of turns per pole new speed of motor and driving torque when armature current reduces;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1039;6. Direct Current Motors;6.3;6.3. Find power developed and speed for cumulative compound motor differential compound motor;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1039;6. Direct Current Motors;6.4;6.4. Find the motor speed power loss in external resistance efficiency;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1039;6. Direct Current Motors;6.5;6.5. Find the new motor speed power loss in external resistance efficiency;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1039;6. Direct Current Motors;6.6;6.6. Find the value of external resistance when motor develops torque of 30 Nm at 2000rpm torque of 30Nm at 715 rpm;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1039;6. Direct Current Motors;6.7;6.7. Find the torque and efficiency of the motor;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1039;6. Direct Current Motors;6.8;6.8. Find the reading on the scale;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1039;6. Direct Current Motors;6.9;6.9. Find the external resistance breaking torque at the instant of plugging when the speed of motor approaches zero;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1040;7. Synchronous Generators;7.10;7.10. Find per phase terminal voltage armature current power supplied total power output;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1040;7. Synchronous Generators;7.2;7.2. Find the pitch factor;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1040;7. Synchronous Generators;7.3;7.3. Find the distribution factor;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1040;7. Synchronous Generators;7.5;7.5. Find the frequency of induced voltage phase voltage line voltage;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1040;7. Synchronous Generators;7.6;7.6. Find the voltage regulation;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1040;7. Synchronous Generators;7.7;7.7. Find the voltage regulation efficiency torque developed;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1040;7. Synchronous Generators;7.8;7.8. Find synchronous reactance per phase and voltage regulation;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1040;7. Synchronous Generators;7.9;7.9. Find the voltage regulation and power developed by the generator;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1041;8. Synchronous motors;8.1;8.1. Find the generated voltage and efficiency of motor;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1041;8. Synchronous motors;8.2;8.2. Find the excitation voltage and power developed;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1041;8. Synchronous motors;8.3;8.3. Find power factor power angle line to line excitation voltage torque developed;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1041;8. Synchronous motors;8.4;8.4. Find the excitation voltage and other parameters;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1041;8. Synchronous motors;8.6;8.6. Find the new armature current and new power factor;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1041;8. Synchronous motors;8.7;8.7. Find the overall power factor and power factor of motor to improve overall power factor;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1094;9. Polyphase Induction Motor;9.1;9.1. Find the synchronous speed and slip and rotor frequency;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1094;9. Polyphase Induction Motor;9.10;9.10. Find the equivalent rotor impedance as reffered to stator;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1094;9. Polyphase Induction Motor;9.2;9.2. Find the efficiency;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1094;9. Polyphase Induction Motor;9.3;9.3. Find the efficiency of the motor;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1094;9. Polyphase Induction Motor;9.4;9.4. Find the max power developed and slip and the torque developed;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1094;9. Polyphase Induction Motor;9.5;9.5. Find the breakdown slip and the breakdown torque and power developed by the motor;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1094;9. Polyphase Induction Motor;9.6;9.6. Find the breakdown slip and the breakdown torque and starting torque and the value of external resistance;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1094;9. Polyphase Induction Motor;9.7;9.7. Find the torque range and current range;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1094;9. Polyphase Induction Motor;9.8;9.8. Find Eqv circuit parameters;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1078;10. Analysis of a single phase induction Motor;10.1;10.1. Find the per unit slip in the direction of rotation and in opposite direction and effective rotor resistance in each branch;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1078;10. Analysis of a single phase induction Motor;10.2;10.2. Find the shaft torque and the efficiency of the motor;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1078;10. Analysis of a single phase induction Motor;10.3;10.3. Find the line current;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1078;10. Analysis of a single phase induction Motor;10.4;10.4. Find the equivalent circuit parameters;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1078;10. Analysis of a single phase induction Motor;10.5;10.5. Find the induced emf in the armature;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1110;11. Synchronous Generator Dynamics;11.7;11.7. Find the rms value of symmetric subtransient and transient currents;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1110;11. Synchronous Generator Dynamics;11.8;11.8. Find per unit power and critical fault clearing time;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1079;12. Permanent magnet motors;12.1;12.1. Find the speed of motor and torque under blocked rotor condition;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1079;12. Permanent magnet motors;12.2;12.2. Find the magnetic flux;correct;runtime; -380;Electric Machinery And Transformers(B. S. Guru And H. R. Hiziroglu);1079;12. Permanent magnet motors;12.3;12.3. Find the developed power and copper loss in the secondary side;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1333;1. The Mass Transfer Operations;1.1;1.1. Conversion of Units;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1334;2. Molecular Diffusion In Fluids;2.1;2.1. Steady State equimolal counterdiffusion;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1334;2. Molecular Diffusion In Fluids;2.2;2.2. Steady state diffusion in multicomponent mixtures;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1334;2. Molecular Diffusion In Fluids;2.3;2.3. Diffusivity of gases;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1334;2. Molecular Diffusion In Fluids;2.4;2.4. Molecular Diffusion in Liquids;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1334;2. Molecular Diffusion In Fluids;2.5;2.5. Diffusivity of Liquids;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1334;2. Molecular Diffusion In Fluids;2.6;2.6. Diffusivity of Liquids;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1335;3. Mass Transfer Coeffecients;3.1;3.1. Mass Transfer Coeffecient in Laminar Flow;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1335;3. Mass Transfer Coeffecients;3.2;3.2. Eddy Diffusion;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1335;3. Mass Transfer Coeffecients;3.3;3.3. Mass Heat And Momentum Transfer Analogies;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1335;3. Mass Transfer Coeffecients;3.4;3.4. Mass Heat And Momentum Transfer Analogies;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1335;3. Mass Transfer Coeffecients;3.5;3.5. Flux Variation with Concentration;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1335;3. Mass Transfer Coeffecients;3.6;3.6. Calculation of Bed depth;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1335;3. Mass Transfer Coeffecients;3.7;3.7. Local rate of condensation;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1335;3. Mass Transfer Coeffecients;3.8;3.8. Simultaneous Heat and Mass Transfer;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1350;4. Diffusion In Solids;4.1;4.1. Ficks Law Diffusion;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1350;4. Diffusion In Solids;4.2;4.2. Unsteady State Diffusion;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1350;4. Diffusion In Solids;4.3;4.3. Diffusion through Polymers;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1350;4. Diffusion In Solids;4.4;4.4. Diffusion in Porous Solids;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1350;4. Diffusion In Solids;4.5;4.5. Diffusion in Porous Solids;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1350;4. Diffusion In Solids;4.6;4.6. Hydrodynamic flow of gases;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1351;5. Interphase Mass Transfer;5.1;5.1. Local overall mass transfer coeffecient;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1351;5. Interphase Mass Transfer;5.2;5.2. Stages and Mass Transfer Rates;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1352;6. Equipment for Gas Liquid Operation;6.1;6.1. Bubble Columns;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1352;6. Equipment for Gas Liquid Operation;6.2;6.2. Mechanical Agitation;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1352;6. Equipment for Gas Liquid Operation;6.3;6.3. Tray Towers;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1352;6. Equipment for Gas Liquid Operation;6.4;6.4. Efficiency of sieve tray;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1352;6. Equipment for Gas Liquid Operation;6.5;6.5. Packing;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1352;6. Equipment for Gas Liquid Operation;6.6;6.6. Mass Transfer Coeffecient for packed towers;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1352;6. Equipment for Gas Liquid Operation;6.7;6.7. Volumetric Coeffecient for packed towers;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1353;7. Humidification Operation;7.1;7.1. Interpolation Between Data;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1353;7. Humidification Operation;7.10;7.10. Lewis Relation;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1353;7. Humidification Operation;7.11;7.11. Adiabatic Operations;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1353;7. Humidification Operation;7.12;7.12. Adiabatic Operations;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1353;7. Humidification Operation;7.13;7.13. Recirculating Liquid Gas Humididification;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1353;7. Humidification Operation;7.14;7.14. Dehumidification Of Air Water Mixture;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1353;7. Humidification Operation;7.15;7.15. Nonadiabatic Operation;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1353;7. Humidification Operation;7.2;7.2. Reference Substance Plots;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1353;7. Humidification Operation;7.3;7.3. Enthalpy;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1353;7. Humidification Operation;7.4;7.4. Vapour Gas Mixture;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1353;7. Humidification Operation;7.5;7.5. Saturated Vapour Gas Mixture;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1353;7. Humidification Operation;7.6;7.6. Air Water System;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1353;7. Humidification Operation;7.7;7.7. Air Water System;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1353;7. Humidification Operation;7.8;7.8. Adiabatic Saturation Curves;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1353;7. Humidification Operation;7.9;7.9. Lewis Relation;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1354;8. Gas Absorption;8.1;8.1. Ideal Liquid Solution;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1354;8. Gas Absorption;8.2;8.2. Minimum Liquid Gas Ratio for absorbers;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1354;8. Gas Absorption;8.3;8.3. Countercurrent Multistage Operation;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1354;8. Gas Absorption;8.4;8.4. Nonisothermal Operation;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1354;8. Gas Absorption;8.5;8.5. Real Trays and Tray Efficiency;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1354;8. Gas Absorption;8.6;8.6. Continuous Contact Equipment;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1354;8. Gas Absorption;8.7;8.7. Overall height of Transfer Units;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1354;8. Gas Absorption;8.8;8.8. Adiabatic Absorption and Stripping;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1354;8. Gas Absorption;8.9;8.9. Multicomponent Sysems;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1356;9. Distillation;9.1;9.1. Raoults law;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1356;9. Distillation;9.10;9.10. Optimum Reflux Ratio McCabe Thiele Method;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1356;9. Distillation;9.11;9.11. Suitable Reflux Ratio;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1356;9. Distillation;9.12;9.12. Dimension of Packed Section;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1356;9. Distillation;9.13;9.13. Multicomponent Systems;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1356;9. Distillation;9.2;9.2. Azeotropes;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1356;9. Distillation;9.3;9.3. Multicomponent Sysems;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1356;9. Distillation;9.4;9.4. Partial Condensation;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1356;9. Distillation;9.5;9.5. Multicomponent Systems Ideal Solution;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1356;9. Distillation;9.6;9.6. Differential Distillation;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1356;9. Distillation;9.7;9.7. Multicomponent Systems Ideal Solution;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1356;9. Distillation;9.8;9.8. Optimum Reflux Ratio;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1356;9. Distillation;9.9;9.9. Use of Open Steam;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1358;10. Liquid Extraction;10.1;10.1. Single Stage Extraction;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1358;10. Liquid Extraction;10.10;10.10. Number Of Transfer Unit Dilute Solutions;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1358;10. Liquid Extraction;10.2;10.2. Insoluble Liquids;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1358;10. Liquid Extraction;10.3;10.3. Continuous Countercurrent Multistage Extraction;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1358;10. Liquid Extraction;10.4;10.4. Continuous Countercurrent Multistage Extraction Insoluble Liquids;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1358;10. Liquid Extraction;10.5;10.5. Continuous Countercurrent Extraction with Reflux;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1358;10. Liquid Extraction;10.6;10.6. Fractional Extraction;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1358;10. Liquid Extraction;10.7;10.7. Stage Type Extractors;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1358;10. Liquid Extraction;10.8;10.8. Sieve Tray Tower;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1358;10. Liquid Extraction;10.9;10.9. Number Of Transfer Unit Dilute Solutions;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1365;11. Adsorption and Ion Exchange;11.1;11.1. Adsorption Equilibria;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1365;11. Adsorption and Ion Exchange;11.10;11.10. Calculation of Bed depth;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1365;11. Adsorption and Ion Exchange;11.11;11.11. Ion Exchange;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1365;11. Adsorption and Ion Exchange;11.2;11.2. Freundlich Equation;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1365;11. Adsorption and Ion Exchange;11.3;11.3. Agitated Vessel for Liquid Solid Contact;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1365;11. Adsorption and Ion Exchange;11.4;11.4. Agitated Power;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1365;11. Adsorption and Ion Exchange;11.5;11.5. Continuous cocurrent adsorption and liquid and solid mass transfer resistances;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1365;11. Adsorption and Ion Exchange;11.6;11.6. Continuous Countercurrent Isothermal Adsorber;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1365;11. Adsorption and Ion Exchange;11.7;11.7. Fractionation;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1365;11. Adsorption and Ion Exchange;11.8;11.8. Unsteady State Fixed Bed Absorbers;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1365;11. Adsorption and Ion Exchange;11.9;11.9. Time Required to reach Breakpoint;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1366;12. Drying;12.1;12.1. Moisture Evaporated;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1366;12. Drying;12.2;12.2. Batch Drying;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1366;12. Drying;12.3;12.3. Time of Drying;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1366;12. Drying;12.4;12.4. Cross Circulation Drying;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1366;12. Drying;12.5;12.5. Drying of Bound Moisture;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1366;12. Drying;12.6;12.6. Constant Rate Period;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1366;12. Drying;12.7;12.7. Material And Enthalpy Balances;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1366;12. Drying;12.8;12.8. Rate of Drying for Continuous Direct Heat Driers;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1366;12. Drying;12.9;12.9. Drying at low temperature;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1367;13. Leaching;13.1;13.1. Unsteady State Operation;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1367;13. Leaching;13.2;13.2. Multistage Crosscurrent Leaching;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1367;13. Leaching;13.3;13.3. Multistage Countercurrent Leaching;correct;runtime; -389;Mass - Transfer Operations(R. E. Treybal);1367;13. Leaching;13.4;13.4. Multistage Countercurrent Leaching;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1268;2. OPTICAL FIBER WAVEGUIDES;2.1;2.1. Determination of Critical Angle NA and Acceptance Angle;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1268;2. OPTICAL FIBER WAVEGUIDES;2.10;2.10. Estimation of fiber core diameter for a single mode step index fiber;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1268;2. OPTICAL FIBER WAVEGUIDES;2.11;2.11. Determination of spot size at the operating wavelength using ESI technique;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1268;2. OPTICAL FIBER WAVEGUIDES;2.12;2.12. Determination of relative refractive index difference using ESI technique;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1268;2. OPTICAL FIBER WAVEGUIDES;2.2;2.2. Determination of NA Solid Acceptance Angle and the Critical Angle;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1268;2. OPTICAL FIBER WAVEGUIDES;2.3;2.3. Comparision of Acceptance Angle for Meridional Rays and Skew Rays;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1268;2. OPTICAL FIBER WAVEGUIDES;2.4;2.4. Estimation of Normalized Frequency and Number of Guided Modes;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1268;2. OPTICAL FIBER WAVEGUIDES;2.5;2.5. Estimation of total number of Guided Modes propagating in the fiber;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1268;2. OPTICAL FIBER WAVEGUIDES;2.6;2.6. Estimation of maximum and new core diameter for given relative refractive index differences;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1268;2. OPTICAL FIBER WAVEGUIDES;2.7;2.7. Estimation of maximum core diameter of an optical fiber which allows single mode operation;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1268;2. OPTICAL FIBER WAVEGUIDES;2.8;2.8. Estimation of cutoff wavelength for a step index fiber to exhibit single mode operation;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1268;2. OPTICAL FIBER WAVEGUIDES;2.9;2.9. Deduction of an approximation for the normalized propagation constant;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1282;3. TRANSMISSION CHARACTERISTICS OF OPTICAL FIBERS;3.1;3.1. Determination of signal attenuation under different cases and numerical input by output power ratio;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1282;3. TRANSMISSION CHARACTERISTICS OF OPTICAL FIBERS;3.10;3.10. Estimation of total RMS pulse broadening and BW Length product;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1282;3. TRANSMISSION CHARACTERISTICS OF OPTICAL FIBERS;3.11;3.11. Comparision of total first order dispersion for the fiber;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1282;3. TRANSMISSION CHARACTERISTICS OF OPTICAL FIBERS;3.12;3.12. Determination of Modal birefringence coherence length and difference between propagation constants;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1282;3. TRANSMISSION CHARACTERISTICS OF OPTICAL FIBERS;3.13;3.13. Determination of fiber birefringence for two given cases;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1282;3. TRANSMISSION CHARACTERISTICS OF OPTICAL FIBERS;3.14;3.14. Determination of mode coupling parameter for the fiber;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1282;3. TRANSMISSION CHARACTERISTICS OF OPTICAL FIBERS;3.2;3.2. Determination of theoretical attenuation per kilometer due to fundamental Rayleigh scattering;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1282;3. TRANSMISSION CHARACTERISTICS OF OPTICAL FIBERS;3.3;3.3. Comparision of threshold optical powers for SBS and SRS;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1282;3. TRANSMISSION CHARACTERISTICS OF OPTICAL FIBERS;3.4;3.4. Estimation of critical radius of curvature;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1282;3. TRANSMISSION CHARACTERISTICS OF OPTICAL FIBERS;3.5;3.5. Estimation of Maximum Bandwidth Pulse dispersion per unit length and BW Length product;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1282;3. TRANSMISSION CHARACTERISTICS OF OPTICAL FIBERS;3.6;3.6. Determination of Material Dispersion Parameter and RMS Pulse Broadening;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1282;3. TRANSMISSION CHARACTERISTICS OF OPTICAL FIBERS;3.7;3.7. Estimation of RMS Pulse Broadening per kilometer for the fiber;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1282;3. TRANSMISSION CHARACTERISTICS OF OPTICAL FIBERS;3.8;3.8. Estimation of Delay Difference RMS Pulse Broadening Maximum Bit Rate and BW Length product;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1282;3. TRANSMISSION CHARACTERISTICS OF OPTICAL FIBERS;3.9;3.9. Comparision of RMS Pulse Broadening per Kilometer for two cases;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1279;4. OPTICAL FIBERS AND CABLES;4.1;4.1. Estimation of fracture stress for the fiber and percentage strain at the break;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1285;5. OPTICAL FIBER CONNECTIONS JOINTS COUPLERS AND ISOLATORS;5.1;5.1. Calculation of the optical loss in decibels at the joint;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1285;5. OPTICAL FIBER CONNECTIONS JOINTS COUPLERS AND ISOLATORS;5.10;5.10. Calculation of the grating period for reflection;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1285;5. OPTICAL FIBER CONNECTIONS JOINTS COUPLERS AND ISOLATORS;5.2;5.2. Estimation of the insertion loss in two given cases;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1285;5. OPTICAL FIBER CONNECTIONS JOINTS COUPLERS AND ISOLATORS;5.3;5.3. Estimation of the insertion loss in two given cases;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1285;5. OPTICAL FIBER CONNECTIONS JOINTS COUPLERS AND ISOLATORS;5.4;5.4. Estimation of the insertion loss in two given cases;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1285;5. OPTICAL FIBER CONNECTIONS JOINTS COUPLERS AND ISOLATORS;5.5;5.5. Estimation of the total insertion loss of the fiber joint with a lateral and angular misalignment;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1285;5. OPTICAL FIBER CONNECTIONS JOINTS COUPLERS AND ISOLATORS;5.6;5.6. Calculation of the loss at the connection due to mode field diameter mismatch;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1285;5. OPTICAL FIBER CONNECTIONS JOINTS COUPLERS AND ISOLATORS;5.7;5.7. Determination of excess loss insertion losses crosstalk and split ratio;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1285;5. OPTICAL FIBER CONNECTIONS JOINTS COUPLERS AND ISOLATORS;5.8;5.8. Determination of excess loss insertion losses crosstalk and split ratio;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1285;5. OPTICAL FIBER CONNECTIONS JOINTS COUPLERS AND ISOLATORS;5.9;5.9. Determination of the insertion loss associated with one typical path;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1314;6. OPTICAL SOURCES 1 THE LASER;6.1;6.1. Calculation of the ratio of stimulated emission rate to the spontaneous emission rate;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1314;6. OPTICAL SOURCES 1 THE LASER;6.2;6.2. Determination of the number of longitudinal modes and their frequency separation in a ruby laser;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1314;6. OPTICAL SOURCES 1 THE LASER;6.3;6.3. Calculation of laser gain coefficient for the cavity;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1314;6. OPTICAL SOURCES 1 THE LASER;6.4;6.4. Comparision of the approximate radiative minority carrier lifetimes in GaAs and Si;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1314;6. OPTICAL SOURCES 1 THE LASER;6.5;6.5. Determination of the threshold current density and the threshold current for the device;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1314;6. OPTICAL SOURCES 1 THE LASER;6.6;6.6. Calculation of external power efficiency of the device;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1314;6. OPTICAL SOURCES 1 THE LASER;6.7;6.7. Comparision of the ratio of threshold current densities at 20 C and 80 C for AlGaAs and InGaAsP;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1314;6. OPTICAL SOURCES 1 THE LASER;6.8;6.8. Determination of RMS value of the power fluctuation and RMS noise current at the output of the detector;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1315;7. OPTICAL SOURCES 2 THE LIGHT EMITTING DIODE;7.1;7.1. Determination of total carrier recombination lifetime and the power internally generated within the device;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1315;7. OPTICAL SOURCES 2 THE LIGHT EMITTING DIODE;7.2;7.2. Calculation of optical power emitted into air as a percentage of internal optical power and the external power efficiency;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1315;7. OPTICAL SOURCES 2 THE LIGHT EMITTING DIODE;7.3;7.3. Calculation of Coupling Efficieny and Optical loss in decibels relative to Pe and Pint;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1315;7. OPTICAL SOURCES 2 THE LIGHT EMITTING DIODE;7.4;7.4. Estimation of the optical power coupled into the fiber;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1315;7. OPTICAL SOURCES 2 THE LIGHT EMITTING DIODE;7.5;7.5. Determination of the overall power conversion efficiency;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1315;7. OPTICAL SOURCES 2 THE LIGHT EMITTING DIODE;7.6;7.6. Comparision of electrical and optical bandwidth for an optical fiber commuication system;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1315;7. OPTICAL SOURCES 2 THE LIGHT EMITTING DIODE;7.7;7.7. Determination of optical output power modulated at frequencies of 20 MHz and 100 MHz;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1315;7. OPTICAL SOURCES 2 THE LIGHT EMITTING DIODE;7.8;7.8. Estimation of the CW operating lifetime for the given LED;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1323;8. OPTICAL DETECTORS;8.1;8.1. Determination of the quantum efficiency and responsivity of the photodiode;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1323;8. OPTICAL DETECTORS;8.2;8.2. Determination of operating wavelength and incident optical power;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1323;8. OPTICAL DETECTORS;8.3;8.3. Determination of wavelength above which an intrinsic photodetector will cease to operate;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1323;8. OPTICAL DETECTORS;8.4;8.4. Determination of drift time of the carriers and junction capacitance of the photodiode;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1323;8. OPTICAL DETECTORS;8.5;8.5. Determination of maximum response time for the device;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1323;8. OPTICAL DETECTORS;8.6;8.6. Calculation of noise equivalent power and specific detectivity for the device;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1323;8. OPTICAL DETECTORS;8.7;8.7. Determination of the multiplication factor of the photodiode;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1323;8. OPTICAL DETECTORS;8.8;8.8. Determination of optical gain of the device and common emitter current gain;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1323;8. OPTICAL DETECTORS;8.9;8.9. Determination of the maximum 3 dB bandwidth permitted by the device;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1331;9. DIRECT DETECTION RECEIVER PERFORMANCE CONSIDERATIONS;9.1;9.1. Determination of the theoretical quantum limit at the receiver and the minimum incident optical power;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1331;9. DIRECT DETECTION RECEIVER PERFORMANCE CONSIDERATIONS;9.2;9.2. Calculation of incident optical power to achieve given SNR;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1331;9. DIRECT DETECTION RECEIVER PERFORMANCE CONSIDERATIONS;9.3;9.3. Comparision of the shot noise generated in the photodetector with the thermal noise in the load resistor;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1331;9. DIRECT DETECTION RECEIVER PERFORMANCE CONSIDERATIONS;9.4;9.4. Determination of SNR at the output of the receiver;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1331;9. DIRECT DETECTION RECEIVER PERFORMANCE CONSIDERATIONS;9.5;9.5. Calculation of maximum load resistance and bandwidth penalty considering amplifier capacitance;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1331;9. DIRECT DETECTION RECEIVER PERFORMANCE CONSIDERATIONS;9.6;9.6. Determination of the maximum SNR improvement;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1331;9. DIRECT DETECTION RECEIVER PERFORMANCE CONSIDERATIONS;9.7;9.7. Determination of the optimum avalanche multiplication factor;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1331;9. DIRECT DETECTION RECEIVER PERFORMANCE CONSIDERATIONS;9.8;9.8. Determination of Maximum bandwidth Mean square thermal noise current for high input impedance and transimpedance amplifier;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1332;10. OPTICAL AMPLIFICATION WAVELENGTH CONVERSION AND REGENERATION;10.1;10.1. Determination of Refractive Index of active medium and 3dB Spectral Bandwidth;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1332;10. OPTICAL AMPLIFICATION WAVELENGTH CONVERSION AND REGENERATION;10.2;10.2. Derivation of an approximate equation for the cavity gain of an SOA;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1332;10. OPTICAL AMPLIFICATION WAVELENGTH CONVERSION AND REGENERATION;10.3;10.3. Determination of the length of the device and the ASE noise signal power at the output of the amplifier;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1332;10. OPTICAL AMPLIFICATION WAVELENGTH CONVERSION AND REGENERATION;10.4;10.4. Determination of the fiber non linear coefficient and the parametric gain in dB when it is reduced to quadratic gain;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1332;10. OPTICAL AMPLIFICATION WAVELENGTH CONVERSION AND REGENERATION;10.5;10.5. Calculation of the frequency chirp variation at the output signal and the differential gain required;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1316;11. INTEGRATED OPTICS AND PHOTONICS;11.1;11.1. Determination of Voltage required to provide pi radians phase change;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1316;11. INTEGRATED OPTICS AND PHOTONICS;11.2;11.2. Determination of Corrugation Period and Filter 3dB Bandwidth;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1316;11. INTEGRATED OPTICS AND PHOTONICS;11.3;11.3. Design of a wavelength channel plan for a dense WDM Interleaver Waveband Filter;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.1;12.1. Determination of bit rate and duration of a Time slot Frame and Multiframe;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.10;12.10. Estimation of ratio of SNR of the coaxial system to the SNR of the fiber system;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.11;12.11. Determination of the average incident optical power required at the receiver;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.12;12.12. Determination of the average incident optical power required to maintain given SNR;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.13;12.13. Determination of the viability of optical power budget and estimation of any possible increase in link length;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.14;12.14. Determination of whether the combination of components gives an adequate temporal response;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.15;12.15. Derivation of an expression for the improvement in post detection SNR and determination of the improvement in post detection SNR and Bandwidth;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.16;12.16. Program to determine the ratio of SNRs of FM IM and PM IM systems;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.17;12.17. Calculation of the optimium receiver bandwidth and the peak to peak signal power to rms noise ratio;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.18;12.18. Formation of comparision showing total channel loss against number of nodes for Bus and Star Distribution Systems;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.19;12.19. Estimation of the maximum system length for satisfactory performance;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.2;12.2. Determination of required electrical and optical SNR;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.20;12.20. Obtain an expression for the total noise figure for the system;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.21;12.21. Calculation of second order dispersion coefficient for L1 and dispersion slope for L2;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.22;12.22. Determination of the separation for the soliton pulses to avoid interaction and the transmission bit rate;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.23;12.23. Determination of the maximum transmission bit rate for the system;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.3;12.3. Estimation of the average number of photons which must be incident on the APD to register a binary one;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.4;12.4. Estimation of incident optical power to register binary 1 at bit rates of 10 Mbps and 140 Mbps;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.5;12.5. Determination of the total channel loss ignoring dispersion;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.6;12.6. Estimation of the dispersion equalization penalty for bit given rates;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.7;12.7. Estimation of the maximum bit rate that may be achieved on the link when using NRZ format;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.8;12.8. Estimation of maximum possible link length without repeaters when operating at 35 Mbps and 400 Mbps;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1336;12. OPTICAL FIBER SYSTEMS 1 INTENSITY MODULATION AND DIRECT DETECTION;12.9;12.9. Determination of the viability of optical power budget;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1325;13. OPTICAL FIBER SYSTEMS 2 COHERENT AND PHASE MODULATED;13.1;13.1. Estimation of the maximum temperature change that could be allowed for the local oscillator laser;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1325;13. OPTICAL FIBER SYSTEMS 2 COHERENT AND PHASE MODULATED;13.2;13.2. Determination of the operating bandwidth of the receiver;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1325;13. OPTICAL FIBER SYSTEMS 2 COHERENT AND PHASE MODULATED;13.3;13.3. Calculation of the number of received photons per bit for different detection schemes;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1325;13. OPTICAL FIBER SYSTEMS 2 COHERENT AND PHASE MODULATED;13.4;13.4. Calculation of the minimum incoming power level;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1325;13. OPTICAL FIBER SYSTEMS 2 COHERENT AND PHASE MODULATED;13.5;13.5. Calculation of the absolute maximum repeater spacing for different ideal receiver types;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1325;13. OPTICAL FIBER SYSTEMS 2 COHERENT AND PHASE MODULATED;13.6;13.6. Estimation of the minimum transmitter power requirement for an optical coherent WDM;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1313;14. OPTICAL FIBER MEASUREMENTS;14.1;14.1. Determination of the attenuation for the fiber and estimation of accuracy of the result;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1313;14. OPTICAL FIBER MEASUREMENTS;14.2;14.2. Determination of the absorption loss for the fiber under test;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1313;14. OPTICAL FIBER MEASUREMENTS;14.3;14.3. Determination of the loss due to scattering for the fiber;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1313;14. OPTICAL FIBER MEASUREMENTS;14.4;14.4. Calculation of 3 dB Pulse Broadening and Fiber Bandwidth Length product;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1313;14. OPTICAL FIBER MEASUREMENTS;14.5;14.5. Calculation of the Numerical Aperture of the fiber;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1313;14. OPTICAL FIBER MEASUREMENTS;14.6;14.6. Determination of the outer diameter of the optical fiber in micrometer;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1313;14. OPTICAL FIBER MEASUREMENTS;14.7;14.7. Conversion of optical signal powers to dBm and dBu;correct;runtime; -401;Optical Fiber Communications - Principles And Practice(J. M. Senior);1313;14. OPTICAL FIBER MEASUREMENTS;14.8;14.8. Calculation of the ratio of back scattered optical power to the forward optical power;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1339;1. Introduction;1.1;1.1. conduction through copper plate;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1339;1. Introduction;1.2;1.2. convection calculation;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1339;1. Introduction;1.3;1.3. multimode heat transfer;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1339;1. Introduction;1.4;1.4. heat source and convection;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1339;1. Introduction;1.5;1.5. radiation heat transfer;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1339;1. Introduction;1.6;1.6. total heat loss by convection and radiation;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1340;2. Steady State Conduction One Dimension;2.1;2.1. multilayer conduction;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1340;2. Steady State Conduction One Dimension;2.10;2.10. rod with heat sources;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1340;2. Steady State Conduction One Dimension;2.11;2.11. influence of contact conductance on heat transfer;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1340;2. Steady State Conduction One Dimension;2.2;2.2. multilayer cylindrical system;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1340;2. Steady State Conduction One Dimension;2.3;2.3. heat transfer through a composite wall;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1340;2. Steady State Conduction One Dimension;2.4;2.4. overall heat transfer coefficient for a tube;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1340;2. Steady State Conduction One Dimension;2.5;2.5. critical insulation thickness;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1340;2. Steady State Conduction One Dimension;2.6;2.6. heat source with convection;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1340;2. Steady State Conduction One Dimension;2.7;2.7. influence of thermal conductivity on fin temperature profiles;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1340;2. Steady State Conduction One Dimension;2.8;2.8. straight aluminium fin;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1340;2. Steady State Conduction One Dimension;2.9;2.9. circumferential aluminium fin;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1341;3. Steady State Conduction Multiple Dimension;3.1;3.1. buried pipe;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1341;3. Steady State Conduction Multiple Dimension;3.11;3.11. use of variable mesh size;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1341;3. Steady State Conduction Multiple Dimension;3.12;3.12. Three dimensional numerical formulation;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1341;3. Steady State Conduction Multiple Dimension;3.2;3.2. cubical furnace;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1341;3. Steady State Conduction Multiple Dimension;3.3;3.3. buried disk;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1341;3. Steady State Conduction Multiple Dimension;3.4;3.4. buried parallel disk;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1341;3. Steady State Conduction Multiple Dimension;3.5;3.5. Nine node problem;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1341;3. Steady State Conduction Multiple Dimension;3.6;3.6. Gauss seidal calculation;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1341;3. Steady State Conduction Multiple Dimension;3.7;3.7. numerical formulation with heat generation;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1341;3. Steady State Conduction Multiple Dimension;3.8;3.8. heat generation with non uniform nodal elements;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1342;4. Unsteady State Conduction;4.1;4.1. steel ball cooling in air;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1342;4. Unsteady State Conduction;4.10;4.10. heat loss for finite length cylinder;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1342;4. Unsteady State Conduction;4.12;4.12. implicit formulation;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1342;4. Unsteady State Conduction;4.2;4.2. Semi infinite solid with sudden change in surface conditions;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1342;4. Unsteady State Conduction;4.3;4.3. pulsed energy at surface of semi infinite solid;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1342;4. Unsteady State Conduction;4.4;4.4. heat removal from semi infinite solid;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1342;4. Unsteady State Conduction;4.5;4.5. sudden exposure of semi infinite solid slab to convection;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1342;4. Unsteady State Conduction;4.6;4.6. aluminium plate suddenly exposed to convection;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1342;4. Unsteady State Conduction;4.7;4.7. long cylinder suddenly exposed to convection;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1342;4. Unsteady State Conduction;4.8;4.8. semi infinite cylinder suddenly exposed to convection;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1342;4. Unsteady State Conduction;4.9;4.9. finite length cylinder suddenly exposed to convection;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1343;5. Principles of Convection;5.1;5.1. water flow in a diffuser;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1343;5. Principles of Convection;5.10;5.10. turbulent boundary layer thickness;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1343;5. Principles of Convection;5.11;5.11. high speed heat transfer for a flat plate;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1343;5. Principles of Convection;5.2;5.2. isentropic expansion of air;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1343;5. Principles of Convection;5.3;5.3. mass flow and boundary layer thickness;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1343;5. Principles of Convection;5.4;5.4. isothermal flat plate heated over entire length;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1343;5. Principles of Convection;5.5;5.5. flat plate with constant heat flux;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1343;5. Principles of Convection;5.6;5.6. plate with unheated starting length;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1343;5. Principles of Convection;5.7;5.7. oil flow over heated flat plate;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1343;5. Principles of Convection;5.8;5.8. drag force on a flat plate;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1343;5. Principles of Convection;5.9;5.9. turbulent heat transfer from isothermal flat plate;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1344;6. Empirical and Practical Relations for Forced Convection Heat Transfer;6.1;6.1. turbulent heat transfer in a tube;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1344;6. Empirical and Practical Relations for Forced Convection Heat Transfer;6.10;6.10. heating of air with in line tube bank;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1344;6. Empirical and Practical Relations for Forced Convection Heat Transfer;6.11;6.11. alternate calculation method;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1344;6. Empirical and Practical Relations for Forced Convection Heat Transfer;6.12;6.12. heating of liquid bismuth in tube;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1344;6. Empirical and Practical Relations for Forced Convection Heat Transfer;6.2;6.2. heating of water in laminar tube flow;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1344;6. Empirical and Practical Relations for Forced Convection Heat Transfer;6.3;6.3. heating of air in laminar tube flow for constant heat flux;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1344;6. Empirical and Practical Relations for Forced Convection Heat Transfer;6.4;6.4. heating of air with isothermal tube wall;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1344;6. Empirical and Practical Relations for Forced Convection Heat Transfer;6.5;6.5. heat transfer in a rough tube;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1344;6. Empirical and Practical Relations for Forced Convection Heat Transfer;6.6;6.6. turbulent heat transfer in a short tube;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1344;6. Empirical and Practical Relations for Forced Convection Heat Transfer;6.7;6.7. airflow across isothermal cylinder;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1344;6. Empirical and Practical Relations for Forced Convection Heat Transfer;6.8;6.8. heat transfer from electrically heated;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1344;6. Empirical and Practical Relations for Forced Convection Heat Transfer;6.9;6.9. heat transfer from sphere;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1345;7. Natural Convection Systems;7.1;7.1. constant heat flux from vertical plate;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1345;7. Natural Convection Systems;7.10;7.10. heat transfer across water layer;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1345;7. Natural Convection Systems;7.11;7.11. reduction of convection in ar gap;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1345;7. Natural Convection Systems;7.12;7.12. heat transfer across evacuated space;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1345;7. Natural Convection Systems;7.13;7.13. combined free and forced convection with air;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1345;7. Natural Convection Systems;7.2;7.2. heat transfer from isothermal vertical plate;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1345;7. Natural Convection Systems;7.3;7.3. heat transfer from horizontal tube in water;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1345;7. Natural Convection Systems;7.4;7.4. heat transfer from fine wire in air;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1345;7. Natural Convection Systems;7.5;7.5. heated horizontal pipe in air;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1345;7. Natural Convection Systems;7.6;7.6. cube cooling in air;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1345;7. Natural Convection Systems;7.7;7.7. calculation with simplified relations;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1345;7. Natural Convection Systems;7.8;7.8. heat transfer across vertical air gap;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1345;7. Natural Convection Systems;7.9;7.9. heat transfer across horizontal air gap;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.1;8.1. transmission and absorption in a gas plate;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.10;8.10. heat transfer reduction with parallel plate shield;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.11;8.11. open cylindrical shield in large room;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.12;8.12. network for gas radiation between parallel plates;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.13;8.13. cavity with transparent cover;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.14;8.14. Transmitting and reflecting system for furnace opening;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.15;8.15. numerical solution for enclosure;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.16;8.16. numerical solution for parallel plates;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.17;8.17. radiation from a hole with variable radiosity;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.18;8.18. heater with constant heat flux and surrounding shields;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.19;8.19. numerical solution for combined convection and radiation non linear system;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.2;8.2. heat transfer between black surfaces;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.20;8.20. solar environment equilibrium temperatures;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.21;8.21. influence of convection on solar equilibrium temperature;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.23;8.23. temperature measurement error caused by radiation;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.3;8.3. shape factor algebra for open ends of cylinder;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.4;8.4. shape factor algebra for truncated cone;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.5;8.5. shape factor algebra for cylindrical reflactor;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.6;8.6. hot plates enclosed by a room;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.7;8.7. surface in radiant balance;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.8;8.8. open hemisphere in large room;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1346;8. Radiation Heat Transfer;8.9;8.9. effective emissivity of finned surface;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1347;9. Condensation and Boiling Heat Transfer;9.1;9.1. condensation on vertical plate;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1347;9. Condensation and Boiling Heat Transfer;9.2;9.2. condensation on tube tank;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1347;9. Condensation and Boiling Heat Transfer;9.3;9.3. boiling on brass plate;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1347;9. Condensation and Boiling Heat Transfer;9.4;9.4. Flow boiling;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1347;9. Condensation and Boiling Heat Transfer;9.5;9.5. water boiling in a pan;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1347;9. Condensation and Boiling Heat Transfer;9.6;9.6. heat flux comparisons;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1349;10. Heat Exchangers;10.1;10.1. overall heat transfer coefficient for pipe in air;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1349;10. Heat Exchangers;10.10;10.10. off design calculation of exchanger in example 10 4;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1349;10. Heat Exchangers;10.11;10.11. cross flow exchanger with both fluid unmixed;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1349;10. Heat Exchangers;10.12;10.12. comparison of single or two exchanger options;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1349;10. Heat Exchangers;10.13;10.13. shell and tube exchangeras air heater;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1349;10. Heat Exchangers;10.14;10.14. ammonia condenser;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1349;10. Heat Exchangers;10.15;10.15. crossflow exchanger as energy conservation device;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1349;10. Heat Exchangers;10.16;10.16. heat transfer coefficient in compact exchanger;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1349;10. Heat Exchangers;10.17;10.17. transient response of thermal energy storage system;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1349;10. Heat Exchangers;10.18;10.18. variable properties analysis of a duct heater;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1349;10. Heat Exchangers;10.2;10.2. overall heat transfer coefficient for pipe exposed to steam;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1349;10. Heat Exchangers;10.3;10.3. influence of fouling factor;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1349;10. Heat Exchangers;10.4;10.4. calculation of heat exchanger size from known temperatures;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1349;10. Heat Exchangers;10.5;10.5. shell and tube heat exchanger;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1349;10. Heat Exchangers;10.6;10.6. design of shell and tube heat exchanger;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1349;10. Heat Exchangers;10.7;10.7. cross flow exchanger with one fluid mixed;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1349;10. Heat Exchangers;10.8;10.8. effects of off design flow rates for exchanger in previous example;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1349;10. Heat Exchangers;10.9;10.9. off design calculation using E NTU method;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1348;11. Mass Transfer;11.1;11.1. diffusion coefficient for co2;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1348;11. Mass Transfer;11.2;11.2. diffusion coefficient for co2;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1348;11. Mass Transfer;11.3;11.3. Wet bulb temperature;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1348;11. Mass Transfer;11.4;11.4. relative humidity of air stream;correct;runtime; -405;Heat Transfer (In SI Units)(J. P. Holman);1348;11. Mass Transfer;11.5;11.5. water evaporation rate;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1289;1. Dimensions units and their conversion;1.1;1.1. Dimensions and Units;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1289;1. Dimensions units and their conversion;1.2;1.2. Conversion of Units;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1289;1. Dimensions units and their conversion;1.3;1.3. Nanotechnology;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1289;1. Dimensions units and their conversion;1.4;1.4. A conversion involving lbm and lbf;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1289;1. Dimensions units and their conversion;1.5;1.5. Conversion associated with Biological Materials;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1289;1. Dimensions units and their conversion;1.6;1.6. Dimensional Consistency;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1289;1. Dimensions units and their conversion;1.7;1.7. Dimensional Consistency;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1289;1. Dimensions units and their conversion;1.8;1.8. Retention of significant Figures;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1289;1. Dimensions units and their conversion;1.9;1.9. Micro dissection of DNA;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1290;2. Moles Density and Concentration;2.1;2.1. Calculation of Molecular Weight;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1290;2. Moles Density and Concentration;2.10;2.10. Evaluation of Alternate Processes for the Production of Methyl Methacrylate;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1290;2. Moles Density and Concentration;2.2;2.2. Use of Molecular Weight to Convert Mass to Moles;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1290;2. Moles Density and Concentration;2.3;2.3. Use of Molecular Weight to Convert Moles to Mass;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1290;2. Moles Density and Concentration;2.4;2.4. Calculation of Density;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1290;2. Moles Density and Concentration;2.5;2.5. Calculation of Mass and Moles;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1290;2. Moles Density and Concentration;2.6;2.6. Conversion between Mass Fraction and Mole Fraction;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1290;2. Moles Density and Concentration;2.7;2.7. Nitrogen Requirements for the Growth of Cells;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1290;2. Moles Density and Concentration;2.8;2.8. Use of ppm;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1290;2. Moles Density and Concentration;2.9;2.9. Calculation of Mole Fraction and ppm from a Concentration;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1291;3. Choosing a Basis;3.1;3.1. Choosing a Basis;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1291;3. Choosing a Basis;3.2;3.2. Choosing a Basis;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1291;3. Choosing a Basis;3.3;3.3. Choosing a Basis for Cell Growth;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1291;3. Choosing a Basis;3.4;3.4. Calculation of the Mass Fraction of the Components in Nanoparticles;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1291;3. Choosing a Basis;3.5;3.5. Changing Bases;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1292;4. Temperature;4.1;4.1. Temperature Conversion;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1292;4. Temperature;4.2;4.2. Temperature Conversion;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1293;5. Pressure;5.1;5.1. Pressure Conversion;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1293;5. Pressure;5.2;5.2. Pressure Conversion;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1293;5. Pressure;5.3;5.3. Vacuum Pressure Reading;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1293;5. Pressure;5.4;5.4. Calculation of Pressure Difference;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1293;5. Pressure;5.5;5.5. Pressure Conversion;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1294;6. Introduction to Material Balances;6.1;6.1. A Material Balance for the blending of Gasoline;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1294;6. Introduction to Material Balances;6.2;6.2. Concentration of cells using a Centrifuge;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1294;6. Introduction to Material Balances;6.3;6.3. Discharge of Tank Residuals to the Environment;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1295;7. A General Strategy for Solving Material Balance Problems;7.1;7.1. Understanding the Problem;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1295;7. A General Strategy for Solving Material Balance Problems;7.2;7.2. Drawing a Sketch of a Mixing Process;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1295;7. A General Strategy for Solving Material Balance Problems;7.3;7.3. Placing the unknown Information on the Diagram;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1295;7. A General Strategy for Solving Material Balance Problems;7.4;7.4. Analyisis of the Degrees of Freedom;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1295;7. A General Strategy for Solving Material Balance Problems;7.5;7.5. Analysis of Degree of Freedom in the Production of Biomass;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1296;8. Solving Material Balance Problems for Single Units without Reaction;8.1;8.1. Extraction of Streptomycin from a Fermentation Broth;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1296;8. Solving Material Balance Problems for Single Units without Reaction;8.2;8.2. Separation of gases Using a Membrane;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1296;8. Solving Material Balance Problems for Single Units without Reaction;8.3;8.3. Overall analysis for a continuous Distillation Column;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1296;8. Solving Material Balance Problems for Single Units without Reaction;8.4;8.4. Mixing of Battery Acid;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1296;8. Solving Material Balance Problems for Single Units without Reaction;8.5;8.5. Drying;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1296;8. Solving Material Balance Problems for Single Units without Reaction;8.6;8.6. Crystallizaton;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1296;8. Solving Material Balance Problems for Single Units without Reaction;8.7;8.7. Hemodialysis;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1297;9. The Chemical Reaction Equation and Stoichiometry;9.1;9.1. Balancing a reaction for a Biological Reaction;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1297;9. The Chemical Reaction Equation and Stoichiometry;9.2;9.2. Use of Chemical Reaction to Calculate the Mass of Reactants given the Mass of Products;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1297;9. The Chemical Reaction Equation and Stoichiometry;9.3;9.3. Application of Stoichiometry when more than one Reaction occurs;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1297;9. The Chemical Reaction Equation and Stoichiometry;9.4;9.4. Calculation of extent of Reaction;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1297;9. The Chemical Reaction Equation and Stoichiometry;9.5;9.5. Calculation of Limiting and Excess Reactants;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1297;9. The Chemical Reaction Equation and Stoichiometry;9.6;9.6. Yeilds in the Reaction of Glucose to produce Ethanol;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1297;9. The Chemical Reaction Equation and Stoichiometry;9.7;9.7. Selectivity in the Production of Nanotubes;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1297;9. The Chemical Reaction Equation and Stoichiometry;9.8;9.8. Calculation of various terms Pertaning to Reaction;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1298;10. Material Balances for Processes Involving Reaction;10.1;10.1. Reaction in which Fraction Conversion is specified;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1298;10. Material Balances for Processes Involving Reaction;10.2;10.2. A reaction in which Fraction Conversion is to be Calculated;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1298;10. Material Balances for Processes Involving Reaction;10.3;10.3. Material Balances for Process in which two Simultaneous Reactions Occur;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1298;10. Material Balances for Processes Involving Reaction;10.4;10.4. Analysis of Bioreactor;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1298;10. Material Balances for Processes Involving Reaction;10.5;10.5. Solution using Elemental Balances;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1298;10. Material Balances for Processes Involving Reaction;10.6;10.6. Use of Elemental Balance to Solve a Hydrocracking Problem;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1298;10. Material Balances for Processes Involving Reaction;10.7;10.7. Excesss Air;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1298;10. Material Balances for Processes Involving Reaction;10.8;10.8. A Fuel Cell to generate Electricity from Methane;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1298;10. Material Balances for Processes Involving Reaction;10.9;10.9. Combustion of Coal;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1299;11. Material Balance Problems involving Multiple Units;11.1;11.1. Determination of the Number of Independent Material Balance in a process with Multiple Units;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1299;11. Material Balance Problems involving Multiple Units;11.2;11.2. Material Balances for Multiple Units in which no Reaction occurs;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1299;11. Material Balance Problems involving Multiple Units;11.3;11.3. Material Balance for problems Involving Multiple units and Reactions;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1299;11. Material Balance Problems involving Multiple Units;11.4;11.4. Analysis of Sugar Recovery Process involving Multiple Serial Units;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1299;11. Material Balance Problems involving Multiple Units;11.5;11.5. Production of a Hormone in connected Reactor;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1300;12. Recycle Bypass Purge and the Industrial Application of Material Balance;12.1;12.1. A Continuous Crystallizer involving a Recycle Stream;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1300;12. Recycle Bypass Purge and the Industrial Application of Material Balance;12.2;12.2. Recycle in a Process in Which Reaction Occurs;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1300;12. Recycle Bypass Purge and the Industrial Application of Material Balance;12.3;12.3. Recycle in a Process with a Reaction Occurring;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1300;12. Recycle Bypass Purge and the Industrial Application of Material Balance;12.4;12.4. A Bioreactor with Recycle;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1300;12. Recycle Bypass Purge and the Industrial Application of Material Balance;12.5;12.5. Bypass Calculation;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1300;12. Recycle Bypass Purge and the Industrial Application of Material Balance;12.6;12.6. Purge;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1301;13. Ideal Gases;13.1;13.1. Use of Standard Conditions to Calculate Volume from Mass;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1301;13. Ideal Gases;13.2;13.2. Calculation of R using the Standard Conditions;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1301;13. Ideal Gases;13.3;13.3. Application of Ideal Gas Law to Calculate Volume;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1301;13. Ideal Gases;13.4;13.4. Calculation of Gas Density;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1301;13. Ideal Gases;13.5;13.5. Calculation of Specific Gravity of a Gas;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1301;13. Ideal Gases;13.6;13.6. Calculation of the Partial Pressures of the Components in a Gas;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1301;13. Ideal Gases;13.7;13.7. Material Balance for a Process Involving Combustion;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1301;13. Ideal Gases;13.8;13.8. Material Balance without Reaction;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1302;14. Real Gases Compressiblity;14.1;14.1. Use of Compressiblity Factor to Calculate a Specific Volume;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1302;14. Real Gases Compressiblity;14.2;14.2. Use of Compressiblity Factor to Calculate Pressure;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1302;14. Real Gases Compressiblity;14.3;14.3. Calculation of Properties of Real Gas Mixture;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1303;15. Real Gases Equations of State;15.1;15.1. Application of Van der Walls Equation to Calculate a Temperature;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1303;15. Real Gases Equations of State;15.2;15.2. Solution of van der Waals Equation for V;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1304;16. Single Component Two Phase Systems;16.1;16.1. Vaporization of Metals for Thin Film Deposition;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1304;16. Single Component Two Phase Systems;16.2;16.2. Interpolating in Steam Tables;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1304;16. Single Component Two Phase Systems;16.3;16.3. Extrapolation of Vapour Pressure data;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1304;16. Single Component Two Phase Systems;16.4;16.4. Solvent selection based on OSHA PEL Limits and Potential Hazard;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1305;17. Two Phase Gas Liquid Systems Saturation Condensation and Vaporization;17.1;17.1. Calculation of Dew Point of the Products of Combustion;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1305;17. Two Phase Gas Liquid Systems Saturation Condensation and Vaporization;17.2;17.2. Condensation of Benzene from a Vapour Recovery Unit;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1305;17. Two Phase Gas Liquid Systems Saturation Condensation and Vaporization;17.3;17.3. Smokestack Emissions and Pollution;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1305;17. Two Phase Gas Liquid Systems Saturation Condensation and Vaporization;17.4;17.4. Material Balance involving Condensation;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1305;17. Two Phase Gas Liquid Systems Saturation Condensation and Vaporization;17.5;17.5. Vaporization to Saturate Dry air;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1305;17. Two Phase Gas Liquid Systems Saturation Condensation and Vaporization;17.6;17.6. Vaporization of a Hazardous Component of an Oil Slick;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1306;18. Two Phase Gas Liquid Systems Partial Saturation and Humidity;18.1;18.1. Application of Relative Humidity to Calculate the Dew Point;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1306;18. Two Phase Gas Liquid Systems Partial Saturation and Humidity;18.2;18.2. Calculation involving Various Partial Saturation Terms;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1306;18. Two Phase Gas Liquid Systems Partial Saturation and Humidity;18.3;18.3. Dehydration of Moist air;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1306;18. Two Phase Gas Liquid Systems Partial Saturation and Humidity;18.4;18.4. Humidification of Air;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1306;18. Two Phase Gas Liquid Systems Partial Saturation and Humidity;18.5;18.5. Condensation of Water from air;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1307;19. The Phase Rule and Vapor Liquid Equilibria;19.1;19.1. Applications of Phase Rule to Systems without Reaction;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1307;19. The Phase Rule and Vapor Liquid Equilibria;19.2;19.2. Application of the Phase Rule to Systems in which Reactions can Occur;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1307;19. The Phase Rule and Vapor Liquid Equilibria;19.3;19.3. Bubble Point Calculation;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1307;19. The Phase Rule and Vapor Liquid Equilibria;19.4;19.4. Flash Calculation for a Binary Liquid Mixture;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1307;19. The Phase Rule and Vapor Liquid Equilibria;19.5;19.5. Seperation of Virus from a Culture;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1308;20. Liquid and Gases in Equilibrium with Solids;20.1;20.1. Fitting Adsorption Isotherms to Experimental Data;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1308;20. Liquid and Gases in Equilibrium with Solids;20.2;20.2. Seperation of Biochemicals by Solvent Extraction;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1308;20. Liquid and Gases in Equilibrium with Solids;20.3;20.3. Combination of an Adsorption Isotherm with a Material Balance;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1309;21. Energy Terminology Concepts and Units;21.1;21.1. Calculation of Mechanical Work by a Gas on a Piston Showing How the Path affects the Value of the Work;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1309;21. Energy Terminology Concepts and Units;21.2;21.2. Calculation of the Specific Kinetic Energy for a Flowing Fluid;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1309;21. Energy Terminology Concepts and Units;21.3;21.3. Calculation of Potential Energy Change in Water;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1309;21. Energy Terminology Concepts and Units;21.4;21.4. Calculation of Internal Energy Change using the Heat Capacity;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1309;21. Energy Terminology Concepts and Units;21.5;21.5. Calculation of Internal Energy Change using Different Paths;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1309;21. Energy Terminology Concepts and Units;21.6;21.6. Calculation of the Change in Enthalpy by two Different Paths;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1309;21. Energy Terminology Concepts and Units;21.7;21.7. Calculation of an Enthalpy Change;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1310;22. Introduction to Energy Balances for Process without Reaction;22.1;22.1. Application of the Energy Balance to a Closed System;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1310;22. Introduction to Energy Balances for Process without Reaction;22.2;22.2. Calculation of delta U using American Engineering Units;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1310;22. Introduction to Energy Balances for Process without Reaction;22.3;22.3. Energy Balance to analyze an Open Unsteady State System;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1310;22. Introduction to Energy Balances for Process without Reaction;22.4;22.4. Application of Energy Balance to an Open Steady State System;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1310;22. Introduction to Energy Balances for Process without Reaction;22.5;22.5. Calculation of Power needed to Pump Water;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1311;23. Calculation of Enthalpy Changes;23.1;23.1. Graph Showing the Heat of Vaporization of Water;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1311;23. Calculation of Enthalpy Changes;23.2;23.2. Comparision of Various Sources to Estimate the Heat of Vapourization;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1311;23. Calculation of Enthalpy Changes;23.3;23.3. Conversion of Units in a Heat Capacity Equation;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1311;23. Calculation of Enthalpy Changes;23.4;23.4. Fitting Heat Capacity Equation to Heat Capacity Data;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1311;23. Calculation of Enthalpy Changes;23.5;23.5. Calculation of Change in Specific Enthalpy for a Gas Mixture using Heat Capacity Equations for Each Component;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1311;23. Calculation of Enthalpy Changes;23.6;23.6. Calculation of the Change in Enthalpy for a Gas using Tabulated Enthalpy Values;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1311;23. Calculation of Enthalpy Changes;23.7;23.7. Use of Steam Tables to Calculate Change in Enthalpy;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1311;23. Calculation of Enthalpy Changes;23.8;23.8. Use of Steam Table when a Phase Change is involved to Calculate the final State of Water;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1311;23. Calculation of Enthalpy Changes;23.9;23.9. Calculate Enthalpy Difference betwee two States by Pressure Enthalpy Chart for Butane;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1317;24. Applications of Energy Balances in the Absence of Chemical Reactions;24.1;24.1. Simplification of General Energy Balance;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1317;24. Applications of Energy Balances in the Absence of Chemical Reactions;24.2;24.2. Degree of Freedom Analysis Including an Energy Balance;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1317;24. Applications of Energy Balances in the Absence of Chemical Reactions;24.3;24.3. Application of Energy Balance;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1317;24. Applications of Energy Balances in the Absence of Chemical Reactions;24.4;24.4. Applications of Energy Balance to Plasma Etching;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1317;24. Applications of Energy Balances in the Absence of Chemical Reactions;24.5;24.5. Energy Balance applied to a Batch Process;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1317;24. Applications of Energy Balances in the Absence of Chemical Reactions;24.6;24.6. Applications of Energy Balance to Pumping Water;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1317;24. Applications of Energy Balances in the Absence of Chemical Reactions;24.7;24.7. Applications of Energy Balance to Heating a Biomass;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1317;24. Applications of Energy Balances in the Absence of Chemical Reactions;24.8;24.8. Sterilization of a Fermentation Medium;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1317;24. Applications of Energy Balances in the Absence of Chemical Reactions;24.9;24.9. Use of Combined Material and Energy Balances to Solve a Distillation Problem;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1318;25. Energy Balances How to Account for Chemical Reaction;25.1;25.1. Determination of a Heat of Formation from Heat Transfer Measurements;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1318;25. Energy Balances How to Account for Chemical Reaction;25.10;25.10. Heating Value of Coal;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1318;25. Energy Balances How to Account for Chemical Reaction;25.11;25.11. Selecting a Fuel to reduce SO2 emissions;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1318;25. Energy Balances How to Account for Chemical Reaction;25.2;25.2. Retrieval of Heats of Formation from Reference Data;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1318;25. Energy Balances How to Account for Chemical Reaction;25.3;25.3. Calculation of the Standard Heat of Reaction from the Standard Heats of Formation;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1318;25. Energy Balances How to Account for Chemical Reaction;25.4;25.4. Calculation of the Heat of Reaction at a Temperature different from the Standard Conditions;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1318;25. Energy Balances How to Account for Chemical Reaction;25.5;25.5. Calculation of the Heat Transfer using Heat of Reaction in a Process in which Reactants enter and Products leave at Different Temperatures;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1318;25. Energy Balances How to Account for Chemical Reaction;25.6;25.6. Calculation of the Enthalpy Change in an Anerobic Culture;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1318;25. Energy Balances How to Account for Chemical Reaction;25.7;25.7. Green Chemistry Examining Alternate Processes;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1318;25. Energy Balances How to Account for Chemical Reaction;25.8;25.8. Calculation of the Heat of Reaction at a Temperature different from the Standard Conditions with Heat of Formation Merged with Sensible Heat;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1318;25. Energy Balances How to Account for Chemical Reaction;25.9;25.9. Calculation of the Heat Transfer when Reactants enter and Products leave at Different Temperatures;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1319;26. Energy Balances that include the Effects of Chemical Reaction;26.1;26.1. Analysis of the Degrees of Freedom for a Combustion Process;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1319;26. Energy Balances that include the Effects of Chemical Reaction;26.2;26.2. Calculation of Flame Temperature;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1319;26. Energy Balances that include the Effects of Chemical Reaction;26.3;26.3. Application of general Energy Balance in a Process in which More than one Reaction Occurs;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1319;26. Energy Balances that include the Effects of Chemical Reaction;26.4;26.4. Application of general Energy Balance in a Process Composed of Multiple Units;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1319;26. Energy Balances that include the Effects of Chemical Reaction;26.5;26.5. Production of Citric Acid by Fungus;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1320;27. Ideal Processes Efficiency and the Mechanical Energy Balance;27.1;27.1. Calculation of the Work done during Evaporation of a Liquid;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1320;27. Ideal Processes Efficiency and the Mechanical Energy Balance;27.2;27.2. Calculation of Work in a Batch Process;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1320;27. Ideal Processes Efficiency and the Mechanical Energy Balance;27.3;27.3. Efficiency of Power Generation by a Hydroelectric Plant;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1320;27. Ideal Processes Efficiency and the Mechanical Energy Balance;27.4;27.4. Calculation of Plant Efficiency;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1320;27. Ideal Processes Efficiency and the Mechanical Energy Balance;27.5;27.5. Comparison of the Reversible Work for a Batch Process with that of a Flow Operating under Same Conditions;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1320;27. Ideal Processes Efficiency and the Mechanical Energy Balance;27.6;27.6. Application of the Mechanical Energy Balance to the Pumping of Water;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1321;28. Heats of Solution and Mixing;28.1;28.1. Application of Heats of Solution data;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1321;28. Heats of Solution and Mixing;28.2;28.2. Application of Heat of Solution Data;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1321;28. Heats of Solution and Mixing;28.3;28.3. Application of an Enthalpy Concentration Chart;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1322;29. Humidity Charts and their Uses;29.1;29.1. Determining Properties of Moist air from Humidity Chart;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1322;29. Humidity Charts and their Uses;29.2;29.2. Heating at constant Humidity;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1322;29. Humidity Charts and their Uses;29.3;29.3. Cooling and Humidification using a Water Spray;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1322;29. Humidity Charts and their Uses;29.4;29.4. Combined Material and Energy Balance for a Cooling Tower;correct;runtime; -409;Basic Principles And Calculations In Chemical Engineering(D. M. Himmelblau And J. B. Riggs);1322;29. Humidity Charts and their Uses;29.5;29.5. Drying of Chlorella;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1790;1. Solving Nonlinear Equations;1.1;1.1. Table 1;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1790;1. Solving Nonlinear Equations;1.2;1.2. Table 2;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1790;1. Solving Nonlinear Equations;1.3;1.3. Table 3;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1790;1. Solving Nonlinear Equations;1.4;1.4. Example 1;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1790;1. Solving Nonlinear Equations;1.5;1.5. Example 2;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1794;2. Solving Sets of Equations;2.1;2.1. Example 1;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1794;2. Solving Sets of Equations;2.2;2.2. Example 2;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1794;2. Solving Sets of Equations;2.3;2.3. Example 3;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1794;2. Solving Sets of Equations;2.4;2.4. Example 4;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1794;2. Solving Sets of Equations;2.5;2.5. LUDecomposition;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1795;3. Interpolation and curve fitting;3.1;3.1. Example 1;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1795;3. Interpolation and curve fitting;3.2;3.2. Example 2;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1795;3. Interpolation and curve fitting;3.3;3.3. Example 3;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1795;3. Interpolation and curve fitting;3.4;3.4. Example 4;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1795;3. Interpolation and curve fitting;3.5;3.5. Table 2;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1795;3. Interpolation and curve fitting;3.6;3.6. Table 5a;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1795;3. Interpolation and curve fitting;3.7;3.7. Table 5b;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1796;4. Approximation of functions;4.1;4.1. Table 1;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1796;4. Approximation of functions;4.2;4.2. Table 2;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1796;4. Approximation of functions;4.4;4.4. Table 4;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1796;4. Approximation of functions;4.5;4.5. Table 5;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1797;5. Numerical Differentiation and Integration;5.1;5.1. Example 1;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1797;5. Numerical Differentiation and Integration;5.2;5.2. Example 2;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1797;5. Numerical Differentiation and Integration;5.3;5.3. Example 3;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1797;5. Numerical Differentiation and Integration;5.4;5.4. Example 4;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1797;5. Numerical Differentiation and Integration;5.5;5.5. Example 5;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1797;5. Numerical Differentiation and Integration;5.6;5.6. Table 1;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1797;5. Numerical Differentiation and Integration;5.7;5.7. Table 2;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1797;5. Numerical Differentiation and Integration;5.8;5.8. Table 3;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1797;5. Numerical Differentiation and Integration;5.9;5.9. Table 4;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1798;6. Numerical Solution of Ordinary Differential Equations;6.1;6.1. Example 1;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1798;6. Numerical Solution of Ordinary Differential Equations;6.10;6.10. Example 6 11;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1798;6. Numerical Solution of Ordinary Differential Equations;6.11;6.11. Example 6 12;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1798;6. Numerical Solution of Ordinary Differential Equations;6.12;6.12. Example 6 13;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1798;6. Numerical Solution of Ordinary Differential Equations;6.13;6.13. Example 6 14;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1798;6. Numerical Solution of Ordinary Differential Equations;6.2;6.2. Table 6 1;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1798;6. Numerical Solution of Ordinary Differential Equations;6.3;6.3. Table 2;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1798;6. Numerical Solution of Ordinary Differential Equations;6.4;6.4. Table 3;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1798;6. Numerical Solution of Ordinary Differential Equations;6.5;6.5. Table 4;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1798;6. Numerical Solution of Ordinary Differential Equations;6.6;6.6. Example6 2;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1798;6. Numerical Solution of Ordinary Differential Equations;6.7;6.7. Example 6 3;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1798;6. Numerical Solution of Ordinary Differential Equations;6.8;6.8. Table 6 7;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1798;6. Numerical Solution of Ordinary Differential Equations;6.9;6.9. Table 6 8;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1799;7. Optimization;7.1;7.1. Example 1;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1799;7. Optimization;7.2;7.2. Example 2;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1799;7. Optimization;7.3;7.3. Example 3;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1800;8. Partial differential Equations;8.1;8.1. Example 1;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1800;8. Partial differential Equations;8.2;8.2. Example 2;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1800;8. Partial differential Equations;8.3;8.3. Example 3;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1800;8. Partial differential Equations;8.4;8.4. Example 4;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1800;8. Partial differential Equations;8.5;8.5. Example 5;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1800;8. Partial differential Equations;8.6;8.6. Example 6;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1801;9. Finite Element Analysis;9.1;9.1. Example 1;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1801;9. Finite Element Analysis;9.2;9.2. Example 2;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1801;9. Finite Element Analysis;9.3;9.3. Example 3;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1801;9. Finite Element Analysis;9.4;9.4. Example 4;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1801;9. Finite Element Analysis;9.5;9.5. Example 5;correct;runtime; -413;Applied Numerical Analysis(C. Gerald And P. Wheatley);1801;9. Finite Element Analysis;9.6;9.6. Example 6;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1134;2. LOADS AND LOAD CURVES;2.1;2.1. connected load demand factor and other load factors connected to the system;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1134;2. LOADS AND LOAD CURVES;2.10;2.10. reserve capacity of plant with different factors;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1134;2. LOADS AND LOAD CURVES;2.11;2.11. suggested installed capacity for a plant;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1134;2. LOADS AND LOAD CURVES;2.12;2.12. load duration curve;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1134;2. LOADS AND LOAD CURVES;2.13;2.13. annual load factor daily load factor and different ratioes;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1134;2. LOADS AND LOAD CURVES;2.14;2.14. peak load on different transformers and peak load on feeder;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1134;2. LOADS AND LOAD CURVES;2.2;2.2. diversity factor conserning different loads;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1134;2. LOADS AND LOAD CURVES;2.3;2.3. load demand power from load;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1134;2. LOADS AND LOAD CURVES;2.4;2.4. load deviation curve and load factor;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1134;2. LOADS AND LOAD CURVES;2.5;2.5. capacity factor and utilisation factor;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1134;2. LOADS AND LOAD CURVES;2.6;2.6. mass curve of 24 example;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1134;2. LOADS AND LOAD CURVES;2.7;2.7. annual production of plant with factors;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1134;2. LOADS AND LOAD CURVES;2.8;2.8. daily load factor;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1134;2. LOADS AND LOAD CURVES;2.9;2.9. load duration curve and mass curve;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1130;3. power plant economics;3.1;3.1. annual plant cost and generation cost of two different units;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1130;3. power plant economics;3.16;3.16. generation cost of a plant;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1130;3. power plant economics;3.17;3.17. to find the generation cost and total annual cost;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1130;3. power plant economics;3.2;3.2. annual depreciation reserve;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1130;3. power plant economics;3.3;3.3. solving accumulated depreciation;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1130;3. power plant economics;3.4;3.4. load factor verses generation cost;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1130;3. power plant economics;3.5;3.5. generation cost of per unit of energy;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1130;3. power plant economics;3.6;3.6. comparision between costs of different alternators;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1130;3. power plant economics;3.7;3.7. overall generation cost per kWh for thermal and hydro plant;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.1;4.1. monthly electricity consumption;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.10;4.10. kvar rating of star connected capacitor and capacitance for power factor;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.11;4.11. kva and power factor of synchronous motor;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.12;4.12. parallel operation of synchronous and induction motor under different;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.13;4.13. finding power factor and load on different generator;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.14;4.14. loss if capacitor is connected in star and delta;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.15;4.15. persentage reduction in line loss with the connection of capacitors;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.16;4.16. kva of capacitor bank and transformerand etc;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.17;4.17. MVA rating of three winding of transformer;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.18;4.18. load power and power factor of 3 ph alternator;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.19;4.19. maintaining of poer factor using capacitor;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.2;4.2. total electricity bill per year;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.20;4.20. maintaining of poer factor using capacitor;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.21;4.21. difference in annual fixed charges of consumer for change in pf;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.22;4.22. finding annual cost and difference in annual cost in two units;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.3;4.3. annual cost operating cost tariff;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.4;4.4. monthly bill and average tariff per kWH;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.5;4.5. better consumption per year;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.6;4.6. avarage energy cost in different case;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.7;4.7. selection of cheeper transformer;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.8;4.8. most economical power factor and rating of capacitor bank;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1131;4. TARIFFS AND POWER FACTOR IMPROVEMENT;4.9;4.9. maximum load at unity power factor which can be supplied by this substation;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1102;5. SELECTION OF PLANT;5.1;5.1. slection of plant on criteria of investment other;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1102;5. SELECTION OF PLANT;5.2;5.2. slection of plant on criteria of investment with out interest and depreciation;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1102;5. SELECTION OF PLANT;5.3;5.3. calculate the capital cost;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1102;5. SELECTION OF PLANT;5.4;5.4. rate of return method for best plan;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1101;7. THERMAL POWER PLANTS;7.1;7.1. calculation of energy input to the thermal plant and output from thermal plant;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1129;8. hydro electric plants;8.1;8.1. hydro plant power with parameters of reservoir;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1129;8. hydro electric plants;8.2;8.2. STORAGE CAPACITY AND HYDRO GRAPH;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1129;8. hydro electric plants;8.3;8.3. STORAGE CAPACITY AND HYDRO GRAPH;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1129;8. hydro electric plants;8.4;8.4. derevation of mass curve;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1129;8. hydro electric plants;8.5;8.5. HYDRO GRAPH;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1129;8. hydro electric plants;8.6;8.6. WATER USED AND LOAD FACTOR OF HYDRO STATION;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1103;9. Nuclear Power stations;9.1;9.1. energy equivalent of matter 1 gram;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1103;9. Nuclear Power stations;9.2;9.2. mass defect of 1 amu;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1103;9. Nuclear Power stations;9.3;9.3. binding energy of 1h2 28ni59 92u235;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1103;9. Nuclear Power stations;9.4;9.4. half life of uranium;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1103;9. Nuclear Power stations;9.5;9.5. power produced by fissioning 5 grams of uranium;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1103;9. Nuclear Power stations;9.6;9.6. fuel requirement for given energy;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1103;9. Nuclear Power stations;9.7;9.7. number of collisions for energy change;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1368;10. ECONOMIC OPERATION OF STEAM PLANTS;10.1;10.1. SHARING OF LOAD BETWEEN STATIONS;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1368;10. ECONOMIC OPERATION OF STEAM PLANTS;10.10;10.10. SHARING OF LOAD BETWEEN STATIONS WITH ITRATION METHOD;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1368;10. ECONOMIC OPERATION OF STEAM PLANTS;10.11;10.11. COST CHARACTERISTIC UNDER COMBAINED STATIONS CONDITION;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1368;10. ECONOMIC OPERATION OF STEAM PLANTS;10.12;10.12. SHARING OF LOAD BETWEEN STATIONS;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1368;10. ECONOMIC OPERATION OF STEAM PLANTS;10.13;10.13. ECONOMIC SCHEDULING BETWEEN POWER STATION;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1368;10. ECONOMIC OPERATION OF STEAM PLANTS;10.14;10.14. ECONOMIC SCHEDULING BETWEEN POWER STATION;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1368;10. ECONOMIC OPERATION OF STEAM PLANTS;10.15;10.15. ECONOMIC SCHEDULING BETWEEN POWER STATION;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1368;10. ECONOMIC OPERATION OF STEAM PLANTS;10.16;10.16. COMPARITION BETWEEN UNIFORM LOAD AND DISTRUBTED LOAD;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1368;10. ECONOMIC OPERATION OF STEAM PLANTS;10.17;10.17. ECONOMIC SCHEDULING BETWEEN POWER STATION;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1368;10. ECONOMIC OPERATION OF STEAM PLANTS;10.2;10.2. COST ON DIFFERENT STATIONS ON INCREMENTAL COST METHOD;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1368;10. ECONOMIC OPERATION OF STEAM PLANTS;10.3;10.3. SHARING OF LOAD BETWEEN STATIONS WITH PARTICIPATION FACTOR;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1368;10. ECONOMIC OPERATION OF STEAM PLANTS;10.5;10.5. LOSS COEFFICIENTS AND TRANSMISSION LOSS;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1368;10. ECONOMIC OPERATION OF STEAM PLANTS;10.7;10.7. LOSS COEFFICIENTS AND TRANSMISSION LOSS;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1368;10. ECONOMIC OPERATION OF STEAM PLANTS;10.8;10.8. SHARING OF LOAD BETWEEN STATIONS WITH PARTICIPATION FACTOR;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1368;10. ECONOMIC OPERATION OF STEAM PLANTS;10.9;10.9. COST CONDITIONS WITH CHANGE IN LOAD ON PLANT;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1381;11. HYDRO THERMAL CO ORDINATION;11.1;11.1. SCHEDULING OF POWER PLANT;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1381;11. HYDRO THERMAL CO ORDINATION;11.2;11.2. generation schedule and daily water usage of power plant;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1381;11. HYDRO THERMAL CO ORDINATION;11.3;11.3. water usage and cost of water by hydro power plant;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1128;12. parallel operation of alternators;12.1;12.1. load sharing between alternators;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1128;12. parallel operation of alternators;12.2;12.2. different parameters between parallel operation of generator;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1128;12. parallel operation of alternators;12.3;12.3. circulating current between parallel generators;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1128;12. parallel operation of alternators;12.4;12.4. different parameters between parallel operation of generator;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1128;12. parallel operation of alternators;12.5;12.5. synchronising power per mechanical degree of angular displacement;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1128;12. parallel operation of alternators;12.6;12.6. synchronising power per mechanical degree of angular displacement;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1128;12. parallel operation of alternators;12.7;12.7. load parameters between alternators;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1127;13. MAJOR ELECTRICAL EQUIPMENT IN POWER PLANTS;13.1;13.1. fault current with different generators;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1127;13. MAJOR ELECTRICAL EQUIPMENT IN POWER PLANTS;13.10;13.10. fault current with different circuit;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1127;13. MAJOR ELECTRICAL EQUIPMENT IN POWER PLANTS;13.11;13.11. fault level and fault MVA;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1127;13. MAJOR ELECTRICAL EQUIPMENT IN POWER PLANTS;13.2;13.2. short circuit current parallel generator;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1127;13. MAJOR ELECTRICAL EQUIPMENT IN POWER PLANTS;13.3;13.3. short circuit MVA;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1127;13. MAJOR ELECTRICAL EQUIPMENT IN POWER PLANTS;13.4;13.4. fault MVA in parallel generators;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1127;13. MAJOR ELECTRICAL EQUIPMENT IN POWER PLANTS;13.5;13.5. REATING OF CIRCUIT BREAKER;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1127;13. MAJOR ELECTRICAL EQUIPMENT IN POWER PLANTS;13.6;13.6. ratio of mech stresses on short circuit to mech stresses on full load;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1127;13. MAJOR ELECTRICAL EQUIPMENT IN POWER PLANTS;13.7;13.7. percentage drop in bus bar voltage;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1127;13. MAJOR ELECTRICAL EQUIPMENT IN POWER PLANTS;13.8;13.8. short circuit MVA on hv and lv side;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1127;13. MAJOR ELECTRICAL EQUIPMENT IN POWER PLANTS;13.9;13.9. limiting the MVA with reactance;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1126;14. SYSTEM INTERCONNECTIONS;14.1;14.1. speed regulation and frequency drop in alternator;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1126;14. SYSTEM INTERCONNECTIONS;14.10;14.10. change in frequency in transfer function;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1126;14. SYSTEM INTERCONNECTIONS;14.11;14.11. stactic frequency drop and change in power line with perameters;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1126;14. SYSTEM INTERCONNECTIONS;14.12;14.12. change in frequency and change power in different area;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1126;14. SYSTEM INTERCONNECTIONS;14.13;14.13. steady state change in tie line power if step change in power;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1126;14. SYSTEM INTERCONNECTIONS;14.14;14.14. capacitance of shunt load capacitor to maintain voltage constant;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1126;14. SYSTEM INTERCONNECTIONS;14.15;14.15. maintaining voltage costant by tapping transformer;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1126;14. SYSTEM INTERCONNECTIONS;14.16;14.16. output voltage with reactive power;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1126;14. SYSTEM INTERCONNECTIONS;14.17;14.17. generation at each station and transfer of power of different plants;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1126;14. SYSTEM INTERCONNECTIONS;14.18;14.18. current transfer between two station;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1126;14. SYSTEM INTERCONNECTIONS;14.19;14.19. current in interconnector with different power factor;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1126;14. SYSTEM INTERCONNECTIONS;14.2;14.2. frequency deviation in alternator;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1126;14. SYSTEM INTERCONNECTIONS;14.3;14.3. speed regulation in sharing alternator;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1126;14. SYSTEM INTERCONNECTIONS;14.4;14.4. static frequency drop for change in load;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1126;14. SYSTEM INTERCONNECTIONS;14.5;14.5. primary ALFC loop paramers;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1126;14. SYSTEM INTERCONNECTIONS;14.6;14.6. frequency drop and increased generation to meet the increase in load;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1126;14. SYSTEM INTERCONNECTIONS;14.7;14.7. frequency deviation before the value opens to meet the load demand;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1126;14. SYSTEM INTERCONNECTIONS;14.8;14.8. largest change in step load for constant duration of frequency;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1126;14. SYSTEM INTERCONNECTIONS;14.9;14.9. frequency responce and static frequency error in the absence of secondary loop;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1125;15. NEW ENERGY SOURCES;15.1;15.1. open circuit voltage internal resistance maximumpower in MHD engine;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1125;15. NEW ENERGY SOURCES;15.10;15.10. comparison between tidel and coal plant;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1125;15. NEW ENERGY SOURCES;15.2;15.2. open circuit voltage gradiant in duct due to load in MHD engine;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1125;15. NEW ENERGY SOURCES;15.3;15.3. losses in duct power delivered to load efficiency current density in duct in MHD generator;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1125;15. NEW ENERGY SOURCES;15.4;15.4. output voltage maximum power output in MHD generator;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1125;15. NEW ENERGY SOURCES;15.5;15.5. power collected by surface of collector and temperature rise in photo generators;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1125;15. NEW ENERGY SOURCES;15.6;15.6. peak watt capacity of PV panel and number of modules of photo voltaic cell;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1125;15. NEW ENERGY SOURCES;15.7;15.7. power available power density torque at maximum power of wind mills;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1125;15. NEW ENERGY SOURCES;15.8;15.8. difference pressure in pascals and other unit of wind mill;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1125;15. NEW ENERGY SOURCES;15.9;15.9. output surface area of reservoir in tidal power plant;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1369;17. GENERATING CAPACITY RELIABILITY EVALUTION;17.1;17.1. CAPACITY OUTAGE PROBABILITY TABLE;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1369;17. GENERATING CAPACITY RELIABILITY EVALUTION;17.2;17.2. CAPACITY OUTAGE PROBABILITY TABLE AND CUMMULATIVE PROBABILITY;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1369;17. GENERATING CAPACITY RELIABILITY EVALUTION;17.3;17.3. CAPACITY OUTAGE PROBABILITY TABLE AND CUMMULATIVE PROBABILITY;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1369;17. GENERATING CAPACITY RELIABILITY EVALUTION;17.4;17.4. CAPACITY OUTAGE PROBABILITY TABLEAND EXPECTED LOAD;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1124;20. ENERGY AUDIT;20.1;20.1. economic power factor electricity bill;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1124;20. ENERGY AUDIT;20.2;20.2. annual cost method present worth method;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1122;23. CAPTIVE POWER GENERATION;23.1;23.1. COST OF DIESEL ENGINE CAPITIVE POWER PLANT;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1122;23. CAPTIVE POWER GENERATION;23.11.2;23.11.2. calculation of wheeling charges;correct;runtime; -416;Generation Of Electrical Energy(B. R. Gupta);1122;23. CAPTIVE POWER GENERATION;23.2;23.2. GENERATION COST OF CAPITIVE POWER PLANT in suger mill;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.10;2.10. calculating the torque developed;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.11;2.11. calculating various parameters of dc motor;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.12;2.12. calculating various parameters of dc machine;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.13;2.13. calculating speed of machine;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.14;2.14. calculating speed ratio of generator and motor working conditios;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.15;2.15. calculating flux and area of pole shoe and no load terminal voltage;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.16;2.16. calculate approximate time of commmutation;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.17;2.17. calculate resistance;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.18;2.18. calculating resistance required in series;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.19;2.19. calculating resistance required in series and also the speedwhen torque is halfed;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.20;2.20. calculating the speed of the motor;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.21;2.21. Calculate the fullyload speed of the motor;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.22;2.22. Calculate the value of resistance;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.23;2.23. Calculate the speed;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.24;2.24. Calculate the fullyload speed of the motor;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.25;2.25. Calculate the ampere turns for each commutating pole;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.26;2.26. Estimating the number of turns needed on each commutating pole;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.27;2.27. Calculating the efficiency of motor;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.29;2.29. Calculate the efficiency of machine when running as generator and motor;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.30;2.30. Calculating the efficiency of the generator at full load and at half load;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.31;2.31. Calculate the efficiency of machine;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.32;2.32. Calculate the appox efficiency of each machine;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.33;2.33. Calculate the appox efficiency of each machine;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.34;2.34. Calculate the efficiences of the generator at full load;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.4;2.4. Calculating average induced emf;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.5;2.5. Calculating useful flux per pole;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.6;2.6. Calculating emf generated on open circuit condition;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.7;2.7. calculate induced emf;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.8;2.8. calculating the speed and percentage increase in flux;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1166;2. Direct Current Machines;2.9;2.9. Calculating electromagnetic torque;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.1;3.1. calculating number of turns and primary and secondary currents and value of flux;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.10;3.10. Calculating primary current and primary power factor;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.11;3.11. Calculating equivalent impedence referred to primary;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.12;3.12. Calculating equivalent impedence referred to primary;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.13;3.13. Calculate current and power input;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.14;3.14. Calculate current and power input;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.15;3.15. Calculate percentage regulation;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.16;3.16. Calculating secondary voltage and voltage regulation;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.17;3.17. Calculating regulation;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.19;3.19. Calculating the efficiency and voltage regulation;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.2;3.2. calculating number of primary and secondary turns;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.20;3.20. Calculate voltsge to be applied;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.21;3.21. Calculate circuit constants and efficiency;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.22;3.22. Calculate efficiency;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.24;3.24. Calculate efficiency of transformer;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.25;3.25. Calculate efficiency of transformer;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.26;3.26. Calculate efficiency of transformer;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.27;3.27. Calculate efficiency of transformer;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.28;3.28. Calculate current in different parts of winding of autotransformer;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.29;3.29. Calculate efficiency of transformer;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.3;3.3. calculating induced emf and maximium flux density;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.30;3.30. Calculate efficiency of transformer;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.32;3.32. Calculate current in different parts of winding of autotransformer;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.4;3.4. calculating induced emf and maximium flux density;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.5;3.5. Calculating the current and power factor of the primary circuit;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.6;3.6. Calculating the value of primary current;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.7;3.7. Calculating the magnetising current and core loss and flux;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.8;3.8. Calculating the current and power factor of the primary circuit;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1167;3. Transformers;3.9;3.9. Calculating magnetising current and primary current and primary power factor;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;2.22;2.22. Calculate the value of resistance;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.1;4.1. to calculate synchronous speed and speed of rotro for slip condition;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.10;4.10. Calculating the frequency of the rotor current;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.11;4.11. Calculating the rotor current;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.12;4.12. Calculate power developed and efficiency;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.13;4.13. Calculating the rotor loss and rotor speed;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.14;4.14. Calculating standstill rotor reactance;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.15;4.15. Calculating new full load speed;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.16;4.16. Calculating starting torque;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.18;4.18. Calculating external resistance;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.2;4.2. to find out rotor running at higher slip;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.20;4.20. Calculating full load rotor loss and rotor input and output torque;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.21;4.21. Calculating the slip and rotor copper loss and the output horse power and efficiency;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.22;4.22. Calculating the slip and rotor speed and mechanical power developed and rotor copper loss per phase and resistance per phase;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.23;4.23. Calculating additional resistance required;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.24;4.24. Calculate speed of motor and maximium torque;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.25;4.25. Calculate starting current;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.26;4.26. Calculate starting line current and starting torque;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.28;4.28. Calculate starting torque;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.29;4.29. Calculate full load speed;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.3;4.3. calculating slip and number of poles;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.30;4.30. Calculate full load rotor loss and rotor input and output torque;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.31;4.31. Calculate full load rotor loss and rotor input and output torque;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.32;4.32. Calculate full load efficiency;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.33;4.33. Calculating the rotor current at slip 3 precent and when the rotor develops maximum torque;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.34;4.34. Calculating the rotor current at slip 3 precent and when the rotor develops maximum torque;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.35;4.35. Calculate the circuit elements;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.4;4.4. Calculate frequency of rotor induced emf;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.5;4.5. Calculating the speed of running motor and its slip;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.6;4.6. Calculating the speed of rotating magnetic field;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.7;4.7. Calculate rotor current and phase difference;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.8;4.8. Calculating the running speed and frequency of the rotor magnet current;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1106;4. Three Phase Induction Machines;4.9;4.9. Calculating the running speed and frequency of the rotor magnet current;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1067;5. Three Phase Synchronous Machines;5.1;5.1. To calculate distribution factor;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1067;5. Three Phase Synchronous Machines;5.10;5.10. To calculate voltage regulation;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1067;5. Three Phase Synchronous Machines;5.11;5.11. To calculate internal voltage drop;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1067;5. Three Phase Synchronous Machines;5.12;5.12. To calculate percentage change in terminal voltage;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1067;5. Three Phase Synchronous Machines;5.13;5.13. To calculate regulation on full load power factor loading and lagging condition;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1067;5. Three Phase Synchronous Machines;5.14;5.14. To calculate terminal voltage for same excitation and load current at certain power factor leading;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1067;5. Three Phase Synchronous Machines;5.15;5.15. to find the power factor of alternator B;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1067;5. Three Phase Synchronous Machines;5.16;5.16. To calculate armature curren and power factor;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1067;5. Three Phase Synchronous Machines;5.17;5.17. To determine KVA rating and power facor;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1067;5. Three Phase Synchronous Machines;5.2;5.2. To calculate distribution factor;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1067;5. Three Phase Synchronous Machines;5.3;5.3. To calculate pitch factor;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1067;5. Three Phase Synchronous Machines;5.4;5.4. To calculate the rms value of induced EMF;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1067;5. Three Phase Synchronous Machines;5.5;5.5. Calculating useful flux per pole;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1067;5. Three Phase Synchronous Machines;5.6;5.6. To calculate the frequency and induced EMF;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1067;5. Three Phase Synchronous Machines;5.7;5.7. Finding the number of armature conductors;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1067;5. Three Phase Synchronous Machines;5.8;5.8. To calculate induced EMF per phase;correct;runtime; -431;Electrical Machines 3rd Edition(S. K. Bhattacharya);1067;5. Three Phase Synchronous Machines;5.9;5.9. To find the voltage regulation;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1459;1. Introduction;1.1;1.1. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1459;1. Introduction;1.10;1.10. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1459;1. Introduction;1.2;1.2. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1459;1. Introduction;1.3;1.3. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1459;1. Introduction;1.4;1.4. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1459;1. Introduction;1.5;1.5. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1459;1. Introduction;1.6;1.6. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1459;1. Introduction;1.7;1.7. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1459;1. Introduction;1.8;1.8. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1459;1. Introduction;1.9;1.9. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1460;2. Review of basic principles;2.1;2.1. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1460;2. Review of basic principles;2.2;2.2. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1460;2. Review of basic principles;2.3;2.3. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1460;2. Review of basic principles;2.4;2.4. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1460;2. Review of basic principles;2.5;2.5. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.1;3.1. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.10;3.10. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.11;3.11. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.12;3.12. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.13;3.13. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.14;3.14. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.15;3.15. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.16;3.16. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.17;3.17. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.18;3.18. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.19;3.19. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.2;3.2. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.20;3.20. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.21;3.21. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.22;3.22. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.23;3.23. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.24;3.24. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.25;3.25. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.3;3.3. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.4;3.4. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.5;3.5. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.6;3.6. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.7;3.7. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.8;3.8. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1461;3. Air standard cycles and their analysis;3.9;3.9. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1462;4. fuel air cycles and their analysis;4.1;4.1. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1462;4. fuel air cycles and their analysis;4.2;4.2. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1462;4. fuel air cycles and their analysis;4.3;4.3. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1463;8. Carburetion;8.1;8.1. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1463;8. Carburetion;8.2;8.2. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1463;8. Carburetion;8.3;8.3. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1463;8. Carburetion;8.4;8.4. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1463;8. Carburetion;8.5;8.5. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1463;8. Carburetion;8.6;8.6. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1463;8. Carburetion;8.7;8.7. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1464;9. Mechanical injection systems;9.1;9.1. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1464;9. Mechanical injection systems;9.2;9.2. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1464;9. Mechanical injection systems;9.3;9.3. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1464;9. Mechanical injection systems;9.5;9.5. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1464;9. Mechanical injection systems;9.6;9.6. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1464;9. Mechanical injection systems;9.7;9.7. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.1;17.1. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.10;17.10. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.11;17.11. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.12;17.12. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.13;17.13. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.14;17.14. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.15;17.15. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.16;17.16. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.17;17.17. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.18;17.18. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.19;17.19. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.2;17.2. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.20;17.20. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.21;17.21. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.22;17.22. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.23;17.23. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.24;17.24. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.25;17.25. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.27;17.27. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.28;17.28. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.3;17.3. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.30;17.30. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.31;17.31. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.32;17.32. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.34;17.34. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.35;17.35. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.4;17.4. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.5;17.5. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.6;17.6. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.7;17.7. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.8;17.8. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1465;17. Performance parameters and characteristics;17.9;17.9. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1477;19. Supercharging;19.1;19.1. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1477;19. Supercharging;19.4;19.4. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1479;20. Two Stroke engines;20.2;20.2. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1479;20. Two Stroke engines;20.3;20.3. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1479;20. Two Stroke engines;20.4;20.4. data;correct;runtime; -443;Internal Combustion Engines(V. Ganesan);1479;20. Two Stroke engines;20.5;20.5. data;correct;runtime; -446;Modern Physics(K. S. Krane);1207;1. Introduction;1.1;1.1. Mass difference between a proton and a neutron;correct;runtime; -446;Modern Physics(K. S. Krane);1207;1. Introduction;1.2;1.2. Total mass of proton and electron;correct;runtime; -446;Modern Physics(K. S. Krane);1207;1. Introduction;1.3;1.3. Value of hc;correct;runtime; -446;Modern Physics(K. S. Krane);1208;2. The Special Theroy of Relativity;2.1;2.1. Speed of A wrt B;correct;runtime; -446;Modern Physics(K. S. Krane);1208;2. The Special Theroy of Relativity;2.10;2.10. Time interval between the events;correct;runtime; -446;Modern Physics(K. S. Krane);1208;2. The Special Theroy of Relativity;2.11;2.11. momentum of proton;correct;runtime; -446;Modern Physics(K. S. Krane);1208;2. The Special Theroy of Relativity;2.12;2.12. Various energies of proton;correct;runtime; -446;Modern Physics(K. S. Krane);1208;2. The Special Theroy of Relativity;2.13;2.13. Velocity and momentum of electron;correct;runtime; -446;Modern Physics(K. S. Krane);1208;2. The Special Theroy of Relativity;2.14;2.14. Solution for a b;correct;runtime; -446;Modern Physics(K. S. Krane);1208;2. The Special Theroy of Relativity;2.15;2.15. Rate of decrese of the mass of Sun;correct;runtime; -446;Modern Physics(K. S. Krane);1208;2. The Special Theroy of Relativity;2.16;2.16. Kinetic energy of pion in each case;correct;runtime; -446;Modern Physics(K. S. Krane);1208;2. The Special Theroy of Relativity;2.17;2.17. Threshold kinetic energy to produce antiprotons;correct;runtime; -446;Modern Physics(K. S. Krane);1208;2. The Special Theroy of Relativity;2.2;2.2. Velocity of plane wrt ground;correct;runtime; -446;Modern Physics(K. S. Krane);1208;2. The Special Theroy of Relativity;2.3;2.3. Time taken in each case;correct;runtime; -446;Modern Physics(K. S. Krane);1208;2. The Special Theroy of Relativity;2.4;2.4. Minimum speed for suvival of muons;correct;runtime; -446;Modern Physics(K. S. Krane);1208;2. The Special Theroy of Relativity;2.5;2.5. Apparent thickness of Earth atmosphere;correct;runtime; -446;Modern Physics(K. S. Krane);1208;2. The Special Theroy of Relativity;2.6;2.6. Solution for a b c d e;correct;runtime; -446;Modern Physics(K. S. Krane);1208;2. The Special Theroy of Relativity;2.7;2.7. Speed of missile wrt earth;correct;runtime; -446;Modern Physics(K. S. Krane);1208;2. The Special Theroy of Relativity;2.8;2.8. Speed of galaxy wrt earth;correct;runtime; -446;Modern Physics(K. S. Krane);1208;2. The Special Theroy of Relativity;2.9;2.9. Velocity of rocket2 wrt rocket1;correct;runtime; -446;Modern Physics(K. S. Krane);1209;3. Review of Electromagnetic waves;3.1;3.1. Atomic Spacing of Nacl;correct;runtime; -446;Modern Physics(K. S. Krane);1209;3. Review of Electromagnetic waves;3.2;3.2. Time taken to release an electron;correct;runtime; -446;Modern Physics(K. S. Krane);1209;3. Review of Electromagnetic waves;3.3;3.3. Solution for a and b;correct;runtime; -446;Modern Physics(K. S. Krane);1209;3. Review of Electromagnetic waves;3.4;3.4. Solution for a b and c;correct;runtime; -446;Modern Physics(K. S. Krane);1209;3. Review of Electromagnetic waves;3.5;3.5. Solution for a b and c;correct;runtime; -446;Modern Physics(K. S. Krane);1209;3. Review of Electromagnetic waves;3.6;3.6. Solution for a b c and d;correct;runtime; -446;Modern Physics(K. S. Krane);1210;4. The Wavelike properties of particles;4.1;4.1. Solution for a b c d and e;correct;runtime; -446;Modern Physics(K. S. Krane);1210;4. The Wavelike properties of particles;4.10;4.10. Group velocity of a wave packet in terms of phase velocity;correct;runtime; -446;Modern Physics(K. S. Krane);1210;4. The Wavelike properties of particles;4.2;4.2. Minimum uncertainity in wavelength;correct;runtime; -446;Modern Physics(K. S. Krane);1210;4. The Wavelike properties of particles;4.3;4.3. Validity of the claim;correct;runtime; -446;Modern Physics(K. S. Krane);1210;4. The Wavelike properties of particles;4.4;4.4. Solution for a and b;correct;runtime; -446;Modern Physics(K. S. Krane);1210;4. The Wavelike properties of particles;4.5;4.5. Solution for a and b;correct;runtime; -446;Modern Physics(K. S. Krane);1210;4. The Wavelike properties of particles;4.6;4.6. Uncertainity in x component;correct;runtime; -446;Modern Physics(K. S. Krane);1210;4. The Wavelike properties of particles;4.7;4.7. Range of kinetic energy of an electron;correct;runtime; -446;Modern Physics(K. S. Krane);1210;4. The Wavelike properties of particles;4.8;4.8. Solution for a b and c;correct;runtime; -446;Modern Physics(K. S. Krane);1210;4. The Wavelike properties of particles;4.9;4.9. minimum velocity of the billiard ball;correct;runtime; -446;Modern Physics(K. S. Krane);1211;5. The Schrodinger Equation;5.1;5.1. Displacement and velocity of the object;correct;runtime; -446;Modern Physics(K. S. Krane);1211;5. The Schrodinger Equation;5.2;5.2. Solution for a and b;correct;runtime; -446;Modern Physics(K. S. Krane);1211;5. The Schrodinger Equation;5.3;5.3. Proof for average value of x;correct;runtime; -446;Modern Physics(K. S. Krane);1212;6. The Rutherford Bohr model of an atom;6.1;6.1. Average deflection angle per collision;correct;runtime; -446;Modern Physics(K. S. Krane);1212;6. The Rutherford Bohr model of an atom;6.2;6.2. Solution for a and b;correct;runtime; -446;Modern Physics(K. S. Krane);1212;6. The Rutherford Bohr model of an atom;6.3;6.3. Distance of closest approach;correct;runtime; -446;Modern Physics(K. S. Krane);1212;6. The Rutherford Bohr model of an atom;6.4;6.4. Three longest wavelengths of the Paschen series;correct;runtime; -446;Modern Physics(K. S. Krane);1212;6. The Rutherford Bohr model of an atom;6.5;6.5. Various wavelegths in Balmer and Lymann series;correct;runtime; -446;Modern Physics(K. S. Krane);1212;6. The Rutherford Bohr model of an atom;6.6;6.6. wavelengths of transition;correct;runtime; -446;Modern Physics(K. S. Krane);1212;6. The Rutherford Bohr model of an atom;6.7;6.7. Two longest wavelengths of triply ionized beryllium;correct;runtime; -446;Modern Physics(K. S. Krane);1213;7. The Hydrogen atom in wave mechanics;7.1;7.1. Proof;correct;runtime; -446;Modern Physics(K. S. Krane);1213;7. The Hydrogen atom in wave mechanics;7.2;7.2. Probability of finding an electron closer to nucles than Bohrs orbit;correct;runtime; -446;Modern Physics(K. S. Krane);1213;7. The Hydrogen atom in wave mechanics;7.3;7.3. Probability of finding an electron inisde Bohr Radius;correct;runtime; -446;Modern Physics(K. S. Krane);1213;7. The Hydrogen atom in wave mechanics;7.4;7.4. Length of angular momentum vectors;correct;runtime; -446;Modern Physics(K. S. Krane);1213;7. The Hydrogen atom in wave mechanics;7.5;7.5. possible Z components of the vector L;correct;runtime; -446;Modern Physics(K. S. Krane);1213;7. The Hydrogen atom in wave mechanics;7.6;7.6. Seperation of beams as they leave the magnet;correct;runtime; -446;Modern Physics(K. S. Krane);1213;7. The Hydrogen atom in wave mechanics;7.7;7.7. Change in wavelength;correct;runtime; -446;Modern Physics(K. S. Krane);1214;8. Many Electron Atoms;8.1;8.1. Energy of Ka X ray of sodium;correct;runtime; -446;Modern Physics(K. S. Krane);1214;8. Many Electron Atoms;8.2;8.2. Solution for a and b;correct;runtime; -446;Modern Physics(K. S. Krane);1214;8. Many Electron Atoms;8.3;8.3. Total orbital and spin quantum numbers of carbon;correct;runtime; -446;Modern Physics(K. S. Krane);1214;8. Many Electron Atoms;8.4;8.4. Total orbital and spin quantum numbers of nitrogen;correct;runtime; -446;Modern Physics(K. S. Krane);1214;8. Many Electron Atoms;8.5;8.5. Hunds rule to find ground state quantum numbers of nitrogen;correct;runtime; -446;Modern Physics(K. S. Krane);1214;8. Many Electron Atoms;8.6;8.6. Ground state L and S of oxygen;correct;runtime; -446;Modern Physics(K. S. Krane);1215;9. Molecular Structure;9.1;9.1. Charge on the sphere;correct;runtime; -446;Modern Physics(K. S. Krane);1215;9. Molecular Structure;9.2;9.2. Solution for a and b;correct;runtime; -446;Modern Physics(K. S. Krane);1215;9. Molecular Structure;9.3;9.3. vibrational frequency and photon energy of H2;correct;runtime; -446;Modern Physics(K. S. Krane);1215;9. Molecular Structure;9.4;9.4. Energies and wavelengths of 3 lowest radiations emitted by molecular H2;correct;runtime; -446;Modern Physics(K. S. Krane);1215;9. Molecular Structure;9.5;9.5. Rotational Inertia of molecule;correct;runtime; -446;Modern Physics(K. S. Krane);1215;9. Molecular Structure;9.6;9.6. Solution for a and b;correct;runtime; -446;Modern Physics(K. S. Krane);1216;10. Statistical Physics;10.1;10.1. Various Speeds obtained from maxwell speed distribution;correct;runtime; -446;Modern Physics(K. S. Krane);1216;10. Statistical Physics;10.2;10.2. Frequency distribution of emitted light;correct;runtime; -446;Modern Physics(K. S. Krane);1216;10. Statistical Physics;10.3;10.3. Solution for a and b;correct;runtime; -446;Modern Physics(K. S. Krane);1216;10. Statistical Physics;10.4;10.4. Solution for a and b;correct;runtime; -446;Modern Physics(K. S. Krane);1216;10. Statistical Physics;10.5;10.5. Fermi Energy Ef for sodium;correct;runtime; -446;Modern Physics(K. S. Krane);1217;11. Properties of Ionic Crystals;11.1;11.1. Solution for a and b;correct;runtime; -446;Modern Physics(K. S. Krane);1217;11. Properties of Ionic Crystals;11.2;11.2. Energy per neytral atom to take apart a crystal of Nacl;correct;runtime; -446;Modern Physics(K. S. Krane);1217;11. Properties of Ionic Crystals;11.3;11.3. Solution for a and b;correct;runtime; -446;Modern Physics(K. S. Krane);1218;12. Nuclear Structure and Radioactivity;12.1;12.1. Solution for a and b;correct;runtime; -446;Modern Physics(K. S. Krane);1218;12. Nuclear Structure and Radioactivity;12.10;12.10. Q value of various decays;correct;runtime; -446;Modern Physics(K. S. Krane);1218;12. Nuclear Structure and Radioactivity;12.11;12.11. Maximum kinetic energy of emitted beta particle;correct;runtime; -446;Modern Physics(K. S. Krane);1218;12. Nuclear Structure and Radioactivity;12.12;12.12. Rate of energy production per gram of uranium;correct;runtime; -446;Modern Physics(K. S. Krane);1218;12. Nuclear Structure and Radioactivity;12.13;12.13. Ages of the given rocks;correct;runtime; -446;Modern Physics(K. S. Krane);1218;12. Nuclear Structure and Radioactivity;12.14;12.14. Solution for a and b;correct;runtime; -446;Modern Physics(K. S. Krane);1218;12. Nuclear Structure and Radioactivity;12.2;12.2. Approximate nuclear radii;correct;runtime; -446;Modern Physics(K. S. Krane);1218;12. Nuclear Structure and Radioactivity;12.3;12.3. Density of typical nucleus and resultant mass;correct;runtime; -446;Modern Physics(K. S. Krane);1218;12. Nuclear Structure and Radioactivity;12.4;12.4. Total Binding Energy;correct;runtime; -446;Modern Physics(K. S. Krane);1218;12. Nuclear Structure and Radioactivity;12.5;12.5. Solution for a b c and d;correct;runtime; -446;Modern Physics(K. S. Krane);1218;12. Nuclear Structure and Radioactivity;12.6;12.6. Atoms at the time of solidification;correct;runtime; -446;Modern Physics(K. S. Krane);1218;12. Nuclear Structure and Radioactivity;12.7;12.7. Kinetic energy of alpha particle emitted in alpha decay;correct;runtime; -446;Modern Physics(K. S. Krane);1218;12. Nuclear Structure and Radioactivity;12.8;12.8. Q value of 14C emission;correct;runtime; -446;Modern Physics(K. S. Krane);1218;12. Nuclear Structure and Radioactivity;12.9;12.9. Maximum Kinetic energy of emitted electron;correct;runtime; -446;Modern Physics(K. S. Krane);1219;13. Nuclear Reaction and Applications;13.1;13.1. Rate of production of neutron;correct;runtime; -446;Modern Physics(K. S. Krane);1219;13. Nuclear Reaction and Applications;13.2;13.2. Resultant activity of 198Au;correct;runtime; -446;Modern Physics(K. S. Krane);1219;13. Nuclear Reaction and Applications;13.3;13.3. Solution for a and b;correct;runtime; -446;Modern Physics(K. S. Krane);1219;13. Nuclear Reaction and Applications;13.4;13.4. Solution for a and b;correct;runtime; -446;Modern Physics(K. S. Krane);1219;13. Nuclear Reaction and Applications;13.5;13.5. Solution for a and b;correct;runtime; -446;Modern Physics(K. S. Krane);1220;14. The Four Basic Forces;14.1;14.1. Solution for a and b;correct;runtime; -446;Modern Physics(K. S. Krane);1220;14. The Four Basic Forces;14.2;14.2. Energy of the proton and pi meson;correct;runtime; -446;Modern Physics(K. S. Krane);1220;14. The Four Basic Forces;14.3;14.3. Maximum kinetic energy of the electron emitted in the decay;correct;runtime; -446;Modern Physics(K. S. Krane);1220;14. The Four Basic Forces;14.4;14.4. maximum energy of the positron nad pi mesons;correct;runtime; -446;Modern Physics(K. S. Krane);1220;14. The Four Basic Forces;14.5;14.5. Q values for reaction;correct;runtime; -446;Modern Physics(K. S. Krane);1220;14. The Four Basic Forces;14.6;14.6. Threshold Kinetic energy to produce pi mesons;correct;runtime; -446;Modern Physics(K. S. Krane);1220;14. The Four Basic Forces;14.7;14.7. Threshold Energy of the given reaction;correct;runtime; -446;Modern Physics(K. S. Krane);1220;14. The Four Basic Forces;14.8;14.8. Solution for a and b;correct;runtime; -446;Modern Physics(K. S. Krane);1221;15. Astrophysics and Genereal Relativity;15.1;15.1. Change in wavelength in solar spectrum due to gravitaional shift;correct;runtime; -446;Modern Physics(K. S. Krane);1221;15. Astrophysics and Genereal Relativity;15.2;15.2. Maximum energy of neutrino in the first reaction of proton proton cycle;correct;runtime; -446;Modern Physics(K. S. Krane);1222;16. The Cosmic Microwave Background Radiation;16.1;16.1. Resultin temperature of interstellar space;correct;runtime; -446;Modern Physics(K. S. Krane);1222;16. The Cosmic Microwave Background Radiation;16.2;16.2. Solution for a and b;correct;runtime; -446;Modern Physics(K. S. Krane);1222;16. The Cosmic Microwave Background Radiation;16.3;16.3. Relative number of neutrons and protons among the nucleus;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1766;1. Fundamental Concepts;1.1;1.1. And Gate;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1766;1. Fundamental Concepts;1.11.a;1.11.a. EXOR gate with one input permanently as logic 0;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1766;1. Fundamental Concepts;1.11.b;1.11.b. EXOR gate with one input permanently as logic 1;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1766;1. Fundamental Concepts;1.13.a;1.13.a. EXNOR gate with one input permanently as logic 0;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1766;1. Fundamental Concepts;1.13.b;1.13.b. EXNOR gate with one input permanently as logic 1;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1766;1. Fundamental Concepts;1.3;1.3. or gate;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1766;1. Fundamental Concepts;1.7.a;1.7.a. NAND gate;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1766;1. Fundamental Concepts;1.7.b;1.7.b. NAND gate with one permanently connected to logic 1;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1766;1. Fundamental Concepts;1.9.a;1.9.a. NOR gate connected to 0 logic as one input;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1766;1. Fundamental Concepts;1.9.b;1.9.b. NOR gate with one input connected to logic 1;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.1;2.1. decimal equivalent;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.10.a;2.10.a. twos complement;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.10.b;2.10.b. twos complement of binary no;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.11.a;2.11.a. complement;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.11.b;2.11.b. complement;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.11.c;2.11.c. complement;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.11.d;2.11.d. twos complement of binary number;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.13.a;2.13.a. addition;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.13.b;2.13.b. addition of binary numbers;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.14;2.14. addition of 4 binary numbers;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.15;2.15. subtraction of binary numbers;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.16;2.16. multiplication of binary numbers;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.17;2.17. division of binary numbers;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.2.a;2.2.a. conversion;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.2.b;2.2.b. conversion;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.2.c;2.2.c. conversion;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.2.d;2.2.d. conversion;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.21;2.21. decimal to octal conversion;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.22;2.22. convert octal to binary;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.23;2.23. binary to octal;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.26;2.26. addition of octal numbers;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.27.a;2.27.a. addition of octal numbers;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.27.b;2.27.b. addition of OCTAL numbers;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.3.a;2.3.a. decimal representation;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.3.b;2.3.b. decimal representation;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.3.c;2.3.c. decimal conversion;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.3.d;2.3.d. decimal representation;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.30;2.30. convert hexadecimal to binary;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.31;2.31. binary to hexadecimal number;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.33;2.33. hexadecimal to octal number;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.35;2.35. addition of hexadecimal numbers;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.36.a;2.36.a. subtraction of hexadecimal numbers;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.36.b;2.36.b. subtraction of hexadecimal numbers;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.4;2.4. binary conversion;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.5;2.5. conversion;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.6.a;2.6.a. dec to bin;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.6.b;2.6.b. dec to bin;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.6.c;2.6.c. dec to bin;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.8.a;2.8.a. ones complement;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.8.b;2.8.b. ones complement of unsigned no;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.9.a;2.9.a. ones comp;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.9.b;2.9.b. ones complement of signed no;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1612;2. Number System and Codes;2.9.c;2.9.c. ones complement of signed no;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1768;3. Semiconductor devices switching mode operation;3.3;3.3. response of transistor inverter;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1768;3. Semiconductor devices switching mode operation;3.4.a;3.4.a. output voltage of JFET;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1768;3. Semiconductor devices switching mode operation;3.4.b;3.4.b. output voltage of JFET;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1768;3. Semiconductor devices switching mode operation;3.5.a;3.5.a. output characateristics of a MOSFET;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1768;3. Semiconductor devices switching mode operation;3.5.b;3.5.b. output voltage for MOSFET;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1768;3. Semiconductor devices switching mode operation;3.7.a;3.7.a. output voltage for identical set of transistors;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1768;3. Semiconductor devices switching mode operation;3.7.b;3.7.b. output voltage in identical transistors for input voltage 5V;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1775;4. Digital Logic Families;4.1.a.i;4.1.a.i. calculate fan out when all inputs are high;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1775;4. Digital Logic Families;4.1.a.ii;4.1.a.ii. calculate fan out for DTL NAND gate when atleast one input is LOW;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1773;5. Combinational Logic Design;5.1;5.1. simplification of equation;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1773;5. Combinational Logic Design;5.2;5.2. conversion to canonical SOP form;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1773;5. Combinational Logic Design;5.3;5.3. conversion to canonical POS form;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1779;6. Combinational Logic Design using MSI circuits;6.1;6.1. boolean equation using 8 to 1 mux;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1779;6. Combinational Logic Design using MSI circuits;6.4.a;6.4.a. subtraction;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1779;6. Combinational Logic Design using MSI circuits;6.4.b;6.4.b. subtraction;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1779;6. Combinational Logic Design using MSI circuits;6.5.a.i;6.5.a.i. 8 bit adder;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1779;6. Combinational Logic Design using MSI circuits;6.5.a.ii;6.5.a.ii. 8 bit subtractor;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1779;6. Combinational Logic Design using MSI circuits;6.5.b.i;6.5.b.i. 8 bit adder;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1779;6. Combinational Logic Design using MSI circuits;6.5.b.ii;6.5.b.ii. 8 bit subtractor;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1770;7. Flip flops;7.1;7.1. clocked SR flip flop;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1770;7. Flip flops;7.2;7.2. convert SR flip flop to JK flip flop;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1771;8. Sequential Logic Design;8.2;8.2. maximum frequency;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1772;9. Timing Circuits;9.3;9.3. Schmitt trigger;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1769;10. A to D and D to A Converters;10.1;10.1. find analog output of 4 bit D to A converter;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1769;10. A to D and D to A Converters;10.2.a;10.2.a. 4 bit unipolar D to A converter;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1769;10. A to D and D to A Converters;10.2.b;10.2.b. 4 bit unipolar D to A converter after adjusting the offset voltage;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1769;10. A to D and D to A Converters;10.2.c;10.2.c. 4 bit unipolar D to A converter after complimenting MSB;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1769;10. A to D and D to A Converters;10.3;10.3. D to A converter in ones complement form;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1769;10. A to D and D to A Converters;10.4;10.4. 2 decade BCD D to A converter;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1769;10. A to D and D to A Converters;10.5;10.5. determine the quantization interval;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1774;11. Semiconductor Memories;11.1;11.1. Binary address of each location of size 16 words;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1774;11. Semiconductor Memories;11.2.a;11.2.a. maximum rate at which data can be stored;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1774;11. Semiconductor Memories;11.2.b;11.2.b. maximum rate at which data can be read;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1774;11. Semiconductor Memories;11.6.a;11.6.a. data output;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1774;11. Semiconductor Memories;11.6.b;11.6.b. data output;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1774;11. Semiconductor Memories;11.6.c;11.6.c. data output;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1774;11. Semiconductor Memories;11.6.d;11.6.d. data output;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1774;11. Semiconductor Memories;11.7.a;11.7.a. output and change in memory location;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1776;12. Programmable Logic Design;12.1;12.1. find the product term;correct;runtime; -462;Modern Digital Electronics(R. P. Jain);1780;14. Computer Aided Design of Digital Systems;14.2;14.2. entity construction for EXOR circuit;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1105;1. Introduction and Basic Concepts;1.1;1.1. To find mans mass and weight on earth;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1105;1. Introduction and Basic Concepts;1.2;1.2. To find height of manometer fluid;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1105;1. Introduction and Basic Concepts;1.3;1.3. To find height from ground and Kinetic Energy;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1105;1. Introduction and Basic Concepts;1.4;1.4. To determine the power developed in man;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1105;1. Introduction and Basic Concepts;1.5;1.5. To determine the force exerted pressure work done and change in potential energy;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1105;1. Introduction and Basic Concepts;1.6;1.6. To determine work done by gas;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1105;1. Introduction and Basic Concepts;1.7;1.7. To find the work done on surrounding;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1107;2. First Law of Thermodynamics;2.1;2.1. To find change in internal energy;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1107;2. First Law of Thermodynamics;2.10;2.10. To find change in enthalpy and maximum enthalpy change;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1107;2. First Law of Thermodynamics;2.11;2.11. To determine heat transfer rates;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1107;2. First Law of Thermodynamics;2.12;2.12. To find change in internal energy enthalpy heat supplied and work done;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1107;2. First Law of Thermodynamics;2.13;2.13. To determine change in internal energy and change in enthalpy;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1107;2. First Law of Thermodynamics;2.2;2.2. To find heat liberated work done and change in internal energy;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1107;2. First Law of Thermodynamics;2.3;2.3. To find the heat energy dissipated by brakes;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1107;2. First Law of Thermodynamics;2.4;2.4. To find internal energy change during each step and work done during adiabatic process;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1107;2. First Law of Thermodynamics;2.5;2.5. To find change in internal energy and enthalpy;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1107;2. First Law of Thermodynamics;2.6;2.6. To find internal energy of saturated liquid and internal energy and enthalpy of saturated vapour;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1107;2. First Law of Thermodynamics;2.7;2.7. To calculate molar internal energy change and molar enthalpy change;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1107;2. First Law of Thermodynamics;2.8;2.8. To determine the theoretical horsepower developed;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1107;2. First Law of Thermodynamics;2.9;2.9. To find temperature of water delivered to second storage tank;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1116;3. PVT Behaviour And Heat Effects;3.1;3.1. To find the molar volume of air;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1116;3. PVT Behaviour And Heat Effects;3.10;3.10. To calculate heat of formation of methane gas;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1116;3. PVT Behaviour And Heat Effects;3.11;3.11. To calculate heat of formation of chloroform;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1116;3. PVT Behaviour And Heat Effects;3.12;3.12. To calculate standard heat of reaction at 773 K;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1116;3. PVT Behaviour And Heat Effects;3.13;3.13. To determine heat added or removed;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1116;3. PVT Behaviour And Heat Effects;3.14;3.14. To calculate theoretical flame temperature;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1116;3. PVT Behaviour And Heat Effects;3.2;3.2. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1116;3. PVT Behaviour And Heat Effects;3.3;3.3. To determine heat and work effects for each step;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1116;3. PVT Behaviour And Heat Effects;3.4;3.4. To calculate change in internal energy change in enthalpy work done and heat supplied;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1116;3. PVT Behaviour And Heat Effects;3.5;3.5. To determine work done and amount of heat transferred;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1116;3. PVT Behaviour And Heat Effects;3.6;3.6. To compare the pressures;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1116;3. PVT Behaviour And Heat Effects;3.7;3.7. To calculate the volume;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1116;3. PVT Behaviour And Heat Effects;3.8;3.8. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1116;3. PVT Behaviour And Heat Effects;3.9;3.9. To calculate compressibility factor and molar volume;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1253;4. Second Law of Thermodynamics;4.1;4.1. To calculate the maximum efficiency;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1253;4. Second Law of Thermodynamics;4.10;4.10. To calculate entropy of 1 kmole of air;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1253;4. Second Law of Thermodynamics;4.11;4.11. To determine change in entropy for the reaction;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1253;4. Second Law of Thermodynamics;4.12;4.12. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1253;4. Second Law of Thermodynamics;4.13;4.13. To calculate change in entropy and check whether the process is reversible;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1253;4. Second Law of Thermodynamics;4.14;4.14. To determine the change in entropy of system;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1253;4. Second Law of Thermodynamics;4.15;4.15. To calculate entropy change;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1253;4. Second Law of Thermodynamics;4.16;4.16. To calculate entropy change in the process;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1253;4. Second Law of Thermodynamics;4.17;4.17. To calculate loss in capacity of doing work;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1253;4. Second Law of Thermodynamics;4.18;4.18. To calculate total change in entropy and available work;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1253;4. Second Law of Thermodynamics;4.19;4.19. To calculate the molar entropy of metal;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1253;4. Second Law of Thermodynamics;4.2;4.2. To determine minimum amount of work done and heat given to surrounding;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1253;4. Second Law of Thermodynamics;4.20;4.20. To calculate the absolute entropy of water vapour;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1253;4. Second Law of Thermodynamics;4.3;4.3. To determine efficiency of proposed engine;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1253;4. Second Law of Thermodynamics;4.4;4.4. To calculate entropy of evaporation;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1253;4. Second Law of Thermodynamics;4.5;4.5. To determine change in entropy;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1253;4. Second Law of Thermodynamics;4.6;4.6. To calculate the entropy change;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1253;4. Second Law of Thermodynamics;4.7;4.7. To determine change in entropy;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1253;4. Second Law of Thermodynamics;4.8;4.8. To determine the change in entropy;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1253;4. Second Law of Thermodynamics;4.9;4.9. To calculate the total entropy change;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.1;5.1. To calculate the pressure at exit;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.10;5.10. To determine COP heat rejected and lowest temperature;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.11;5.11. To determine COP at given conditions;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.12;5.12. To determine power requirement and refrigeration capacity in tonnes;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.13;5.13. To calculate the COP and refrigeration circulation rate;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.14;5.14. To determine the COP and air circulation rate;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.15;5.15. To verify that given heat pump is equivalent to 30 kW pump;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.16;5.16. To determine the amount of fuel burned;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.17;5.17. To calculate fraction of liquid in inlet stream and temperature;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.18;5.18. To determine fraction of air liquified and temperature of air;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.19;5.19. To determine ideal Rankine cycle efficiency thermal efficiency and rate of steam production;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.2;5.2. To determine quality of steam flowing through the pipe;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.20;5.20. To determine the work output thermal efficiency and rate of steam circulation;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.21;5.21. To determine fraction of steam withdrawn and thermal efficiency of cycle;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.22;5.22. To determine mean effective pressure;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.23;5.23. To determine work done thermal effeciency and mean effective pressure;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.24;5.24. To determine temperature pressure work and thermal effeciency;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.3;5.3. To determine the discharge velocity;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.4;5.4. To determine thermodynamic properties at throat and critical pressure;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.5;5.5. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.6;5.6. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.7;5.7. To calculate work required and temperature after compression;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.8;5.8. To calculate work required and temperature;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1254;5. Some Applications of the Laws of Thermodynamics;5.9;5.9. To determine the least amount of power;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.1;6.1. To determine change in entropy of system;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.10;6.10. To calculate Cv for mercury;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.11;6.11. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.12;6.12. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.13;6.13. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.14;6.14. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.15;6.15. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.16;6.16. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.17;6.17. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.18;6.18. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.19;6.19. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.2;6.2. To calculate vapour pressure of water at 363 K;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.20;6.20. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.21;6.21. To estimate the fugacity of ammonia;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.22;6.22. To determine the fugacity of gas;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.23;6.23. To determine the fugacity coeffeceint at given pressure;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.24;6.24. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.25;6.25. To determine the fugacity of pure ethylene;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.26;6.26. To determine fugacity and fugacity coeffecient of steam;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.27;6.27. To estimate fugacity of ammonia;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.28;6.28. To calculate the fugacity of liquid water;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.29;6.29. To determine the fugacity of n butane in liquid state at given conditions;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.3;6.3. To determine the melting point of mercury at 10 bar;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.30;6.30. To determine the activity of solid magnesium;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.4;6.4. To calculate increase in entropy of solid magnesium;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.5;6.5. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.6;6.6. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.7;6.7. To calculate internal energy enthalpy entropy and fre energy for 1 mole of nitrogen;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.8;6.8. To calculate entropy change and mean heat capacity;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1255;6. Thermodynamic Properties of Pure Fluids;6.9;6.9. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.1;7.1. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.10;7.10. To estimate the solubility of oxygen in water at 298 K;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.11;7.11. To confirm that mixture conforms to Raoults Law and to determine Henrys Law constant;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.12;7.12. To calculate activity and activity coeffecient of chloroform;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.13;7.13. To determine fugacity fugacity coeffecient Henrys Law constant and activity coeffecient;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.14;7.14. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.15;7.15. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.16;7.16. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.17;7.17. To determine enthalpies at infinite dilution;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.18;7.18. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.19;7.19. To determine change in entropy for the contents of the vessel;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.2;7.2. To find the volume of mixture;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.20;7.20. To determine heat of formation of LiCl in 12 moles of water;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.21;7.21. To calculate the free energy of mixing;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.22;7.22. To calculate the mean heat capacity of 20 mol percent solution;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.23;7.23. To find the final temperature attained;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.24;7.24. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.3;7.3. To find the required volume of methanol and water;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.4;7.4. To calculate the volume of water to be added and volume of dilute alcohol solution;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.5;7.5. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.6;7.6. To determine enthalpies of pure components and at infinite dilution;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.7;7.7. To calculate the partial molar volume of the components;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.8;7.8. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1256;7. Properties of Solutions;7.9;7.9. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.1;8.1. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.10;8.10. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.11;8.11. To calculate van Laar constants;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.12;8.12. To calculate activity coeffecients in a solution containing 10 percent alcohol;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.13;8.13. To calculate equilibrium vapour composition for solution containing 20 mole percent hydrazine;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.14;8.14. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.15;8.15. To determine the total pressure;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.16;8.16. To construct the Pxy diagram;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.17;8.17. To determine the composition and total pressure of azeotrope;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.18;8.18. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.19;8.19. To calculate equilibrium pressure and composition;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.2;8.2. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.20;8.20. To determine parameters in Wilsons equation;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.21;8.21. To alculate bubble and dew point and the composition;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.22;8.22. To calculate bubble and dew point temperatures;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.23;8.23. To test whetherthe given data are thermodynamically consistent or not;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.24;8.24. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.25;8.25. To estimate the constants in Margules equation;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.26;8.26. To calculate the partial pressure of water in vapour phase;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.27;8.27. to calculate under three phase equilibrium;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.28;8.28. To prepare temperature composition diagram;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.3;8.3. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.4;8.4. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.5;8.5. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.6;8.6. To determine composition of vapour and liquid in equilibrium;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.7;8.7. To determine pressure at the beginning and at the end of the process;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.8;8.8. To determine temperature pressure and compositions;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1257;8. Phase equilibria;8.9;8.9. To construct boiling point and equilibrium point diagram;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.1;9.1. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.10;9.10. to calculate equilibrium constant at 600 K;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.11;9.11. To calculate equilibrium constant at 500K;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.12;9.12. To find the value of n;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.13;9.13. To determine the percent conversion;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.14;9.14. To calculate fractional dissociation of steam;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.15;9.15. To determine conversion of nitrogen affected by argon;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.16;9.16. To calculate the fractional dissociation of steam;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.17;9.17. To calculate the fractional distillation of steam;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.18;9.18. To evaluate the percent conversion of CO;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.19;9.19. To determine the composition of gases leaving the reactor;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.2;9.2. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.20;9.20. To evaluate the equilibrium constant;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.21;9.21. To calculate the decomposition pressure and temperature at 1 bar;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.22;9.22. To evaluate wt of iron produced per 100 cubic m of gas admitted;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.23;9.23. To calculate the composition at equilibrium assuming ideal behaviour;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.24;9.24. To determine the number of degrees of freedom;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.3;9.3. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.4;9.4. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.5;9.5. Theoretical problem;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.6;9.6. To calculate equilibrium constant;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.7;9.7. To calculate equilibrium constant at 500 K;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.8;9.8. To alculate standard free energy change and heat of formation;correct;runtime; -476;A Textbook Of Chemical Engineering Thermodynamics(K. V. Narayanan);1258;9. Chemical Reaction Equilibria;9.9;9.9. To estimate free energy change and equilibrium constant at 700 K;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1108;1. Introduction;1.1;1.1. To determine the force exerted;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1108;1. Introduction;1.2;1.2. Theoretical problem;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1108;1. Introduction;1.3;1.3. Theoretical problem;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1108;1. Introduction;1.4;1.4. To determine the mass of water required;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1108;1. Introduction;1.5;1.5. To Calculate the work obtained;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1108;1. Introduction;1.6;1.6. To Calculate the work done;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1109;2. P V T Relations;2.1;2.1. To determine the temperature required;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1109;2. P V T Relations;2.10;2.10. To calculate the amount of Ammonia leaving the reactor and the velocity of gaseous product leaving the reactor;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1109;2. P V T Relations;2.2;2.2. Theoretical problem;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1109;2. P V T Relations;2.3;2.3. Theoretical problem;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1109;2. P V T Relations;2.4;2.4. Theoretical problem;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1109;2. P V T Relations;2.5;2.5. To calculate the volume of Methane;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1109;2. P V T Relations;2.6;2.6. To calculate the final pressure acheived;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1109;2. P V T Relations;2.7;2.7. To compute the work required;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1109;2. P V T Relations;2.8;2.8. To determine the vapour pressure of Chlorine;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1109;2. P V T Relations;2.9;2.9. To calculate the pressure exerted by the gas mixture;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1259;3. First Law of Thermodynamics;3.1;3.1. To calculate the change in internal energy;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1259;3. First Law of Thermodynamics;3.10;3.10. To calculate the pump work required;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1259;3. First Law of Thermodynamics;3.11;3.11. To calculate the quality of exit steam;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1259;3. First Law of Thermodynamics;3.12;3.12. To calculate the internal energy of the steam in the chamber;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1259;3. First Law of Thermodynamics;3.13;3.13. To calculate the final weight and the final temperature of the air in the tank;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1259;3. First Law of Thermodynamics;3.14;3.14. Theoretical problem;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1259;3. First Law of Thermodynamics;3.2;3.2. To calculate the change in internal energy;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1259;3. First Law of Thermodynamics;3.3;3.3. To calculate the work done by the expanding gas and increase in internal energy;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1259;3. First Law of Thermodynamics;3.4;3.4. To calculate the time taken for the gas to attain 10 atm;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1259;3. First Law of Thermodynamics;3.5;3.5. Theoretical problem;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1259;3. First Law of Thermodynamics;3.6;3.6. To calculate the flow work per kg of air;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1259;3. First Law of Thermodynamics;3.7;3.7. To calculate the horse power output of the turbine;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1259;3. First Law of Thermodynamics;3.8;3.8. To find out the enthalpy of water of tank2 and find out the temperature of water in the second tank;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1259;3. First Law of Thermodynamics;3.9;3.9. To calculate the mass of steam required;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1260;4. Second Law of Thermodynamics;4.1;4.1. To Calculate work output heat rejected entropy change of system and the surronding and total change in entropy and the efficiency of the heat engine;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1260;4. Second Law of Thermodynamics;4.10;4.10. Theoretical problem;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1260;4. Second Law of Thermodynamics;4.2;4.2. To calculate the total change in entropy and hence determine the reversibility of the process;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1260;4. Second Law of Thermodynamics;4.3;4.3. To find out entropy change of block air and total entropy change;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1260;4. Second Law of Thermodynamics;4.4;4.4. To calculate the total change in entropy;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1260;4. Second Law of Thermodynamics;4.5;4.5. To calculate the entropy change;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1260;4. Second Law of Thermodynamics;4.6;4.6. Theoretical problem;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1260;4. Second Law of Thermodynamics;4.7;4.7. To calculate the horse power of the compressor;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1260;4. Second Law of Thermodynamics;4.8;4.8. To calculate the effectiveness of the process;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1260;4. Second Law of Thermodynamics;4.9;4.9. To Calculate the maximum work obtained and the entropy change;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1262;5. Thermodynamic Potentials and Maxwell Relation;5.1;5.1. To Calculate the efficiency of the separation process;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1263;6. Thermodynamic Relations;6.0;6.0. Theoretical problem;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1264;7. Ideal Gases;7.1;7.1. Theoretical problem;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1264;7. Ideal Gases;7.2;7.2. Theoretical problem;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1264;7. Ideal Gases;7.3;7.3. To Calculate the final temperature of the ideal gas and work done in an open and closed system and internal energy change for the process;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1264;7. Ideal Gases;7.4;7.4. Theoretical problem;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1264;7. Ideal Gases;7.5;7.5. To Compute change in enthalpy entropy heat work and for the processes given above and to indicate the quantities that are state functions and to verify that the work required in an isothermal process is less than that in an adiabatic process;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1265;8. Third Law of Thermodynamics;8.1;8.1. To calculate the absolute entropy of copper at 300 K;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1267;9. Fluid Flow in Pipes and Nozzles;9.1;9.1. To find out the pressure at the final point;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1267;9. Fluid Flow in Pipes and Nozzles;9.2;9.2. To find out the mass rate of alcohol;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1267;9. Fluid Flow in Pipes and Nozzles;9.3;9.3. To plot velocity and specific volume and mass velocity against the ratio of P2 and P1 and to calculate the critical pressure and critical mass velocity and mass rate of flow;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1267;9. Fluid Flow in Pipes and Nozzles;9.4;9.4. To calculate the area at exit of nozzle and hence decide the type of the nozzle;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1269;10. Compressor;10.1;10.1. To calculate the horsepower required;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1269;10. Compressor;10.2;10.2. To calculate the volumetric efficiency and the maximum possible pressure that can be attained in a single stage;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1269;10. Compressor;10.3;10.3. To calculate the capacity and the actual horse power of the compressor;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1269;10. Compressor;10.4;10.4. To Calculate the theoretical horse power required;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1269;10. Compressor;10.5;10.5. To find out the presure between stages;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1271;11. Liquefaction of Gases;11.1;11.1. To Calculate the dryness fraction of exit stream and the ratio of upstream to downstream diameters;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1271;11. Liquefaction of Gases;11.2;11.2. To Calculate the temperature of the throttled gas;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1271;11. Liquefaction of Gases;11.3;11.3. To Calculate the fraction of air liquified at steady state and temperature of air before throttling;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1272;12. Refrigeration;12.1;12.1. To Calculate the theoretical horse power required;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1272;12. Refrigeration;12.2;12.2. To Calculate the compressor load;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1272;12. Refrigeration;12.3;12.3. To Calculate the COP mass of refrigerant required and compressor horse power required and the COP and compressor horse power for a reversed Carnot cycle;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1272;12. Refrigeration;12.4;12.4. To calculate the pressure in the tank and the amount of make up water required;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1274;13. Thermodynamics in Phase Equilibria;13.1;13.1. To Calculate the fugacity of N2 at 373K and 100 atm;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1274;13. Thermodynamics in Phase Equilibria;13.10;13.10. Theoretical problem;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1274;13. Thermodynamics in Phase Equilibria;13.11;13.11. Theoretical problem;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1274;13. Thermodynamics in Phase Equilibria;13.12;13.12. To Calculate the partial pressure of toulene in the solution and check with the experimental value;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1274;13. Thermodynamics in Phase Equilibria;13.13;13.13. To Check whether the activity coefficient of the solution can be represented by the Margules equation;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1274;13. Thermodynamics in Phase Equilibria;13.14;13.14. To Calculate the composition of the vapour evolved;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1274;13. Thermodynamics in Phase Equilibria;13.15;13.15. To plot a graph between temperature and vapour phase composition;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1274;13. Thermodynamics in Phase Equilibria;13.16;13.16. To Calculate the heat of vapourization of toulene by using ideal gas law and second virial coefficient but neglecting vl and including vl;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1274;13. Thermodynamics in Phase Equilibria;13.17;13.17. To Calculate the heat of vapourisation of water by Vishwanath and Kuloor method and by Riedel method and compare with the experimental value;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1274;13. Thermodynamics in Phase Equilibria;13.18;13.18. To Calculate the latent heat of saturated ethane at 0 deg cel;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1274;13. Thermodynamics in Phase Equilibria;13.19;13.19. To calculate the latent heat of the solution and compare it with the one which calculated from the given vapour pressure equation;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1274;13. Thermodynamics in Phase Equilibria;13.2;13.2. To Calculate the fugacity of liquid water;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1274;13. Thermodynamics in Phase Equilibria;13.3;13.3. To Calculate the bubble point pressure of the solution;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1274;13. Thermodynamics in Phase Equilibria;13.4;13.4. To Calculate the equilibrium data and compare with the experimental values;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1274;13. Thermodynamics in Phase Equilibria;13.5;13.5. Theoretical problem;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1274;13. Thermodynamics in Phase Equilibria;13.6;13.6. To Calculate the volume of 10 percent dichloromethane solution;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1274;13. Thermodynamics in Phase Equilibria;13.7;13.7. To Calculate the vapour pressure of the solution and bubble point at 686 mm Hg and the vapour composition at equilibrium;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1274;13. Thermodynamics in Phase Equilibria;13.8;13.8. To Calculate the heating load required for the process;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1274;13. Thermodynamics in Phase Equilibria;13.9;13.9. Theoretical problem;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1275;14. Thermodynamics of Chemical Reactions;14.1;14.1. To Calculate the standard heats of reaction at 25 deg celsius;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1275;14. Thermodynamics of Chemical Reactions;14.10;14.10. To Calculate the final temperature for various conversions and the maximum conversion that can be attained in a single reactor operating adiabatically;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1275;14. Thermodynamics of Chemical Reactions;14.11;14.11. To Calculate the conversion of benzene at 25 degree celsius and 1 atm;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1275;14. Thermodynamics of Chemical Reactions;14.12;14.12. To Calculate the maximum CH4 concentration under the condition of 2 atm and the quantity of methane obtained if pressure is 1 atm;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1275;14. Thermodynamics of Chemical Reactions;14.13;14.13. To Calculate the partial pressure of CO2 required for decomposition and thus determine whether Ag2CO3 will decomposes or not at the given pressure and temperature;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1275;14. Thermodynamics of Chemical Reactions;14.14;14.14. Theoretical problem;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1275;14. Thermodynamics of Chemical Reactions;14.15;14.15. To Calculate the equilibrium composition of the mixture;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1275;14. Thermodynamics of Chemical Reactions;14.2;14.2. To Calculate the sensible heat required;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1275;14. Thermodynamics of Chemical Reactions;14.3;14.3. To Calculate the heat must be removed if the product temperature should not exceed 260 deg cel;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1275;14. Thermodynamics of Chemical Reactions;14.4;14.4. To Calculate the theoretical flame temperature when both air and CO2 enter at 95 deg celsius;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1275;14. Thermodynamics of Chemical Reactions;14.5;14.5. To Calculate the standard free energy for the reaction;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1275;14. Thermodynamics of Chemical Reactions;14.6;14.6. To show the variation of the standard heats of reaction with temperature and the equilibrium constant with temperature graphically in the given temperature range;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1275;14. Thermodynamics of Chemical Reactions;14.7;14.7. To Calculate the conversion of SO2 to SO3 at 1atm and at various temperature;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1275;14. Thermodynamics of Chemical Reactions;14.8;14.8. Theoretical problem;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1275;14. Thermodynamics of Chemical Reactions;14.9;14.9. To find out the equilibrium has been attained or not If not then calculate the equilibrium composition and also find out whether the equilibrium composition will change or not if pressure were increased to 3 atm;correct;runtime; -479;Chemical Engineering Thermodynamics(S. Sundaram);1276;15. Fuel Cells;15.1;15.1. To Calculate the emf of the cell and the cell efficiency and heat to be removed to maintain isothermal conditions;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1390;1. Tension Comprssion and Shear;1.1;1.1. Determine the compressive stress and strain in the post;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1390;1. Tension Comprssion and Shear;1.2;1.2. Calculation of maximum stress;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1390;1. Tension Comprssion and Shear;1.3;1.3. Determination of various structural properties of the pipe;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1390;1. Tension Comprssion and Shear;1.4;1.4. Calculation of average shear and compressive stress in a punch;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1390;1. Tension Comprssion and Shear;1.5;1.5. Determination of various structural properties of the pin;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1390;1. Tension Comprssion and Shear;1.7;1.7. Determination of allowable tensile load;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1390;1. Tension Comprssion and Shear;1.8;1.8. Determination of required cross section area of the bar;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1391;2. Axially Loaded Members;2.1;2.1. Calculation of number of revolutions of the nut that are required to bring the pointer back to the mark;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1391;2. Axially Loaded Members;2.10;2.10. Determination of state of stress in a bar;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1391;2. Axially Loaded Members;2.11;2.11. Determination of minimum width of the bar;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1391;2. Axially Loaded Members;2.15;2.15. Comparison of energy absorbing capacity of the three bolt;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1391;2. Axially Loaded Members;2.16;2.16. Calculation of maximum elongation and maximum tensile stress in a bar;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1391;2. Axially Loaded Members;2.18;2.18. Determination of displacement at the lower end of the bar under various conditions;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1391;2. Axially Loaded Members;2.2;2.2. Calculation of maximum allowable load;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1391;2. Axially Loaded Members;2.3;2.3. Calculation of vertical displacement at point C;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1391;2. Axially Loaded Members;2.6;2.6. Calculation of the allowable load;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1392;3. Torsion;3.1;3.1. Calculation of maximum shear stress and permissible torque in the bar;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1392;3. Torsion;3.10;3.10. evaluation of the strain energy for different cases;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1392;3. Torsion;3.11;3.11. Evaluation of the strain energy of a hollow shaft;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1392;3. Torsion;3.2;3.2. Calculation of required diameter for solid and hollow shaft;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1392;3. Torsion;3.4;3.4. Determination of maximum shear stress in each part of the shaft and the angle of twist;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1392;3. Torsion;3.6;3.6. Calculation of various stress and strain in circular tube;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1392;3. Torsion;3.7;3.7. Calculation of the required diameter d of the shaft;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1392;3. Torsion;3.8;3.8. Calculation of maximum shear stress tmax in the shaft and the angle of twist;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1393;4. Shear Forces and Bending Moments;4.3;4.3. Calculation of the shear force and the bending moment of the cross section;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1393;4. Shear Forces and Bending Moments;4.7;4.7. Shear force nd bending moment diagramme;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1394;5. Stresses in Beams Basic Topics;5.1;5.1. Determination of radius of curvature and deflection in a simply supported beam;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1394;5. Stresses in Beams Basic Topics;5.11;5.11. Determination of the normal stress and shear stress at point C;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1394;5. Stresses in Beams Basic Topics;5.12;5.12. Determination of the maximum permissible value Pmax of the loads;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1394;5. Stresses in Beams Basic Topics;5.13;5.13. Determination of the maximum shear stress in the pole and diameter d0 of a solid circular pole;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1394;5. Stresses in Beams Basic Topics;5.14;5.14. Determination of the maximum shear stress minimum shear stress and total shear force in the web;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1394;5. Stresses in Beams Basic Topics;5.15;5.15. Determination of the shear stress t1 at the top of the web and the maximum shear stress tmax;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1394;5. Stresses in Beams Basic Topics;5.16;5.16. determination of the maximum permissible longitudinal spacing of the screws;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1394;5. Stresses in Beams Basic Topics;5.17;5.17. Determination of the maximum tensile and compressive stresses in the beam due to a load;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1394;5. Stresses in Beams Basic Topics;5.2;5.2. Determination of the bending moment M and maximum bending stress smax in the wire;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1394;5. Stresses in Beams Basic Topics;5.3;5.3. Determination of maximum tensile and compressive stresses in the beam due to bending;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1394;5. Stresses in Beams Basic Topics;5.4;5.4. Determination the maximum tensile and compressive stresses in the beam due to the uniform load;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1394;5. Stresses in Beams Basic Topics;5.5;5.5. Selection of the suitable size for the beam;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1394;5. Stresses in Beams Basic Topics;5.6;5.6. Calculation of minimum required diameter in the wood and alluminium rod;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1394;5. Stresses in Beams Basic Topics;5.7;5.7. Selection of the steel beam;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1394;5. Stresses in Beams Basic Topics;5.8;5.8. Determination of the minimum required dimension b of the posts;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1396;6. Stresses in Beams Advanced Topics;6.1;6.1. Calculation of stresses in wood and steel;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1396;6. Stresses in Beams Advanced Topics;6.2;6.2. Determination of the maximum tensile and compressive stresses in the faces and the core;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1396;6. Stresses in Beams Advanced Topics;6.3;6.3. Calculation of stresses in wood and steel;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1396;6. Stresses in Beams Advanced Topics;6.4;6.4. Determination of the maximum tensile and compressive stresses in the beam and locating the neutral axis;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1396;6. Stresses in Beams Advanced Topics;6.5;6.5. Determination of the maximum bending stresses in the beam;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1396;6. Stresses in Beams Advanced Topics;6.6;6.6. Calculation of the bending stresses and location of neutral axis;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1396;6. Stresses in Beams Advanced Topics;6.9;6.9. Determination of the magnitude of the moment;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1397;7. Analysis of Stress and Strain;7.1;7.1. Determination of the stresses acting on an inclined element;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1397;7. Analysis of Stress and Strain;7.2;7.2. Determination of stresses acting on inclined element;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1397;7. Analysis of Stress and Strain;7.3;7.3. Determination of stresses acting on inclined element;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1397;7. Analysis of Stress and Strain;7.4;7.4. Determination of stresses acting on inclined element using mohrs circle;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1397;7. Analysis of Stress and Strain;7.5;7.5. Determination of stresses acting on inclined element using Mohrs circle;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1397;7. Analysis of Stress and Strain;7.6;7.6. Determination of stresses acting on inclined element using mohrs circle;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1397;7. Analysis of Stress and Strain;7.7;7.7. Determination of various strain on inclined element;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1398;8. Applications of Plane Stress Pressure Vessels Beams and Combined Loadings;8.1;8.1. Calculation of maximum permissible pressure under various conditions;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1398;8. Applications of Plane Stress Pressure Vessels Beams and Combined Loadings;8.2;8.2. Calculation of various stresses and strain in cylindrical part of the vessel;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1398;8. Applications of Plane Stress Pressure Vessels Beams and Combined Loadings;8.3;8.3. Investigation of the principal stresses and maximum shear stresses at cross section mn;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1398;8. Applications of Plane Stress Pressure Vessels Beams and Combined Loadings;8.4;8.4. Determination of stresses in the shaft;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1398;8. Applications of Plane Stress Pressure Vessels Beams and Combined Loadings;8.5;8.5. Determination of the maximum allowable internal pressure;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1398;8. Applications of Plane Stress Pressure Vessels Beams and Combined Loadings;8.6;8.6. Determination of stresses due to wind pressure;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1398;8. Applications of Plane Stress Pressure Vessels Beams and Combined Loadings;8.7;8.7. Determination of stresses due to loads;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1399;11. Columns;11.1;11.1. Determination of the allowable load using a factor of safety with respect to Euler buckling of the column;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1399;11. Columns;11.2;11.2. Determine the minimum required thickness t of the columns wrt Eular bucking of column;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1399;11. Columns;11.3;11.3. Determination of longest permissible length of rod;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1399;11. Columns;11.4;11.4. Calculation of compressive stress and factor of safety;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1399;11. Columns;11.5;11.5. Calculation of allowable axial load and maximum permissible length;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1399;11. Columns;11.6;11.6. Finding the minimum required thickness for a steel pipe column;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1399;11. Columns;11.7;11.7. Determination of the minimum required outer diameter of aluminium tube;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1399;11. Columns;11.8;11.8. Determination of allowable axial load maximum allowable length and minimum width of the cross section;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1400;12. Review of Centroids and Moments of Inertia;12.2;12.2. Locating centroid C of the cross sectional area;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1400;12. Review of Centroids and Moments of Inertia;12.5;12.5. Determination of the moment of inertia Ic with respect to the horizontal axis;correct;runtime; -491;Mechanics Of Material(J. M. Gere);1400;12. Review of Centroids and Moments of Inertia;12.7;12.7. Determination of the orientations of the principal centroidal axes and the magnitudes of the principal centroidal moments of inertia for the cross sectional area;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1657;1. Aerodynamics Some Introductory Thoughts;1.1;1.1. Calculation of drag coefficient over a wedge;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1657;1. Aerodynamics Some Introductory Thoughts;1.3;1.3. Calculation of center of pressure for a NACA 4412 airfoil;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1657;1. Aerodynamics Some Introductory Thoughts;1.5;1.5. Calculation of parametres for wind tunnel testing;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1657;1. Aerodynamics Some Introductory Thoughts;1.6;1.6. Calculation of cruise lift coefficient and lift to drag ratio of a Cesna 560;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1657;1. Aerodynamics Some Introductory Thoughts;1.7;1.7. Calculation of maximum lift coefficient for Cesna 560;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1657;1. Aerodynamics Some Introductory Thoughts;1.8.a;1.8.a. calculation of upward acceleration of a hot air balloon;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1657;1. Aerodynamics Some Introductory Thoughts;1.8.b;1.8.b. Calculation of maximum altitude for the hot air balloon;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1663;2. Aerodynamics Some Fundamental Principles and Equations;2.1;2.1. Calculation of time rate of change of volume of the fluid element per unit volume for the given velocity field;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1664;3. Fundamentals of Inviscid Incompressible Flow;3.1;3.1. Calculation of velocity on a point on the airfoil;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1664;3. Fundamentals of Inviscid Incompressible Flow;3.10;3.10. Calculation of equivallent air speed for an aircraft flying at a certain altitude;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1664;3. Fundamentals of Inviscid Incompressible Flow;3.11;3.11. Calculation of pressure coefficient on a point on an airfoil;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1664;3. Fundamentals of Inviscid Incompressible Flow;3.12.a;3.12.a. Calculation of velocity on a point on the airfoil for a given pressure coefficient;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1664;3. Fundamentals of Inviscid Incompressible Flow;3.12.b;3.12.b. Calculation of velocity on a point on the airfoil for a given pressure coefficient;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1664;3. Fundamentals of Inviscid Incompressible Flow;3.13;3.13. Calculation of locations on cylinder where the surface pressure equals the freestream pressure;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1664;3. Fundamentals of Inviscid Incompressible Flow;3.14;3.14. Calculation of the peak negative pressure coefficient for a given lift coefficient;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1664;3. Fundamentals of Inviscid Incompressible Flow;3.15;3.15. Calculation of stagnation points and locations on cylinder where the surface pressure equals the freestream pressure;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1664;3. Fundamentals of Inviscid Incompressible Flow;3.16;3.16. Calculation of lift per unit span of the cylinder;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1664;3. Fundamentals of Inviscid Incompressible Flow;3.2;3.2. Calculation of pressure on a point on the airfoil;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1664;3. Fundamentals of Inviscid Incompressible Flow;3.3;3.3. Calculation of velocity at the inlet of a venturimeter for a given pressure difference;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1664;3. Fundamentals of Inviscid Incompressible Flow;3.4;3.4. Calculation of height difference in a U tube mercury manometer;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1664;3. Fundamentals of Inviscid Incompressible Flow;3.5;3.5. Calculation of the maximum allowable pressure difference between the wind tunnel settling chamber and test section;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1664;3. Fundamentals of Inviscid Incompressible Flow;3.6.a;3.6.a. Calculation of reservoir pressure in a nozzle;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1664;3. Fundamentals of Inviscid Incompressible Flow;3.6.b;3.6.b. Calculation of increment in the reservoir pressure;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1664;3. Fundamentals of Inviscid Incompressible Flow;3.7;3.7. Calculation of airplane velocity from pitot tube measurement;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1664;3. Fundamentals of Inviscid Incompressible Flow;3.8;3.8. Calculation of pressure measured by the pitot tube for a given velocity;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1664;3. Fundamentals of Inviscid Incompressible Flow;3.9;3.9. Calculation of airplane velocity from pitot tube measurement;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1665;4. Incompressible Flow over Airfoils;4.1;4.1. Calculation of angle of attack and drag per unit span of a NACA 2412 airfoil;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1665;4. Incompressible Flow over Airfoils;4.10;4.10. Calculation of net skin friction drag coefficient for NACA 2412 airfoil;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1665;4. Incompressible Flow over Airfoils;4.2;4.2. Calculation of moment per uint span about the aerodynamic center of a NACA 2412 airfoil;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1665;4. Incompressible Flow over Airfoils;4.3;4.3. Compare lift to drag ratios at different angle of attacks for a NACA 2412 airfoil for a given Reynolds number;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1665;4. Incompressible Flow over Airfoils;4.4;4.4. Calculation of lift and moment coefficients for a thin flat plate at a given angle of attack;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1665;4. Incompressible Flow over Airfoils;4.5;4.5. Calculation of diiferent attributes of an airfoil using thin airfoil theory for a cambered airfoil;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1665;4. Incompressible Flow over Airfoils;4.6;4.6. Calculation of location of aerodynamic center for a NACA 23012 airfoil;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1665;4. Incompressible Flow over Airfoils;4.7;4.7. Calculation of laminar boundary layer thickness and the net laminar skin friction drag coefficient for a NACA 2412 airfoil;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1665;4. Incompressible Flow over Airfoils;4.8;4.8. Calculation of turbulent boundary layer thickness and the net turbulent skin friction drag coefficient for a NACA 2412 airfoil;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1665;4. Incompressible Flow over Airfoils;4.9;4.9. Calculation of net skin friction drag coefficient for NACA 2412 airfoil;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1666;5. Incompressible Flow over Finite Wings;5.1;5.1. Calculation of lift and induced drag coefficients for a finite wing;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1666;5. Incompressible Flow over Finite Wings;5.2;5.2. Calculation of induced drag coefficient for a finite wing;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1666;5. Incompressible Flow over Finite Wings;5.3;5.3. Calculation of angle of attack of an airplane at cruising conditions;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1666;5. Incompressible Flow over Finite Wings;5.4;5.4. Calculation of lift and drag coefficients for a Beechcraft Baron 58 aircraft wing;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1667;7. Compressible Flow Some Preliminary Aspects;7.1;7.1. Calculation of internal energy and enthalpy of air in a room;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1667;7. Compressible Flow Some Preliminary Aspects;7.2;7.2. Calculation of temperature at a point on the Boeing 747 wing;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1667;7. Compressible Flow Some Preliminary Aspects;7.3;7.3. Calculation of total temperature and total pressure at a point in the flow;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1668;8. Normal Shock Waves and Related Topics;8.1;8.1. Calculation of Mach number at different flying altitudes;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1668;8. Normal Shock Waves and Related Topics;8.10;8.10. Calculation of air temperature and pressure for a given value of local mach number;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1668;8. Normal Shock Waves and Related Topics;8.11;8.11. Calculation of air temperature and pressure for a given value of local mach number;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1668;8. Normal Shock Waves and Related Topics;8.13;8.13. Calculation of stagnation pressure at the stagnation point on the nose for a hypersonic missile;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1668;8. Normal Shock Waves and Related Topics;8.14;8.14. Calculation of velocity of a Lockheed SR71 Blackbird at given flight conditions;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1668;8. Normal Shock Waves and Related Topics;8.2;8.2. Calculation of Mach number at a given point;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1668;8. Normal Shock Waves and Related Topics;8.3;8.3. Calculation of ratio of kinetic energy to internal energy at a point in an airflow for given mach numbers;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1668;8. Normal Shock Waves and Related Topics;8.4;8.4. Calculation of total temperature and total pressure at a point in the flow;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1668;8. Normal Shock Waves and Related Topics;8.5;8.5. Calculation of local stagnation temperature and pressure speed of sound and mach number at the given point;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1668;8. Normal Shock Waves and Related Topics;8.6;8.6. Calculation of local mach number at the given point on the airfoil;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1668;8. Normal Shock Waves and Related Topics;8.7;8.7. Calculation of velocity on a point on the airfoil for compressible flow;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1668;8. Normal Shock Waves and Related Topics;8.8;8.8. Calculation of velocity temperature and pressure downstream of a shock;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1668;8. Normal Shock Waves and Related Topics;8.9;8.9. Calculation of loss of total pressure across a shock wave for given values of mach number;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1748;9. Oblique Shock and Expansion Waves;9.1;9.1. Calculation of the horizontal distance between a supersonic aircraft from a bystander at the instant he hears the sonic boom from the aircraft;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1748;9. Oblique Shock and Expansion Waves;9.10;9.10. Calculation of mach number static pressure and stagnation pressure behind an oblique shock wave;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1748;9. Oblique Shock and Expansion Waves;9.11;9.11. Calculation of the lift and drag coefficients of a flat plate in a supersonic flow;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1748;9. Oblique Shock and Expansion Waves;9.2;9.2. Calculation of flow mach number pressure temperature and stagnation pressure and temperature just behind an oblique shock wave;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1748;9. Oblique Shock and Expansion Waves;9.3;9.3. Calculation of deflection angle of the flow and the pressure and temperature ratios accross the shock wave and the mach number the wave;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1748;9. Oblique Shock and Expansion Waves;9.4;9.4. Calculation of mach number upstream of an oblique shock;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1748;9. Oblique Shock and Expansion Waves;9.5;9.5. Calculation of the final total pressure values for the two given cases;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1748;9. Oblique Shock and Expansion Waves;9.6;9.6. Calculation of the drag coefficient of a wedge in a hypersonic flow;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1748;9. Oblique Shock and Expansion Waves;9.7;9.7. Calculation of the angle of deflected shock wave related to the straight wall and the pressure temperature and mach number behind the reflected wave;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1748;9. Oblique Shock and Expansion Waves;9.8;9.8. Calculation of mach number pressure temperature and stagnation pressure temperature and mach line angles behind an expansion wave;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1748;9. Oblique Shock and Expansion Waves;9.9;9.9. Calculation of mach number and pressure behind a compression wave;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1749;10. Compressible Flow Through Nozzles Diffusers and Wind Tunnels;10.1;10.1. Calculation of mach number pressure and temperature at the nozzle exit;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1749;10. Compressible Flow Through Nozzles Diffusers and Wind Tunnels;10.2;10.2. Calculation of isentropic flow conditions through a CD nozzle for a supersonic and subsonic flow;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1749;10. Compressible Flow Through Nozzles Diffusers and Wind Tunnels;10.3;10.3. Calculation of throat and exit mach numbers for the nozzle used in previous example for the given exit pressure;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1749;10. Compressible Flow Through Nozzles Diffusers and Wind Tunnels;10.4;10.4. Calculation of thrust for the given rocket engine and the nozzle exit area;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1749;10. Compressible Flow Through Nozzles Diffusers and Wind Tunnels;10.5;10.5. Calculation of mass flow through the rocket engine used in the previous example;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1749;10. Compressible Flow Through Nozzles Diffusers and Wind Tunnels;10.6;10.6. Calculation of the ratio of diffuser throat area to the nozzle throat area for a supersonic wind tunnel;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1750;11. Subsonic Compressible Flow over Airfoils Linear Theory;11.1;11.1. Calculation of pressure coefficient on a point on an airfoil with compressibilty corrections;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1750;11. Subsonic Compressible Flow over Airfoils Linear Theory;11.2;11.2. Calculatiom of the lift coefficient for an airfoil with compressibility corrections;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1751;12. Linearized Supersonic Flow;12.1;12.1. Calculation of lift and drag coefficients for a flat plate in a supersonic flow using linearized theory;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1751;12. Linearized Supersonic Flow;12.2;12.2. Calculation of angle of attack of a Lockheed F104 wing in a supersonic flow;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1751;12. Linearized Supersonic Flow;12.3;12.3. Calculation of the airfoil skin friction drag coefficient and the airfoil drag coefficient for the wing used in the previous example;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1752;14. Elements of Hypersonic Flow;14.1;14.1. Calculation of the pressure coefficients on the top and bottom surface the lift and drag coefficients and the lift to drag ratio using the exact shock expansion theory and the newtonian theory for an infinitely thin flat plate in a hypersonic flow;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1754;16. Some Special Cases Couette and Poiseuille Flows;16.1;16.1. Calculation of the velocity in the middle of the flow the shear stress the maximum temperature in the flow the heat transfer to either wall and the temperature of the lower wall if it is suddenly made adiabatic;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1754;16. Some Special Cases Couette and Poiseuille Flows;16.2;16.2. Calculation of the heat transfer to either plate for the given geometry;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1755;18. Laminar Boundary Layers;18.1;18.1. Calculation of the friction drag on a flat plate for the given velocities;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1755;18. Laminar Boundary Layers;18.2;18.2. Calculation of the friction drag on a flat plate using the reference temperature method;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1755;18. Laminar Boundary Layers;18.3;18.3. Calculation of the friction drag on a flat plate using the Meador Smart equation for the reference temperature;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1756;19. Turbulent Boundary Layers;19.1;19.1. Calculation of the friction drag on a flat plate assuming turbulent boundary layer for the given velocities;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1756;19. Turbulent Boundary Layers;19.2;19.2. Calculation of the friction drag on a flat plate assuming turbulent boundary layer using reference temperature method;correct;runtime; -494;Fundamentals Of Aerodynamics(J. D. Anderson Jr.);1756;19. Turbulent Boundary Layers;19.3;19.3. Calculation of the friction drag on a flat plate for a turbulent boundary layer using the Meador Smart reference temperature method;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1413;3. Fluidization and Mapping of Regimes;3.1;3.1. Size Measure of Nonuniform Solids;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1413;3. Fluidization and Mapping of Regimes;3.2;3.2. Estimation of Minimum Fluidizing Velocity;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1413;3. Fluidization and Mapping of Regimes;3.3;3.3. Estimation of Terminal Velocity of Falling Particles;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1413;3. Fluidization and Mapping of Regimes;3.4;3.4. Prediction of Flow Regimes;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1539;4. The Dense Bed;4.1;4.1. Design of a Perforated Plate Distributor;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1539;4. The Dense Bed;4.2;4.2. Design of a Tuyere Distributor;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1539;4. The Dense Bed;4.3;4.3. Power Requirement for a Fluidized Coal Combustor;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1540;5. Bubbles in Dense Beds;5.1;5.1. Characteristics of a Singe Bubble;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1540;5. Bubbles in Dense Beds;5.2;5.2. Initial Bubble Size at a Distributor;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1541;6. Bubbling Fluidized Beds;6.1;6.1. Bubble Size and Rise Velocity in Geldart A Beds;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1541;6. Bubbling Fluidized Beds;6.2;6.2. Bubble Size and Rise Velocity in Geldart B Beds;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1541;6. Bubbling Fluidized Beds;6.3;6.3. Scale down of a Commercial Chlorinator;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1541;6. Bubbling Fluidized Beds;6.4;6.4. Reactor Scale up for Geldart A Catalyst;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1541;6. Bubbling Fluidized Beds;6.5;6.5. Reactor Scale up for Geldart B Catalyst;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1863;7. Entrainment and Elutriation from Fluidized Beds;7.1;7.1. Entrainment from fine particle beds with high freeboard;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1863;7. Entrainment and Elutriation from Fluidized Beds;7.2;7.2. Entrainment from large particle beds with high freeboard;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1863;7. Entrainment and Elutriation from Fluidized Beds;7.3;7.3. Entrainment from beds with a wide size distribution of solids;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1863;7. Entrainment and Elutriation from Fluidized Beds;7.4;7.4. kstar from steady state experiments;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1863;7. Entrainment and Elutriation from Fluidized Beds;7.5;7.5. Comparing predictions for kstar;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1863;7. Entrainment and Elutriation from Fluidized Beds;7.6;7.6. Entrainment from a short vessel;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1898;8. High velocity Fluidization;8.1;8.1. Performance of a Fast Fluidized Vessel;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1906;9. Solid Movement Mixing Segregation and Staging;9.1;9.1. Vertical Movement of Solids;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1906;9. Solid Movement Mixing Segregation and Staging;9.2;9.2. Horizontal Drift Of Solids;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1906;9. Solid Movement Mixing Segregation and Staging;9.3;9.3. Design of Baffle Plates;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1962;10. Gas Dispersion and Gas Interchange in Bubbling Beds;10.1;10.1. Estimate Interchange Coefficients in Bubbling Beds;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1962;10. Gas Dispersion and Gas Interchange in Bubbling Beds;10.2;10.2. Compare the Relative Importance of Kbc and Kce;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1962;10. Gas Dispersion and Gas Interchange in Bubbling Beds;10.3;10.3. Compare Interchange Rates for Adsorbed and Nonadsorbed Gases;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1911;11. Particle to Gas Mass and Heat Transfer;11.1;11.1. Fitting Reported Mass Transfer Data with the Bubbling Bed Model;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1911;11. Particle to Gas Mass and Heat Transfer;11.2;11.2. The Effect of m on Bubble Emulsion Interchange;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1911;11. Particle to Gas Mass and Heat Transfer;11.3;11.3. Fitting Reported Heat Transfer Data with the Bubbling Bed Model;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1911;11. Particle to Gas Mass and Heat Transfer;11.4;11.4. Heating a Particle in a Fluidized Bed;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1964;12. Conversion of Gas in Catalytic Reactions;12.1;12.1. Fine Particle Geldart A Bubbling Bed Reactor;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1964;12. Conversion of Gas in Catalytic Reactions;12.2;12.2. Commercial Sized Phthalic Anhydride Reactor;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1964;12. Conversion of Gas in Catalytic Reactions;12.3;12.3. Bubbling Bed Reactor for Intermediate Sized Reactor;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1964;12. Conversion of Gas in Catalytic Reactions;12.4;12.4. Reaction in the Slow Bubble Regime;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1964;12. Conversion of Gas in Catalytic Reactions;12.5;12.5. Conversion in the Freeboard of a Reactor;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1958;13. Heat Transfer between Fluidized Beds and Surfaces;13.1;13.1. h on a Horizontal Tube Bank;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1958;13. Heat Transfer between Fluidized Beds and Surfaces;13.2;13.2. Effect of Gas Properties on h;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1958;13. Heat Transfer between Fluidized Beds and Surfaces;13.3;13.3. Effect of Particle Size on h;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1958;13. Heat Transfer between Fluidized Beds and Surfaces;13.4;13.4. Freeboard Heat Exchange;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);2181;14. The RTD and Size Distribution of Solids in Fluidized Beds;14.1;14.1. Flow with Elutriation;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);2181;14. The RTD and Size Distribution of Solids in Fluidized Beds;14.2;14.2. Flow with Elutriation and Change in Density of Solids;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);2181;14. The RTD and Size Distribution of Solids in Fluidized Beds;14.3;14.3. Single Size Feed of Shrinking Particles;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);2181;14. The RTD and Size Distribution of Solids in Fluidized Beds;14.4;14.4. Wide Size Distribution of Shrinking Particle;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);2181;14. The RTD and Size Distribution of Solids in Fluidized Beds;14.5;14.5. Elutriation and Attrition of Catalyst;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1961;15. Circulation Systems;15.1;15.1. Circulation Rate when Deactivation Controls;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1961;15. Circulation Systems;15.2;15.2. Circulation Rate when Heat Duty Controls;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1961;15. Circulation Systems;15.3;15.3. Aeration of Fine Particle Downcomer;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1961;15. Circulation Systems;15.4;15.4. Circulation in Side by Side Beds;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1961;15. Circulation Systems;15.5;15.5. Steam Seal of a Coarse Particle Downcomer;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);2180;16. Design for Physical Operations;16.1;16.1. Single Stage Limestone Calciner;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);2180;16. Design for Physical Operations;16.2;16.2. Multistage Limestone Calciner;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);2180;16. Design for Physical Operations;16.3;16.3. Multistage Adsorber;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);2180;16. Design for Physical Operations;16.4;16.4. Dryer Kinetics and Scale up;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);2180;16. Design for Physical Operations;16.5;16.5. Solvent Recovery from Polymer Particles;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1963;17. Design of Catalytic Reactors;17.1;17.1. Reactor Development Program;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1963;17. Design of Catalytic Reactors;17.2;17.2. Design of a Commercial Acrylonitrile Reactor;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1963;17. Design of Catalytic Reactors;17.3;17.3. Reactor Regenerator with Circulating Catalyst Catalytic Cracking;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1959;18. The Design of Noncatalytic Gas Solid Reactors;18.1;18.1. Kinetics of Zinc Blende Roasting;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1959;18. The Design of Noncatalytic Gas Solid Reactors;18.2;18.2. Kinetics of Carbon Burning;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1959;18. The Design of Noncatalytic Gas Solid Reactors;18.3;18.3. Roasting Kinetics from Flowing Solids Data;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1959;18. The Design of Noncatalytic Gas Solid Reactors;18.4;18.4. Scale up of a Reactor with Flowing Solids;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1959;18. The Design of Noncatalytic Gas Solid Reactors;18.5;18.5. Design of a Roaster for Finely Ground Ore;correct;runtime; -497;Fluidization Engineering(K. Daizo And O. Levenspiel);1959;18. The Design of Noncatalytic Gas Solid Reactors;18.6;18.6. Design of a Roaster for Coarse Ore;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1840;2. Magnetic circuits and Induction;2.1;2.1. calculating exciting current and corresponding flux linkages;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1840;2. Magnetic circuits and Induction;2.2;2.2. Calculation of current reqd to produce flux in the given magnetic circuit;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1840;2. Magnetic circuits and Induction;2.3;2.3. Determination of mmf of the exciting coil;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1840;2. Magnetic circuits and Induction;2.4;2.4. Exciting current calculation needed to setup reqd flux;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1840;2. Magnetic circuits and Induction;2.5;2.5. determination of excitation coil mmf;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1840;2. Magnetic circuits and Induction;2.7;2.7. determination of self and mutual inductance bw 2 coils;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1840;2. Magnetic circuits and Induction;2.8;2.8. determination of Rc Rg L Wf;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1840;2. Magnetic circuits and Induction;2.9;2.9. calculation of hysterisis and eddy current losses;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.1;3.1. To determine no load power factor core loss current and magnetising current and no load ckt parameters of transformer;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.10;3.10. To find exciting current and expess impedence in pu in both HV and LV sides;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.11;3.11. o calculate efficiency of transformer;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.13;3.13. comparing all day efficiencies for diff given load cycles;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.14;3.14. To calculate volatage regulation volatage at load terminals and operating efficiency;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.15;3.15. To determine voltage regulation and efficiency;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.16;3.16. to calculate voltage ratings kva ratings and efficieny of autotransformer;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.17;3.17. To determine the rating and full load efficiency of autotransformer;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.18;3.18. To calculate sec line voltage line current and output va;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.19;3.19. To compute all the currents and voltages in all windings of Y D transformer;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.2;3.2. To calculate no load current and its pf and no load power drawn from mains;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.20;3.20. to find the load voltage when it draws rated current from transformer;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.21;3.21. to calculate fault currentin feeder lines primary and secondary lines of receiving end transformers;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.22;3.22. To calculate voltage and kva rating of 1ph transformer;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.23;3.23. to calculate reactance in ohms line voltage kva rating series reactance for YY and YD conn;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.24;3.24. find how 2 transformers connected in parallel share the load;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.25;3.25. find pu value of the equivalent ckt steady state short ckt current and voltages;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.26;3.26. to calculate line currents of 3 ph side;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.27;3.27. to calculate magnitude and phase of secondary current;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.28;3.28. to calculate sec voltage magnitude and ph;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.29;3.29. to calculate L1 and L2 and coupling cofficient;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.3;3.3. To calculate primary and scondary side impedences current and their pf and real power and calculate terminal voltage;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.30;3.30. to calculate leakage inductance magnetisisng inductance mutual inductance and selfinductance;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.31;3.31. to calculate percentage voltage reg and efficiency;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.4;3.4. To calculate primary current and its pf;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.5;3.5. Equivalent circuit referred to HV side LV side;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.6;3.6. To find the voltage at the load end of the transformer when load is drawing transformer current;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.7;3.7. Approx equivalent ckt referred to hv and lv sides resp;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1841;3. Transformers;3.8;3.8. to calculate open ckt current power and pf when LV excited at rated voltage voltage at which HV side is excited ip power and its pf;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1842;5. Basic Concepts in Rotating Machines;5.1;5.1. To calculate harmanic factor for stator;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1842;5. Basic Concepts in Rotating Machines;5.10;5.10. to calculate field current and flux per pole and to calculate open ckt ph and line voltages and to caculate field current;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1842;5. Basic Concepts in Rotating Machines;5.11;5.11. to find fundamental mmf wave speed and its peak value;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1842;5. Basic Concepts in Rotating Machines;5.12;5.12. to calculate resultant air gap flux per pole;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1842;5. Basic Concepts in Rotating Machines;5.13;5.13. To calculate resultant AT per pole and peak air gap flux density rotor AT per pole stator AT and its angle with the resultant AT stator currrent;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1842;5. Basic Concepts in Rotating Machines;5.14;5.14. to determine in F2 peak rotor AT max torque ele ip at max torque for motoring mode and open ckt voltage for generating mode;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1842;5. Basic Concepts in Rotating Machines;5.15;5.15. to find motor speed;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1842;5. Basic Concepts in Rotating Machines;5.16;5.16. to find voltage available bw slip rings and its freq;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1842;5. Basic Concepts in Rotating Machines;5.18;5.18. to find no of poles slip and freq of rotor currents at full load motor speed at twice of full load;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1842;5. Basic Concepts in Rotating Machines;5.19;5.19. to calculate amplitude of travelling wave mmf peak value of air flux density velocity of wave current freq at some desired velocity;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1842;5. Basic Concepts in Rotating Machines;5.2;5.2. to find the frequency and phase and line voltages;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1842;5. Basic Concepts in Rotating Machines;5.3;5.3. to find the phase and line voltages;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1842;5. Basic Concepts in Rotating Machines;5.4;5.4. to calculate flux per pole;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1842;5. Basic Concepts in Rotating Machines;5.5;5.5. to calculate useful flux per pole and ares of pole shoe;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1842;5. Basic Concepts in Rotating Machines;5.6;5.6. To calculate em power developed mech power fed torque provided by primemover;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1842;5. Basic Concepts in Rotating Machines;5.9;5.9. To determine peak value of fundamental mmf;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.1;7.1. to calculate no of parrallel path;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.10;7.10. to calculate cross and demagnetising turns per pole;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.11;7.11. to calculate no of conductors on each pole piece;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.12;7.12. to calculate no of turns reqd on each interpole;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.13;7.13. to calculate mmf per pole and speed at no load in rpm;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.14;7.14. to estimate at full load internal induced emf voltage drop caused y armature rxn and field current armature rxn demagnitisation;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.16;7.16. to calculate terminal voltage and rated output current and calculate no of series turns per pole;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.2;7.2. to find spacing bw brushes;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.21;7.21. to determine demagnetising AT per pole and no of series turns reqd;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.22;7.22. to compute terminal voltage at rated voltage current;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.23;7.23. to calculate no series turns;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.24;7.24. to find generator output;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.25;7.25. to find power to the load;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.28;7.28. to compute the generator induced emf when fully loaded in long shunt compound and short shunt compound;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.29;7.29. to find field current and field resistance at rated terminal voltage em power and torque;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.3;7.3. to calculate relevant pitches for wave windings;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.32;7.32. to determine the reduction of flux per pole due to armature rxn;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.33;7.33. to determine internal em torque developed;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.34;7.34. to determine speed calculate internal torque developed on load and no load;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.36;7.36. to sketch speed the speed torque characteristicsof the series motor connectedto mains by calculating speed and torque values at diff values of armature current;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.37;7.37. to determine the power delivered to the fan torque developed by the motor and calculate external resistance to be added to armature ckt;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.38;7.38. to determine the starting torque developed;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.39;7.39. to determine speed and mech power;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.4;7.4. to find distance bw brushes;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.40;7.40. to calculate the mmf per pole on no load and speed developed;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.41;7.41. to calculate demagnetisising ampeare turns em torque starting torque and no of turns of the series field;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.42;7.42. to determine shunt field current of the motor demagnetising effect of armature rxn determine series field turns per pole speed of motor;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.43;7.43. to find the no of starter sections reqd and resistance of each section;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.44;7.44. to find the lower current limit motor speed at each stud;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.45;7.45. to calculate the ratio of full load speed to no load speed;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.46;7.46. to calculate load torque motor speed and line current;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.47;7.47. to calculate armature current speed and value of external resistance in field ckt;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.48;7.48. to determine speed and torque of the motor;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.5;7.5. to find the torque and gross mech power developed;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.50;7.50. to determine speed regulation load speed and power regulation and compare power wasted in both cases;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.52;7.52. to determine armature current;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.54;7.54. to find speed and ratio of mech op;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.55;7.55. to calculate the armature voltage reqd;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.56;7.56. to find the range of generator field current motor current and speed;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.57;7.57. to calculate mc eff as a generator and max eff when generating and motoring;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.59;7.59. to determine rotational loss no load armature current and speed and also find speed regulation and to calculate armature current for given em torque;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.6;7.6. to calculate ratio of generator speed to motor speed;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.60;7.60. to determine load torque and motor eff armature current for max motor eff and ots value;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.61;7.61. to calculate rotational loss armature resistance eff line current and speed;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.62;7.62. to calculate eff of motor and generator;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.63;7.63. to calculate torque constt value of rotational loss stalled torque and stalled current of motor armature current anad eff motor op and eff;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.7;7.7. to calculate speed of motor;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.8;7.8. to calculate electomagnetic power and torque;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1844;7. DC Machines;7.9;7.9. to calculate electomagnetic power;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.10;8.10. to calculate armature resistance sync reactance full load stray load loss Rac Rdc various categories of losses at full load full load eff;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.11;8.11. to calculate net power op eff line current and pf;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.12;8.12. to find pf;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.13;8.13. to determine excitation emf torque angle stator current pf max power kVAR delivered;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.14;8.14. to calculate armature current pf power angle power shaft torques kVar;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.15;8.15. find the excitation emf mech power developed pf;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.16;8.16. to find power angle field current;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.17;8.17. to calculate motor eff excitation emf and power angle max power op corresponding net op;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.18;8.18. find the change in the poweer angle;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.19;8.19. to find no of poles MVA rating prime mover rating and op torque;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.2;8.2. to determine voltage regulation by mmf method;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.20;8.20. to determine the magnitude of Eg Em and min value of Em to remain mc in synchronism;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.21;8.21. to determine armature current pf power angle mech power developed and eff;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.22;8.22. to find armature current power factor and power ip;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.23;8.23. to calculate pu adjusted sync reactance feild reactance reactive power op rotor power angle;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.25;8.25. to calculate the excitation emf power angle;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.26;8.26. calculate excitation emf;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.27;8.27. to calculate generator terminal voltage excitation emf power angle;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.28;8.28. to find max pu power pu armature current pu reactive power;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.29;8.29. to calculate power angle excitation emf field current;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.3;8.3. to calculate syn chronous reactance leakage reactance voltage regulation;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.30;8.30. to find max andmin pu field excitation;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.31;8.31. to calculate synchronising power and torque coeff per deg mech shift;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.32;8.32. to calculate syncronising power per elec deg pu sync torque per mech deg;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.33;8.33. to calculate sync current power and torque;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.34;8.34. to calculate value of syncpower;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.35;8.35. to determine op current and pf;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.36;8.36. to find the pf and current supplied by the mc;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.37;8.37. to find initial current current at the end of 2 cycles and at the end of 10s;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.39;8.39. to calculate sync reactance voltage regulation torque angle ele power developed voltage and kva rating;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.40;8.40. to determine mc and pf;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.41;8.41. to calculate excitation emf torque angle eff shaft op;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.42;8.42. to caculate generator current pf real power excitation emf;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.43;8.43. to clculate pf angle torque angle equivalent capicitor and inductor value;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.44;8.44. to determine Xs saturated scr Xs unsat and If generator current;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.45;8.45. find motor pf;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.46;8.46. to find exciting emf neglecting saliency and accounting saliency;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.47;8.47. calculate excitation emf max load motor supplies torque angle;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.49;8.49. find no load freq setting sys freq at no load freq of swing generator system trip freq;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.6;8.6. to calculate the excitation emf;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.7;8.7. to compute the max power and torque terminal voltage;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.8;8.8. max power supplied power angle d corresponding field current;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1847;8. Synchronous Machines;8.9;8.9. to calculate the generator current and its pf;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1851;9. Induction Machine;9.1;9.1. to campute cu loss in rotoe windings input to the motor efficiency;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1851;9. Induction Machine;9.10;9.10. to calculate max torque and slip starting torque;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1851;9. Induction Machine;9.11;9.11. to find starting current and torque necessary exteranl resistance and corresponding starting torque;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1851;9. Induction Machine;9.12;9.12. find line current and starting torque with direct switching stator resistance starting autotransformer starting star delta starting autotransformer ratio give 1 pu;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1851;9. Induction Machine;9.13;9.13. to find resistance added to ckt;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1851;9. Induction Machine;9.14;9.14. to find resistance added to ckt;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1851;9. Induction Machine;9.15;9.15. to calculate the min resistance to be added and speed of the motor;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1851;9. Induction Machine;9.17;9.17. to find the ratio of currents and torques at the starting V2 by V1;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1851;9. Induction Machine;9.18;9.18. to calculate ratio of torques at starting and given slip;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1851;9. Induction Machine;9.19;9.19. to compute acc time and value of rotor resistance;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1851;9. Induction Machine;9.2;9.2. to calculate torque resistance to be added to rotor ckt;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1851;9. Induction Machine;9.3;9.3. to find slip at max torque full load slip and rotor current at starting;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1851;9. Induction Machine;9.4;9.4. to calculate stator current pf net mech op torque motor performance;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1851;9. Induction Machine;9.5;9.5. to determine ckt model parameters parameters of thevenin equivalent max torque and slip stator current pf and eff;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1851;9. Induction Machine;9.6;9.6. to calculate starting torque and current full load current pf torque internal and overall eff slip and max torque;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1851;9. Induction Machine;9.9;9.9. to determine the line current pf power ip shaft torque mech op and efficiency;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1853;10. Fractional Kilowatt Motors;10.1;10.1. to compute the ratio of Emf by Emb Vf by Vb Tf by Tb gross total torque Tf by total torque Tb by total torque;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1853;10. Fractional Kilowatt Motors;10.2;10.2. to calculate parameters of the ckt model line current power factor shaft torque and efficiency;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1853;10. Fractional Kilowatt Motors;10.3;10.3. to compute ampitudes of forward and backward stator mmf waves magnitude of auxillary currrent and its ph angle diff;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1853;10. Fractional Kilowatt Motors;10.4;10.4. to determine value of capacitor;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1853;10. Fractional Kilowatt Motors;10.5;10.5. to calculate starting torque and current value of run capacitor motor performance;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1853;10. Fractional Kilowatt Motors;10.6;10.6. to calculate starting torque and atarting current motor performance;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1854;12. Motor Control by Static Power Convertors;12.1;12.1. calculate power fed to load;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1854;12. Motor Control by Static Power Convertors;12.2;12.2. calculate firing angle value;correct;runtime; -503;Electric Machines(D. P. Kothari And I. J. Nagrath);1854;12. Motor Control by Static Power Convertors;12.3;12.3. calculate value of commutating capacitor;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1252;1. Energy Band in Solid;1.1;1.1. Plane Parallel plate Capacitor;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1177;2. Transport Phenomena in Semiconductor;2.1.a;2.1.a. Using Avogadro no find the numerical value of concentration of atom in Germanium;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1177;2. Transport Phenomena in Semiconductor;2.1.b;2.1.b. Resistivity of intrinsic Germanium;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1177;2. Transport Phenomena in Semiconductor;2.1.c;2.1.c. Resistivity with given condition in germanium atoms;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1177;2. Transport Phenomena in Semiconductor;2.1.d;2.1.d. Ratio of Conductivities;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1178;5. Transistor Characteristic;5.1.a;5.1.a. To find transistor currents for npn transistor;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1178;5. Transistor Characteristic;5.1.b;5.1.b. To find transistor currents for npn transistor after adding resistor to circuit;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1178;5. Transistor Characteristic;5.2.a;5.2.a. Check whether transistor is in saturation region or not;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1178;5. Transistor Characteristic;5.2.b;5.2.b. Check whether transistor is in saturation region or not after adding a Emitter Transistor;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1180;6. Digital Circuits;6.1;6.1. Output Levels for a given input in a silicon transistor;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1180;6. Digital Circuits;6.2;6.2. To verify given equation;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1180;6. Digital Circuits;6.3.a;6.3.a. To find wether a given circuit is positive NAND;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1180;6. Digital Circuits;6.3.b;6.3.b. To find wether with given conditions NAND gate is satisfied;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1180;6. Digital Circuits;6.3.c;6.3.c. Silicon Transistors and diodes are used in positive NAND;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1180;6. Digital Circuits;6.4;6.4. To verify that AND OR topology is equivallent to NAND NAND system;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1180;6. Digital Circuits;6.5.a;6.5.a. To find hFEmin;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1180;6. Digital Circuits;6.5.b;6.5.b. When atleast one input is at V0 in NAND gate;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1180;6. Digital Circuits;6.5.c;6.5.c. If input is high in NAND gate;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1180;6. Digital Circuits;6.5.d;6.5.d. If input is low in NAND gate;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1180;6. Digital Circuits;6.6;6.6. Calculation of FAN OUT of NAND gate;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1181;7. Integrated Circuit Fabrication and Characteristic;7.1;7.1. Diffusion of a pn junction;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1181;7. Integrated Circuit Fabrication and Characteristic;7.2.a;7.2.a. Fabrication and Characteristics;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1181;7. Integrated Circuit Fabrication and Characteristic;7.2.b;7.2.b. Fabrication and Characteristics;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1182;8. The Transistor at Low Frequency;8.2;8.2. transistor as a Common Emitter Amplifier;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1182;8. The Transistor at Low Frequency;8.3;8.3. To derive output impedence of given figure in open circuit voltage short circuit current theorem;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1182;8. The Transistor at Low Frequency;8.4;8.4. Parameters of a Common Emitter Amplifier;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1182;8. The Transistor at Low Frequency;8.5;8.5. CE CC configuration;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1182;8. The Transistor at Low Frequency;8.6;8.6. Parameters of CE CC configuration;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1183;9. Transistor Biasing and Thermal Stabilization;9.1;9.1. To find Q point;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1183;9. Transistor Biasing and Thermal Stabilization;9.2;9.2. To find resistances in 2N335 transistor;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1183;9. Transistor Biasing and Thermal Stabilization;9.3.a;9.3.a. Variation of Ic in given Transistor;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1183;9. Transistor Biasing and Thermal Stabilization;9.3.b;9.3.b. Variation of Ic in given Transistor;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1183;9. Transistor Biasing and Thermal Stabilization;9.4;9.4. To design a self bias circuit;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1183;9. Transistor Biasing and Thermal Stabilization;9.5;9.5. Value of theta for Ge Transistor;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1183;9. Transistor Biasing and Thermal Stabilization;9.6.a;9.6.a. To find parameters of power amplifier using pnp gemanium transistor;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1183;9. Transistor Biasing and Thermal Stabilization;9.6.b;9.6.b. To find parameters of power amplifier using pnp gemanium transistor;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1184;10. Field Effect Transistor;10.1.a;10.1.a. Pinch off V and channel half width of silicon FET;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1184;10. Field Effect Transistor;10.1.b;10.1.b. Pinch off V and channel half width of silicon FET;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1184;10. Field Effect Transistor;10.2.a;10.2.a. Amplifier using n channel FET;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1184;10. Field Effect Transistor;10.2.b;10.2.b. Amplifier using n channel FET;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1184;10. Field Effect Transistor;10.2.c;10.2.c. Amplifier using n channel FET;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1184;10. Field Effect Transistor;10.2.d;10.2.d. Amplifier using n channel FET;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1184;10. Field Effect Transistor;10.3.a;10.3.a. To find the parameters of a FET 2N3684;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1184;10. Field Effect Transistor;10.3.b;10.3.b. To find the range of possible values of Id in FET 2N3684 from the graph;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1184;10. Field Effect Transistor;10.4;10.4. Voltage Gain of MOSFET as a single stage and then as first transistor;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1185;12. MultiStage Amplifiers;12.1.a;12.1.a. Minimum value of coupling capacitance for a given FET;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1185;12. MultiStage Amplifiers;12.1.b;12.1.b. Minimum value of coupling capacitance for a given FET;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1186;13. Feedback Amplifier;13.1;13.1. parameters of a Second collector to first emmitter feedback amplifier;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1186;13. Feedback Amplifier;13.2.a;13.2.a. To find parameters of Current series Feedback Amplifier;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1186;13. Feedback Amplifier;13.2.b;13.2.b. To find parameters of Current series Feedback Amplifier;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1186;13. Feedback Amplifier;13.2.c;13.2.c. To find parameters of Current series Feedback Amplifier;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1186;13. Feedback Amplifier;13.2.d;13.2.d. To find parameters of Current seris Feedback Amplifier;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1186;13. Feedback Amplifier;13.3.a;13.3.a. Gain of second emitter to first basefeedback pair;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1186;13. Feedback Amplifier;13.3.b;13.3.b. Gain of second emitter to first basefeedback pair;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1186;13. Feedback Amplifier;13.3.c;13.3.c. Gain of second emitter to first basefeedback pair;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1186;13. Feedback Amplifier;13.3.d;13.3.d. Gain of second emitter to first basefeedback pair;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1186;13. Feedback Amplifier;13.4.a;13.4.a. To find gain and resistance of Voltage Shunt Feedback;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1186;13. Feedback Amplifier;13.4.b;13.4.b. To find gain and resistance of Voltage Shunt Feedback;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1186;13. Feedback Amplifier;13.4.c;13.4.c. To find gain and resistance of Voltage Shunt Feedback;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1187;14. Stability and Oscillators;14.1.a;14.1.a. Lowest poles of an Amplifier;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1187;14. Stability and Oscillators;14.1.b;14.1.b. Frequency Response Peak;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1188;15. Operational Amplifier;15.1.a;15.1.a. difference in output voltage for two set of output signals;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1188;15. Operational Amplifier;15.1.b;15.1.b. difference in output voltage for two set of output signals;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1188;15. Operational Amplifier;15.2;15.2. Design an amplifier using yA702A;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1189;16. Integrated Circuits as Analog System Building blocks;16.1;16.1. Fourth Order Butterworth Filter;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1189;16. Integrated Circuits as Analog System Building blocks;16.2;16.2. Design a second order bandpass filter;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1189;16. Integrated Circuits as Analog System Building blocks;16.3;16.3. Design a video amplifier using MC1550;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1189;16. Integrated Circuits as Analog System Building blocks;16.4.a;16.4.a. Logic Level Output of an ECL gate;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1189;16. Integrated Circuits as Analog System Building blocks;16.4.b;16.4.b. Calculation of noise margin;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1189;16. Integrated Circuits as Analog System Building blocks;16.4.c;16.4.c. Verify that conducting transistor is in active region;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1189;16. Integrated Circuits as Analog System Building blocks;16.4.d;16.4.d. Calculation of R;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1189;16. Integrated Circuits as Analog System Building blocks;16.4.e;16.4.e. Average power dissipated by the gate;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1190;18. Power Circuits and Systems;18.1.a;18.1.a. Design a series regulated power supply;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1190;18. Power Circuits and Systems;18.1.b;18.1.b. Calculation of Sv;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1190;18. Power Circuits and Systems;18.1.c;18.1.c. Find output resistance Ro;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1190;18. Power Circuits and Systems;18.1.d;18.1.d. Calculation of change in output voltage due to change in input voltage and load current;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1190;18. Power Circuits and Systems;18.2.a;18.2.a. SCR half wave power control circuit;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1190;18. Power Circuits and Systems;18.2.b;18.2.b. SCR half wave power control circuit;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1190;18. Power Circuits and Systems;18.2.c;18.2.c. SCR half wave power control circuit;correct;runtime; -506;Integrated Electronics: Analog And Digital Circuits and Systems(J. Millman And C. C. Halkias);1190;18. Power Circuits and Systems;18.3;18.3. SCR Relaxation Oscillator Phase control Circuit;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1251;3. Basic Principles;3.2;3.2. compute powers in each element;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1251;3. Basic Principles;3.4;3.4. find impedence per unit on 100MVA and 11kV base;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1247;4. Load Characteristics and Economic Aspects;4.1;4.1. find out average power loss and annual total loss;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1247;4. Load Characteristics and Economic Aspects;4.2;4.2. determine energy produced installed capacity and reserve capacity;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1247;4. Load Characteristics and Economic Aspects;4.3;4.3. determine diversity factor and coincidence factor;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1247;4. Load Characteristics and Economic Aspects;4.4;4.4. find rating of capacitor to raise power factor;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1247;4. Load Characteristics and Economic Aspects;4.5;4.5. find the monthly bill and overall cost per kW on different casess;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1249;6. Hydroelectric Power Plants;6.1;6.1. Find the power in kW;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1249;6. Hydroelectric Power Plants;6.2;6.2. calculate electric discharge and plot graphs;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1197;7. Nuclear Power Plants;7.1;7.1. Find out Binding Energy;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1197;7. Nuclear Power Plants;7.2;7.2. Finding out half life and initial activity of radium;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1197;7. Nuclear Power Plants;7.3;7.3. Estimation of fuel consumption;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1248;9. Transmission Line Parameters Constants Calculations;9.1;9.1. find out equivalent radius;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1248;9. Transmission Line Parameters Constants Calculations;9.2;9.2. find self GMD of four bundled conductors;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1248;9. Transmission Line Parameters Constants Calculations;9.3;9.3. find out inductance of capacitor;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1248;9. Transmission Line Parameters Constants Calculations;9.6;9.6. find out inductance per km in a three phase system;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1248;9. Transmission Line Parameters Constants Calculations;9.7;9.7. find capacitance between two conductors and capacitance between phase and neutral plane;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1248;9. Transmission Line Parameters Constants Calculations;9.8;9.8. determine capacitance per phase;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1196;11. Insulators for Overhead Transmission Lines;11.1;11.1. Voltage across each string ang efficiency;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1196;11. Insulators for Overhead Transmission Lines;11.2;11.2. Finding out capacitances of each unit to make string efficiency 100 percent;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1196;11. Insulators for Overhead Transmission Lines;11.3;11.3. Find out line to pin capacitances to equalise voltage across each unit;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1250;12. Design of Transmission Lines;12.1;12.1. find sag and length between spans;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1250;12. Design of Transmission Lines;12.2;12.2. find minimum clearance from ground;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1250;12. Design of Transmission Lines;12.3;12.3. find sag in still air and when covered in ice;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1195;13. Corona and Radio Interference;13.1;13.1. Find out critical disruptive and visual critical disruptive voltages;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1195;13. Corona and Radio Interference;13.2;13.2. Determine fair and stormy weather corona losses;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1193;15. HVDC Transmission and FACTS Technology;15.1;15.1. Calculation of direct voltage output if delay angle given;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1193;15. HVDC Transmission and FACTS Technology;15.2;15.2. Finding out effective commutation resistance;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1193;15. HVDC Transmission and FACTS Technology;15.3;15.3. Finding out ac output voltage;correct;runtime; -509;Electric Power Generation, Transmission And Distribution(S. N. Singh);1194;18. Grounding Systems;18.1;18.1. Finding out value of inductance of coil connected between neutral and ground;correct;runtime; -515;Essentials Of Physics With Experiments(R. Dogra);1223;3. Elements of crystallographys;3.1;3.1. Calculation of the wavelength of X rays;correct;runtime; -515;Essentials Of Physics With Experiments(R. Dogra);1223;3. Elements of crystallographys;3.2;3.2. Calculate the maximum speed of electron striking the anti cathode;correct;runtime; -515;Essentials Of Physics With Experiments(R. Dogra);1223;3. Elements of crystallographys;3.3;3.3. calculate the energy falling on the target material per second and also calculate the cutoff wavelength of the X rays;correct;runtime; -515;Essentials Of Physics With Experiments(R. Dogra);1223;3. Elements of crystallographys;3.4;3.4. calculate the velocity of electrons at which they strike the target;correct;runtime; -515;Essentials Of Physics With Experiments(R. Dogra);1223;3. Elements of crystallographys;3.5;3.5. calculate the glancing angle for third order reflection;correct;runtime; -515;Essentials Of Physics With Experiments(R. Dogra);1223;3. Elements of crystallographys;3.6;3.6. calculate the interplanar spacing of the crystal;correct;runtime; -515;Essentials Of Physics With Experiments(R. Dogra);1223;3. Elements of crystallographys;3.7;3.7. Calculation of various orders in which Braggs reflection takes place;correct;runtime; -515;Essentials Of Physics With Experiments(R. Dogra);1223;3. Elements of crystallographys;3.8;3.8. calculate the wavelength of X rays used;correct;runtime; -515;Essentials Of Physics With Experiments(R. Dogra);1224;4. lasers;4.1;4.1. Calculate the coherent length for white light;correct;runtime; -515;Essentials Of Physics With Experiments(R. Dogra);1224;4. lasers;4.2;4.2. Calculate the coherent time;correct;runtime; -515;Essentials Of Physics With Experiments(R. Dogra);1224;4. lasers;4.3;4.3. Calculate the number of oscillations corresponding to the coherence length and the coherence time;correct;runtime; -515;Essentials Of Physics With Experiments(R. Dogra);1224;4. lasers;4.5;4.5. Calculate the 1 the line frequency 2 the bandwidth 3 the coherence length;correct;runtime; -515;Essentials Of Physics With Experiments(R. Dogra);1224;4. lasers;4.6;4.6. Calculate the temporal coherence length for mercury vapour lamp;correct;runtime; -515;Essentials Of Physics With Experiments(R. Dogra);1224;4. lasers;4.7;4.7. spatial coherence length at some distance from the source;correct;runtime; -515;Essentials Of Physics With Experiments(R. Dogra);1951;6. Special theory of relativity;6.1;6.1. Calculate the fringe shift;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1628;1. Measured thermodynamic Properties and Other Basic Concepts;1.1;1.1. Example 1 1;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1628;1. Measured thermodynamic Properties and Other Basic Concepts;1.2;1.2. Example 1 2;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1628;1. Measured thermodynamic Properties and Other Basic Concepts;1.3;1.3. Example 1 3;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1628;1. Measured thermodynamic Properties and Other Basic Concepts;1.4;1.4. Example 1 4;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1629;2. The First law of Thermodynamics;2.1;2.1. Example 2 1;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1629;2. The First law of Thermodynamics;2.10;2.10. Example 2 10;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1629;2. The First law of Thermodynamics;2.11;2.11. Example 2 11;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1629;2. The First law of Thermodynamics;2.12;2.12. Example 2 12;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1629;2. The First law of Thermodynamics;2.13;2.13. Example 2 13;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1629;2. The First law of Thermodynamics;2.14;2.14. Example 2 14;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1629;2. The First law of Thermodynamics;2.15;2.15. Example 2 15;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1629;2. The First law of Thermodynamics;2.16;2.16. Example 2 16;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1629;2. The First law of Thermodynamics;2.17;2.17. Example 2 17;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1629;2. The First law of Thermodynamics;2.18;2.18. Example 2 18;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1629;2. The First law of Thermodynamics;2.19;2.19. Example 2 19;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1629;2. The First law of Thermodynamics;2.2;2.2. Example 2 2;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1629;2. The First law of Thermodynamics;2.20;2.20. Example 2 20;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1629;2. The First law of Thermodynamics;2.3;2.3. Example 2 3;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1629;2. The First law of Thermodynamics;2.4;2.4. Example 2 4;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1629;2. The First law of Thermodynamics;2.5;2.5. Example 2 5;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1629;2. The First law of Thermodynamics;2.6;2.6. Example 2 6;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1629;2. The First law of Thermodynamics;2.7;2.7. Example 2 7;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1629;2. The First law of Thermodynamics;2.8;2.8. Example 2 8;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1629;2. The First law of Thermodynamics;2.9;2.9. Example 2 9;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1584;3. Entropy and the Second law of Thermodynamics;3.1;3.1. Exam 3 1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/527/CH3/EX3.1/: PATH DOES NOT EXIST -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1584;3. Entropy and the Second law of Thermodynamics;3.10;3.10. Example 3 10;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1584;3. Entropy and the Second law of Thermodynamics;3.11;3.11. Example 3 11;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1584;3. Entropy and the Second law of Thermodynamics;3.12;3.12. Example 3 12;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1584;3. Entropy and the Second law of Thermodynamics;3.13;3.13. Example 3 13;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1584;3. Entropy and the Second law of Thermodynamics;3.14;3.14. Example 3 14;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1584;3. Entropy and the Second law of Thermodynamics;3.15;3.15. Example 3 15;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1584;3. Entropy and the Second law of Thermodynamics;3.16;3.16. Example 3 16;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1584;3. Entropy and the Second law of Thermodynamics;3.17;3.17. Example 3 17;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1584;3. Entropy and the Second law of Thermodynamics;3.2;3.2. Example 3 2;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1584;3. Entropy and the Second law of Thermodynamics;3.3;3.3. Example 3 3;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1584;3. Entropy and the Second law of Thermodynamics;3.4;3.4. Example 3 4;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1584;3. Entropy and the Second law of Thermodynamics;3.5;3.5. Example 3 5;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1584;3. Entropy and the Second law of Thermodynamics;3.6;3.6. Example 3 6;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1584;3. Entropy and the Second law of Thermodynamics;3.7;3.7. Example 3 7;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1584;3. Entropy and the Second law of Thermodynamics;3.8;3.8. Example 3 8;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1584;3. Entropy and the Second law of Thermodynamics;3.9;3.9. Example 3 9;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1630;4. Equation of states and intermolecular forces;4.1;4.1. Example 4 1;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1630;4. Equation of states and intermolecular forces;4.10;4.10. Example 4 10;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1630;4. Equation of states and intermolecular forces;4.2;4.2. Example 4 2;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1630;4. Equation of states and intermolecular forces;4.3;4.3. Example 4 3;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1630;4. Equation of states and intermolecular forces;4.4;4.4. Example 4 4;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1630;4. Equation of states and intermolecular forces;4.5;4.5. Example 4 5;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1630;4. Equation of states and intermolecular forces;4.6;4.6. Example 4 6;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1630;4. Equation of states and intermolecular forces;4.7;4.7. Example 4 7;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1630;4. Equation of states and intermolecular forces;4.8;4.8. Example 4 8;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1630;4. Equation of states and intermolecular forces;4.9;4.9. Example 4 9;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1632;5. The thermodynamic web;5.1;5.1. Example 5 1;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1632;5. The thermodynamic web;5.2;5.2. Example 5 2;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1632;5. The thermodynamic web;5.3;5.3. Example 5 3;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1632;5. The thermodynamic web;5.4;5.4. Example 5 4;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1632;5. The thermodynamic web;5.5;5.5. Example 5 5;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1632;5. The thermodynamic web;5.6;5.6. Example 5 6;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1632;5. The thermodynamic web;5.7;5.7. Example 5 7;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1632;5. The thermodynamic web;5.8;5.8. Example 5 8;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1634;6. Multi component Phase Equillibrium;6.1;6.1. Example 6 1;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1634;6. Multi component Phase Equillibrium;6.10;6.10. Example 6 10;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1634;6. Multi component Phase Equillibrium;6.11;6.11. Example 6 11;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1634;6. Multi component Phase Equillibrium;6.12;6.12. Example 6 12;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1634;6. Multi component Phase Equillibrium;6.13;6.13. Example 6 13;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1634;6. Multi component Phase Equillibrium;6.14;6.14. Example 6 14;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1634;6. Multi component Phase Equillibrium;6.2;6.2. Example 6 2;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1634;6. Multi component Phase Equillibrium;6.3;6.3. Example 6 3;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1634;6. Multi component Phase Equillibrium;6.4;6.4. Example 6 4;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1634;6. Multi component Phase Equillibrium;6.5;6.5. Example 6 5;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1634;6. Multi component Phase Equillibrium;6.6;6.6. Example 6 6;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1634;6. Multi component Phase Equillibrium;6.7;6.7. Example 6 7;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1634;6. Multi component Phase Equillibrium;6.8;6.8. Example 6 8;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1634;6. Multi component Phase Equillibrium;6.9;6.9. Example 6 9;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1637;7. Phase Equilibia 2 Fugacity;7.1;7.1. Example 7 1;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1637;7. Phase Equilibia 2 Fugacity;7.10;7.10. Example 7 10;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1637;7. Phase Equilibia 2 Fugacity;7.11;7.11. Example 7 11;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1637;7. Phase Equilibia 2 Fugacity;7.12;7.12. Example 7 12;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1637;7. Phase Equilibia 2 Fugacity;7.2;7.2. Example 7 2;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1637;7. Phase Equilibia 2 Fugacity;7.3;7.3. Example 7 3;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1637;7. Phase Equilibia 2 Fugacity;7.4;7.4. Example 7 4;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1637;7. Phase Equilibia 2 Fugacity;7.5;7.5. Example 7 5;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1637;7. Phase Equilibia 2 Fugacity;7.6;7.6. Example 7 6;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1637;7. Phase Equilibia 2 Fugacity;7.7;7.7. Example 7 7;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1637;7. Phase Equilibia 2 Fugacity;7.8;7.8. Example 7 8;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1637;7. Phase Equilibia 2 Fugacity;7.9;7.9. Example 7 9;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1638;8. Phase Equilibria III Phase Diagrams;8.1;8.1. Example 8 1;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1638;8. Phase Equilibria III Phase Diagrams;8.10;8.10. Example 8 10;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1638;8. Phase Equilibria III Phase Diagrams;8.11;8.11. Example 8 11;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1638;8. Phase Equilibria III Phase Diagrams;8.12;8.12. Example 8 12;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1638;8. Phase Equilibria III Phase Diagrams;8.13;8.13. Example 8 13;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1638;8. Phase Equilibria III Phase Diagrams;8.14;8.14. Example 8 14;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1638;8. Phase Equilibria III Phase Diagrams;8.15;8.15. Example 8 15;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1638;8. Phase Equilibria III Phase Diagrams;8.16;8.16. Example 8 16;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1638;8. Phase Equilibria III Phase Diagrams;8.17;8.17. Example 8 17;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1638;8. Phase Equilibria III Phase Diagrams;8.18;8.18. Example 8 18;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1638;8. Phase Equilibria III Phase Diagrams;8.19;8.19. Example 8 19;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1638;8. Phase Equilibria III Phase Diagrams;8.2;8.2. Example 8 2;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1638;8. Phase Equilibria III Phase Diagrams;8.3;8.3. Example 8 3;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1638;8. Phase Equilibria III Phase Diagrams;8.4;8.4. Example 8 4;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1638;8. Phase Equilibria III Phase Diagrams;8.5;8.5. Example 8 5;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1638;8. Phase Equilibria III Phase Diagrams;8.6;8.6. Example 8 6;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1638;8. Phase Equilibria III Phase Diagrams;8.7;8.7. Example 8 7;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1638;8. Phase Equilibria III Phase Diagrams;8.8;8.8. Example 8 8;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1638;8. Phase Equilibria III Phase Diagrams;8.9;8.9. Example 8 9;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.1;9.1. Example 9 1;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.10;9.10. Example 9 10;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.11;9.11. Example 9 11;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.12;9.12. Example 9 12;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.13;9.13. Example 9 13;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.14;9.14. Example 9 14;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.15;9.15. Example 9 15;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.16;9.16. Example 9 16;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.17;9.17. Example 9 17;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.18;9.18. Example 9 18;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.19;9.19. Example 9 19;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.2;9.2. Example 9 2;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.20;9.20. Example 9 20;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.21;9.21. Example 9 21;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.22;9.22. Example 9 22;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.3;9.3. Example 9 3;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.4;9.4. Example 9 4;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.5;9.5. Example 9 5;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.6;9.6. Example 9 6;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.7;9.7. Example 9 7;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.8;9.8. Example 9 8;correct;runtime; -527;Engineering & Chemical Thermodynamics(M. D. Koretsky);1640;9. Chemical reaction Equilibria;9.9;9.9. Example 9 9;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1717;1. Introduction;1.1;1.1. Viscosity in SI system;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1717;1. Introduction;1.2;1.2. Useful heat gain and thermal efficiency;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1717;1. Introduction;1.3;1.3. Exit velocity and Temperature;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1727;2. Heat Conduction in Solids;2.1;2.1. Heat flow rate;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1727;2. Heat Conduction in Solids;2.10.i;2.10.i. Heat transfer coefficient at the centre;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1727;2. Heat Conduction in Solids;2.10.ii;2.10.ii. heat transfer coefficient at the surface;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1727;2. Heat Conduction in Solids;2.11.a;2.11.a. Time taken by the centre of ball;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1727;2. Heat Conduction in Solids;2.11.b;2.11.b. time taken by the centre of ball to reach temperature;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1727;2. Heat Conduction in Solids;2.12;2.12. Temperature at the centre of the brick;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1727;2. Heat Conduction in Solids;2.13.a;2.13.a. Temperature at the copper fin tip;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1727;2. Heat Conduction in Solids;2.13.b;2.13.b. Temperature at the steel fin tip;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1727;2. Heat Conduction in Solids;2.13.c;2.13.c. Temperature at the teflon fin tip;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1727;2. Heat Conduction in Solids;2.14;2.14. Heat loss rate;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1727;2. Heat Conduction in Solids;2.15;2.15. Decrease in thermal resistance;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1727;2. Heat Conduction in Solids;2.16;2.16. Overall heat transfer coefficient;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1727;2. Heat Conduction in Solids;2.2;2.2. Heat flow rate;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1727;2. Heat Conduction in Solids;2.3;2.3. Engineers decision;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1727;2. Heat Conduction in Solids;2.4;2.4. Thickness of insulation;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1727;2. Heat Conduction in Solids;2.5;2.5. Heat loss rate;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1727;2. Heat Conduction in Solids;2.6;2.6. Critical radius;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1727;2. Heat Conduction in Solids;2.7;2.7. Maximum temperature;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1727;2. Heat Conduction in Solids;2.8;2.8. Steady state temperature;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1727;2. Heat Conduction in Solids;2.9;2.9. Time taken by the rod to heat up;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1728;3. Thermal Radiation;3.1;3.1. Monochromatic emissive power;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1728;3. Thermal Radiation;3.10;3.10. Net radiative heat transfer;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1728;3. Thermal Radiation;3.11;3.11. steady state heat flux;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1728;3. Thermal Radiation;3.12;3.12. Rate of heat loss;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1728;3. Thermal Radiation;3.13;3.13. Rate of nitrogen evaporation;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1728;3. Thermal Radiation;3.14;3.14. Rate of energy loss from satellite;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1728;3. Thermal Radiation;3.15;3.15. Net radiative heat transfer;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1728;3. Thermal Radiation;3.2;3.2. Heat flux;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1728;3. Thermal Radiation;3.3;3.3. Absorbed radiant flux and absorptivity and reflectivity;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1728;3. Thermal Radiation;3.4.a;3.4.a. Total intensity in normal direction;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1728;3. Thermal Radiation;3.4.b;3.4.b. Ratio of radiant flux to the emissive power;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1728;3. Thermal Radiation;3.5;3.5. Rate of incident radiation;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1728;3. Thermal Radiation;3.6;3.6. Shape factor F12;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1728;3. Thermal Radiation;3.7;3.7. Shape factor;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1728;3. Thermal Radiation;3.8;3.8. Shape factor F12;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1728;3. Thermal Radiation;3.9;3.9. Shape factor;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1719;4. Principles of Fluid Flow;4.1;4.1. Pressure drop in smooth pipe;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1719;4. Principles of Fluid Flow;4.2.a;4.2.a. Pressure drop and maximum velocity calculation;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1719;4. Principles of Fluid Flow;4.2.b;4.2.b. Pressure drop and maximum velocity calculation;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1719;4. Principles of Fluid Flow;4.3;4.3. Pressure drop and power needed;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1719;4. Principles of Fluid Flow;4.4;4.4. Thickness of velocity boundary layer;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1719;4. Principles of Fluid Flow;4.5;4.5. Drag coefficient and drag force;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1726;5. Heat Transfer by Forced Convection;5.1.a;5.1.a. Local heat transfer coefficient;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1726;5. Heat Transfer by Forced Convection;5.1.b;5.1.b. Wall temperature;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1726;5. Heat Transfer by Forced Convection;5.2;5.2. ratio of thermal entrance length to entrance length;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1726;5. Heat Transfer by Forced Convection;5.3.i;5.3.i. Length of tube;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1726;5. Heat Transfer by Forced Convection;5.3.ii;5.3.ii. Exit water temperature;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1726;5. Heat Transfer by Forced Convection;5.4;5.4. Length of tube over which temperature rise occurs;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1726;5. Heat Transfer by Forced Convection;5.5;5.5. Rate of heat transfer to the plate;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1726;5. Heat Transfer by Forced Convection;5.6.i;5.6.i. Heat transfer rate;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1726;5. Heat Transfer by Forced Convection;5.6.ii;5.6.ii. Average wall tempeature;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1726;5. Heat Transfer by Forced Convection;5.7.i;5.7.i. Pressure drop;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1726;5. Heat Transfer by Forced Convection;5.7.ii;5.7.ii. Exit temperature of air;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1726;5. Heat Transfer by Forced Convection;5.7.iii;5.7.iii. Heat transfer rate;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1729;6. Heat Transfer by Natural convection;6.1;6.1. Average nusselt number;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1729;6. Heat Transfer by Natural convection;6.2;6.2. Reduce the equation;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1729;6. Heat Transfer by Natural convection;6.3;6.3. Time for cooling of plate;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1729;6. Heat Transfer by Natural convection;6.4;6.4. True air temperature;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1729;6. Heat Transfer by Natural convection;6.5;6.5. Rate of heat flow by natural convection;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1729;6. Heat Transfer by Natural convection;6.6;6.6. Average Heat transfer coeffficient;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1730;7. Heat Exchangers;7.1;7.1. Heat transfer coeffficient;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1730;7. Heat Exchangers;7.2;7.2. Area of heat exchanger;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1730;7. Heat Exchangers;7.3;7.3. Mean temperature difference;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1730;7. Heat Exchangers;7.4.a;7.4.a. Area of heat exchanger;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1730;7. Heat Exchangers;7.4.b;7.4.b. Exit temperature of hot and cold streams;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1730;7. Heat Exchangers;7.5;7.5. Exit Temperature;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1739;8. Condensation and boiling;8.1;8.1. Average Heat Transfer Coefficient;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1739;8. Condensation and boiling;8.2;8.2. Average heat transfer coefficient and film Reynolds number;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1739;8. Condensation and boiling;8.3;8.3. Length of the tube;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1739;8. Condensation and boiling;8.4;8.4. boiling regions;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1739;8. Condensation and boiling;8.5;8.5. Initial heat transfer rate;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1721;9. Mass Transfer;9.1;9.1. Composition on molar basis;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1721;9. Mass Transfer;9.2;9.2. Diffusion coefficient of napthalene;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1721;9. Mass Transfer;9.3.a;9.3.a. Rate of hydrogen diffusion;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1721;9. Mass Transfer;9.3.b;9.3.b. Rate of hydrogen diffusion;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1721;9. Mass Transfer;9.4.a;9.4.a. Rate of loss of ammonia;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1721;9. Mass Transfer;9.4.b;9.4.b. Rate at which air enters the tank;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1721;9. Mass Transfer;9.5;9.5. Rate of evaporation;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1721;9. Mass Transfer;9.6;9.6. Rate of evaporation;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1721;9. Mass Transfer;9.7.a;9.7.a. Mass transfer coefficient Colburn anology;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1721;9. Mass Transfer;9.7.b;9.7.b. Mass transfer coefficient Gnielinski equation;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1721;9. Mass Transfer;9.7.c;9.7.c. To show mass flux of water vapour is small;correct;runtime; -530;Textbook Of Heat Transfer(S. P. Sukhatme);1721;9. Mass Transfer;9.8;9.8. Mass fraction;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1674;1. Introduction;1.1;1.1. Heat Loss Through Wall;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1674;1. Introduction;1.2;1.2. Surface Emissive Power and Irradiation;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1674;1. Introduction;1.3;1.3. Theoretical Problem;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1674;1. Introduction;1.4;1.4. Coolant Fluid Velocity;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1674;1. Introduction;1.5;1.5. Theoretical Problem;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1674;1. Introduction;1.6;1.6. Human Body Heat Loss;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1674;1. Introduction;1.7;1.7. Cure Temperature;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1674;1. Introduction;1.8;1.8. Theoretical Problem;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1676;2. Introduction to Conduction;2.1;2.1. Thermal Diffusivity;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1676;2. Introduction to Conduction;2.2;2.2. Non Uniform Temperature Distribution;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1676;2. Introduction to Conduction;2.3;2.3. Theoretical Problem;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1677;3. One Dimensional Steady State Conduction;3.1;3.1. Human Heat Loss;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1677;3. One Dimensional Steady State Conduction;3.10;3.10. Finned Cylinder Heat Transfer;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1677;3. One Dimensional Steady State Conduction;3.11;3.11. Study of Fuel Cell Fan System;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1677;3. One Dimensional Steady State Conduction;3.12;3.12. Heat Loss From Body and Temp at Inner Surface;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1677;3. One Dimensional Steady State Conduction;3.2;3.2. Chip Operating Temperature;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1677;3. One Dimensional Steady State Conduction;3.3;3.3. Carbon Nanotube;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1677;3. One Dimensional Steady State Conduction;3.4;3.4. Conical Section;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1677;3. One Dimensional Steady State Conduction;3.5;3.5. Critical Thickness;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1677;3. One Dimensional Steady State Conduction;3.6;3.6. Spherical Composite;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1677;3. One Dimensional Steady State Conduction;3.7;3.7. Composite Plane Wall;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1677;3. One Dimensional Steady State Conduction;3.8;3.8. Theoretical Problem;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1677;3. One Dimensional Steady State Conduction;3.9;3.9. Rod Fin Heat Transfer;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1680;4. Two Dimensional Steady State Conduction;4.1;4.1. Thermal Resistance of Eccentric Wire;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1680;4. Two Dimensional Steady State Conduction;4.2;4.2. Theoretical Problem;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1680;4. Two Dimensional Steady State Conduction;4.3;4.3. Temperature Distribution in Column and Heat Rate per Unit Length;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1680;4. Two Dimensional Steady State Conduction;4.4;4.4. Temperature Field of Channel and Rate of Heat Transfer;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1681;5. Transient Conduction;5.1;5.1. Thermo Couple Junction;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1681;5. Transient Conduction;5.10;5.10. Temperature Distribution Analytical and Explicit and Implicit Finite Difference;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1681;5. Transient Conduction;5.2;5.2. Steady State Temperature of Junction;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1681;5. Transient Conduction;5.3;5.3. Total Time Required for Two Step Process;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1681;5. Transient Conduction;5.4;5.4. Radial System with Convection;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1681;5. Transient Conduction;5.5;5.5. Two Step Cooling Process Of Sphere;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1681;5. Transient Conduction;5.6;5.6. Burial Depth;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1681;5. Transient Conduction;5.7;5.7. Spherical Tumor;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1681;5. Transient Conduction;5.8;5.8. Thermal Conductivity of Nanostructured Material;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1681;5. Transient Conduction;5.9;5.9. Temperature Distribution Using Finite Difference Method;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1683;6. Introduction to Convection;6.1;6.1. Theroetical Problem;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1683;6. Introduction to Convection;6.2;6.2. Napthalene Sublimation;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1683;6. Introduction to Convection;6.3;6.3. Convection Mass Transfer Coefficient;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1683;6. Introduction to Convection;6.4;6.4. Convection Mass Transfer coefficient of Plate;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1683;6. Introduction to Convection;6.5;6.5. Heat Flux of Plate;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1683;6. Introduction to Convection;6.6;6.6. Molar Flux over Plate;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1683;6. Introduction to Convection;6.7;6.7. Evaporative Cooling;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1698;7. External Flow;7.1;7.1. Cooling Rate per Unit Width of the Plate;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1698;7. External Flow;7.2;7.2. Maximum Heater Power Requirement;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1698;7. External Flow;7.3;7.3. Daily Water Loss;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1698;7. External Flow;7.4;7.4. Convection Coefficient Using Zukauskas Relation;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1698;7. External Flow;7.5;7.5. Convective Heat transfer to the Canister;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1698;7. External Flow;7.6;7.6. Time required to Cool on Plastic Film;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1698;7. External Flow;7.7;7.7. Air side Convection coefficient and Heat Rate for Staggered Arrangement;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1700;8. Internal Flow;8.1;8.1. Theoretical Problem;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1700;8. Internal Flow;8.2;8.2. Length of Tube and Local Convection Coefficient at the Outlet;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1700;8. Internal Flow;8.3;8.3. Average Convection Coefficient of Stream;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1700;8. Internal Flow;8.4;8.4. Solar Energy;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1700;8. Internal Flow;8.5;8.5. Length of Blood Vessel Artery;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1700;8. Internal Flow;8.6;8.6. Heat Loss from the Metal Duct over the Length;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1700;8. Internal Flow;8.7;8.7. Micro Channel;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1700;8. Internal Flow;8.8;8.8. Average mass trasnfer Convection Coefficient for the Tube;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1703;9. Free Convection;9.1;9.1. Vertical Plate;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1703;9. Free Convection;9.2;9.2. Heat Transfer by Convection Between Screen and Room air;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1703;9. Free Convection;9.3;9.3. Heat Loss from Duct per Meter of Length;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1703;9. Free Convection;9.4;9.4. Heat Loss from Pipe per Meter of Length;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1703;9. Free Convection;9.5;9.5. Radiation Shield;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1704;10. Boiling and Condensation;10.1;10.1. Boiling Water Pan;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1704;10. Boiling and Condensation;10.2;10.2. Power Dissipation per unith Length for the Horizontal Cylinder;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1704;10. Boiling and Condensation;10.3;10.3. Heat Transfer and Condensation Rates;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1704;10. Boiling and Condensation;10.4;10.4. Condensation Rate per unit Length of Tubes;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1710;11. Heat Exchangers;11.1;11.1. Tube Length to Achieve a Desired Hot Fluid Temperature in a Counter Flow Tube Heat Exchanger;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1710;11. Heat Exchangers;11.2;11.2. Exterior Dimensions of Counter Flow Plate Heat Exchanger;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1710;11. Heat Exchangers;11.3;11.3. Required Gas Side Surface Area in CrossFlow Finned Heat Exchanger;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1710;11. Heat Exchangers;11.4;11.4. Heat Transfer Rate and Fluid Outlet Temperatures of Cross Flow Finned Heat Exchanger;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1710;11. Heat Exchangers;11.5;11.5. Study of Shell n Tube Heat Exchanger;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1710;11. Heat Exchangers;11.6;11.6. Finned Compact Heat Exchanger;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1711;12. Radiation Processes and Properties;12.1;12.1. Plate Surface Emission Study;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1711;12. Radiation Processes and Properties;12.10;12.10. Total Hemispherical Absorptivity and Emissivity of Metallic Sphere;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1711;12. Radiation Processes and Properties;12.11;12.11. Heat Removal Rate per Unit Area of Solar Collector;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1711;12. Radiation Processes and Properties;12.2;12.2. Total Irradiation of Spectral Distribution;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1711;12. Radiation Processes and Properties;12.3;12.3. Blackbody Radiation;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1711;12. Radiation Processes and Properties;12.4;12.4. Blackbody Angular Radiation;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1711;12. Radiation Processes and Properties;12.5;12.5. Diffuse Emitter;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1711;12. Radiation Processes and Properties;12.6;12.6. Metallic Surface Irradiation;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1711;12. Radiation Processes and Properties;12.7;12.7. Study of Radiation on Opaque Surface;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1711;12. Radiation Processes and Properties;12.8;12.8. Total Emissivity of Cover Glass to Solar Radiation;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1711;12. Radiation Processes and Properties;12.9;12.9. Total Hemispherical Emissivity of Fire Brick Wall;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1712;13. Radiation Exchange between the Surface;13.1;13.1. Theoretical Problem;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1712;13. Radiation Exchange between the Surface;13.2;13.2. View Factor of Different Geometries;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1712;13. Radiation Exchange between the Surface;13.3;13.3. Net rate of Heat transfer to the absorber surface;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1712;13. Radiation Exchange between the Surface;13.4;13.4. Power Required to Maintain Prescribed Temperatures in Cylindrical Furnace;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1712;13. Radiation Exchange between the Surface;13.5;13.5. Concentric Tube Arrangement;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1712;13. Radiation Exchange between the Surface;13.6;13.6. Rate at which Heat must be Supplied per Unit Length of Triangular Duct;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1712;13. Radiation Exchange between the Surface;13.7;13.7. Semi Circular Tube;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1714;14. Diffusion Mass Transfer;14.1;14.1. Molar and Mass Fluxes of Hydrogen;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1714;14. Diffusion Mass Transfer;14.2;14.2. Evaporation Rate Through a Single Pore;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1714;14. Diffusion Mass Transfer;14.3;14.3. Polymer Sheet and Trough Geometry;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1714;14. Diffusion Mass Transfer;14.4;14.4. Helium Gas Spherical Container;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1714;14. Diffusion Mass Transfer;14.5;14.5. Hydrogen Plastic Diffusion;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1714;14. Diffusion Mass Transfer;14.6;14.6. Bacteria BioFilm;correct;runtime; -534;Fundamentals Of Heat And Mass Transfer(F. P. Incropera, D. P. Dewitt, T. L. Bergman And A. S. Lavine);1714;14. Diffusion Mass Transfer;14.7;14.7. Drug Medication;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1646;1. Units and Dimensions;1.1;1.1. Conversion of poise into British Engineering and SI units;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1646;1. Units and Dimensions;1.2;1.2. Conversion of kW to hp;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1647;2. Flow of Fluids Energy and Momentum Relationships;2.1;2.1. Estimation of volume of vessel by 3 methods;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1647;2. Flow of Fluids Energy and Momentum Relationships;2.3;2.3. Calculation of reaction force;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1647;2. Flow of Fluids Energy and Momentum Relationships;2.4;2.4. Calculation of resultant force;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1647;2. Flow of Fluids Energy and Momentum Relationships;2.5;2.5. Calculation of jet velocity neglecting frictional effects;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1647;2. Flow of Fluids Energy and Momentum Relationships;2.6;2.6. Calculation of pressure at the wall;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1645;3. Flow of liquids in Pipes and Open Channels;3.1;3.1. Pressure drop calculation in pipeline;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1645;3. Flow of liquids in Pipes and Open Channels;3.10;3.10. Calculation of yeild stress plastic viscosity pressure drop and centre line velocity;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1645;3. Flow of liquids in Pipes and Open Channels;3.11;3.11. Calculation of velocity and ratio of volumetric flow rates;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1645;3. Flow of liquids in Pipes and Open Channels;3.2;3.2. Maximum allowable water velocity calculation;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1645;3. Flow of liquids in Pipes and Open Channels;3.3;3.3. Calculation of time for drop in water level;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1645;3. Flow of liquids in Pipes and Open Channels;3.4;3.4. Calculation of volumetric flow rate;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1645;3. Flow of liquids in Pipes and Open Channels;3.5;3.5. Calculation of radius for given condition;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1645;3. Flow of liquids in Pipes and Open Channels;3.6;3.6. Calculation of loss in head due to sudden enlargement of pipe;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1645;3. Flow of liquids in Pipes and Open Channels;3.7;3.7. Calculation of power supplied to the pump;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1645;3. Flow of liquids in Pipes and Open Channels;3.8;3.8. Calculation of initial rate of discharge of water;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1645;3. Flow of liquids in Pipes and Open Channels;3.9;3.9. Calculation of velocity and liquid depth;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1735;4. Flow of Compressible Fluids;4.1;4.1. Plot the rate of discharge of air vs cylinder pressure and vs Downstream Pressure;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1735;4. Flow of Compressible Fluids;4.2;4.2. Calculation of approximate flow rate of fluid;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1735;4. Flow of Compressible Fluids;4.3;4.3. Calculation of Pressure to be developed at the compressor in order to achieve a given flowrate;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1735;4. Flow of Compressible Fluids;4.4;4.4. Calculation of rate of discharge of gas upstream and downstream pressure and mach number;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1722;5. Flow of Multiphase Mixtures;5.1;5.1. Calculation of Pressure drop per unit length of pipe under adiabatic conditions;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1722;5. Flow of Multiphase Mixtures;5.2;5.2. Calculation of maximum mass flow of sand;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1722;5. Flow of Multiphase Mixtures;5.3;5.3. Calculation of Pressure drop;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1723;6. Flow and Pressure Measurement;6.1;6.1. Calculation of difference in level on a water manometer;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1723;6. Flow and Pressure Measurement;6.2;6.2. Calculation of mass flow rate and drop in pressure;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1723;6. Flow and Pressure Measurement;6.3;6.3. Calculation of Coefficient for the converging cone of the meter at given flowrate;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1723;6. Flow and Pressure Measurement;6.4;6.4. Calculation of flow rate of water;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1723;6. Flow and Pressure Measurement;6.5;6.5. Calculation of volumetric flow rate of water;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1723;6. Flow and Pressure Measurement;6.6;6.6. Calculation of Height of liquid flowing over the weir;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1724;7. Liquid Mixing;7.2;7.2. Calculation of the power provided by the propeller to the liquid;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1724;7. Liquid Mixing;7.3;7.3. Determining new power consumption reynolds number and rotor speed;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1734;8. Pumping of Fluids;8.1;8.1. Calculation of the maximum speed at which the pump can run;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1734;8. Pumping of Fluids;8.10;8.10. Calculation of flow rate and power required by the pump;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1734;8. Pumping of Fluids;8.2;8.2. Calculation of the minimum height required between the liquid level in the reboiler and the pump;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1734;8. Pumping of Fluids;8.3;8.3. Calculation of the theoretical power requirements for the compression;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1734;8. Pumping of Fluids;8.4;8.4. Calculation of the work of compression isothermal and isentropic efficiency and the raio of swept volumes in two cylinders;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1734;8. Pumping of Fluids;8.5;8.5. Calculation of the power requirement of the pump;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1734;8. Pumping of Fluids;8.6;8.6. Calculation of the efficiency of the pump and the mean velocity of the mixture in the pipe;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1734;8. Pumping of Fluids;8.7;8.7. Calculation of power to be supplied to the pump;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1734;8. Pumping of Fluids;8.8;8.8. Estimation of the rate of flow and the power to be supplied to the pump;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.1;9.1. Calculation of surface area for counter and cocurrent flow in concentric heat exchanger;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.10;9.10. Calculation of pressure drop over tube bundle;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.11;9.11. Calculation of heat transfer coefficient;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.12;9.12. Calculation of temperature of a surface coated with carbon black;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.13;9.13. Calculation of number of heating elements;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.14;9.14. Calculation of emissivity of a grey surface;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.15;9.15. Calculation of the view factor and net radiation transfer;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.16;9.16. Calculation of view factor for 3 dimensional geometry using figures;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.17;9.17. Calculation of view factor of two parallel rings;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.18;9.18. Calculation of net rate of heat transfer by radiation to the plate;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.19;9.19. Calculation of radiant heat transfer to the vessel;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.2;9.2. Calculation of the heat loss per square meter of the surface;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.20;9.20. Calculation of radiosity net rate of heat transfer and coefficient of heat transfer;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.21;9.21. Estimation of the electrical input to the heater and the net rate of heat transfer to the plate;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.22;9.22. Calculation of net radiation to the walls;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.23;9.23. Estimation of the overall coefficient of heat transfer and the dirt factor for the condenser;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.24;9.24. Calculation of overall heat transfer coeffecient;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.25;9.25. To calculate the time required fo heating the liquid;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.26;9.26. Calculation of the surface area required to effect the given duty using a multipass heat exchanger;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.27;9.27. Estimation of the heat transfer area required for the system;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.28;9.28. Using Kerns method to design Shell n tube heat exchanger;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.29;9.29. Estimation of Effectiveness of the given double pipe heat exchanger;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.3;9.3. Estimation of Heat loss and temperature at firebrick insulating brick interface;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.30;9.30. Estimate heat transfer surfaces of One shell pass two tube pass heat exchanger;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.31;9.31. Calculation of gas temperature flowing through a copper pipe;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.32;9.32. Determination of the heat loss per metre run of the tube;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.33;9.33. Calculation of heat loss to the air;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.34;9.34. Determination of the economic thickness of lagging;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.4;9.4. Calculatation of the time taken for distant face of brick wall to rise from 295 to 375 K;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.5;9.5. Calculatation of the time taken for distant face of brick wall to rise from 295 to 375 K using Schmidts method;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.6;9.6. Calculation of final temperature of a sphere and a cube;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.7;9.7. Calculation of minimum time required for heating a sheet;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.8;9.8. alculation of the temperature difference between the surface and the centre of the uranium element;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1725;9. Heat Transfer;9.9;9.9. Calculation of value of scale resistance;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1733;10. Mass Transfer;10.1;10.1. Estimation of the rate of diffusion of ammonia through the layer;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1733;10. Mass Transfer;10.10;10.10. Determination of order of chemical reaction;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1733;10. Mass Transfer;10.11;10.11. Calculate By what factor will the mass transfer rate across the interface change;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1733;10. Mass Transfer;10.12;10.12. Estimation of the Thiele modulus and the effectiveness factor for a reactor;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1733;10. Mass Transfer;10.13;10.13. Calculation of the effectiveness factor and the concentration of reactant at a given position;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1733;10. Mass Transfer;10.14;10.14. Calculation of the effectiveness factor;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1733;10. Mass Transfer;10.2;10.2. Calculation of the diffusivity of carbon tetrachloride vapour in air;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1733;10. Mass Transfer;10.3;10.3. Calculation of the mass transfer rate per unit area;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1733;10. Mass Transfer;10.4;10.4. Calculation of the maximum length of column to which penetration theory can be applied;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1733;10. Mass Transfer;10.5;10.5. Calculation of equivalent resisitance and time required;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1733;10. Mass Transfer;10.6;10.6. Calculating proportion of absorbed carbon dioxide;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1733;10. Mass Transfer;10.8;10.8. Calculation of overall mass transfer coeffecient based on gas phase;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1733;10. Mass Transfer;10.9;10.9. Calculation of numerical value of a given ratio;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1736;11. The Boundary Layer;11.1;11.1. Calculation of total drag force acting on a surface;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1736;11. The Boundary Layer;11.2;11.2. Calculation of thickness and displacement thickness of the boundary layer;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1736;11. The Boundary Layer;11.3;11.3. Calculation of the thickness of the laminar sublayer and velocity of the benzene;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1737;12. Momentum Heat and Mass Transfer;12.1;12.1. Calculation of thickness of laminar sub layer;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1737;12. Momentum Heat and Mass Transfer;12.2;12.2. Estimation of the air temperature at a given point along the pipe;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1737;12. Momentum Heat and Mass Transfer;12.3;12.3. Estimation of outlet temperature by different methods;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1737;12. Momentum Heat and Mass Transfer;12.4;12.4. Estimation of outlet temperature by different methods;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1738;13. Humidification and Water Cooling;13.1;13.1. Pressure calculation;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1738;13. Humidification and Water Cooling;13.2;13.2. Calculation of partial pressure specific volumes humidity humid volume and percentage humidity;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1738;13. Humidification and Water Cooling;13.3;13.3. Estimation of the humidity of the air and the percentage relative humidity;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1738;13. Humidification and Water Cooling;13.4;13.4. Determination of the temperature of the material on each tray the amount of water removed and the temperature to which the inlet air would have to be raised;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1738;13. Humidification and Water Cooling;13.5;13.5. Calculation of enthalpy humidity and temperature of resultant stream;correct;runtime; -536;Chemical Engineering - Fluid Flow, Heat Transfer And Mass Transfer - Vol. 1(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1738;13. Humidification and Water Cooling;13.6;13.6. Calculation of temperature enthalpy and relative humidity of mixed stream;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1652;3. The Structure of Crystalline Solids;3.1;3.1. Determination of FCC Unit Cell Volume;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1652;3. The Structure of Crystalline Solids;3.11;3.11. Determination of Miller Bravais Indices;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1652;3. The Structure of Crystalline Solids;3.12.a;3.12.a. Interplanar Spacing;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1652;3. The Structure of Crystalline Solids;3.12.b;3.12.b. Diffraction Angle Computations;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1652;3. The Structure of Crystalline Solids;3.2;3.2. Computation of the Atomic Packing Factor for FCC;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1652;3. The Structure of Crystalline Solids;3.3;3.3. Theoretical Density Computation for Copper;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1652;3. The Structure of Crystalline Solids;3.5;3.5. Specification of Point Coordinates;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1652;3. The Structure of Crystalline Solids;3.6;3.6. Determination of Directional Indices;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1652;3. The Structure of Crystalline Solids;3.8;3.8. Determination of Directional Indices for a Hexagonal Unit Cell;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1652;3. The Structure of Crystalline Solids;3.9;3.9. Determination of Planar Indices;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1653;4. Imperfections in Solids;4.1;4.1. Number of Vacancies Computation;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1653;4. Imperfections in Solids;4.3;4.3. Composition Conversion From Weight Percent to Atom Percent;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1653;4. Imperfections in Solids;4.4.a;4.4.a. Computations of ASTM Grain Size Number;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1653;4. Imperfections in Solids;4.4.b;4.4.b. Number of Grains Per Unit Area;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1654;5. Diffusion;5.1;5.1. Diffusion Flux Computation;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1654;5. Diffusion;5.2;5.2. Nonsteady State Diffusion Time Computation;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1654;5. Diffusion;5.3;5.3. Nonsteady State Diffusion Time Computation II;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1654;5. Diffusion;5.4;5.4. Diffusion Coefficient Determination;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1654;5. Diffusion;5.5;5.5. Diffusion Coefficient Activation Energy;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1654;5. Diffusion;5.6;5.6. Diffusion Temperature Time Heat Treatment Specification;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1655;6. Mechanical Properties of Metals;6.1;6.1. Elongation Computation;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1655;6. Mechanical Properties of Metals;6.2;6.2. Computation of Load to Produce Specified Diameter Change;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1655;6. Mechanical Properties of Metals;6.3.a;6.3.a. Modulus of elasticity;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1655;6. Mechanical Properties of Metals;6.3.c;6.3.c. Maximum load;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1655;6. Mechanical Properties of Metals;6.3.d;6.3.d. Change in length;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1655;6. Mechanical Properties of Metals;6.4.a;6.4.a. Ductility Computations;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1655;6. Mechanical Properties of Metals;6.4.b;6.4.b. True Stress At Fracture Computations;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1655;6. Mechanical Properties of Metals;6.5;6.5. Calculation of Strain Hardening Exponent;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1655;6. Mechanical Properties of Metals;6.6.a;6.6.a. Average Computations;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1655;6. Mechanical Properties of Metals;6.6.b;6.6.b. Standard Deviation Computations;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1655;6. Mechanical Properties of Metals;6.7;6.7. Specification of Support Post Diameter;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1659;7. Dislocations and Strengthening Mechanisms;7.1.a;7.1.a. Resolved Shear Stress;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1659;7. Dislocations and Strengthening Mechanisms;7.1.b;7.1.b. Stress to Initiate Yielding Computations;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1659;7. Dislocations and Strengthening Mechanisms;7.2;7.2. Tensile Strength and Ductility Determinations;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1659;7. Dislocations and Strengthening Mechanisms;7.3;7.3. Description of Diameter Reduction Procedure;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1660;8. Failure;8.1;8.1. Maximum Flaw Length Computation;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1660;8. Failure;8.2;8.2. Rupture Lifetime Prediction;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1660;8. Failure;8.3;8.3. Estimating theoretical fracture strength;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1660;8. Failure;8.4;8.4. Computation of critical shear stress;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1660;8. Failure;8.5;8.5. Determining maximum allowable surface crack length;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1658;9. Phase Diagrams;9.1;9.1. Lever Rule Derivation;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1658;9. Phase Diagrams;9.2;9.2. Determination of Phases Present;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1658;9. Phase Diagrams;9.3.a;9.3.a. Relative Phase Amount Determinations;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1658;9. Phase Diagrams;9.3.b;9.3.b. Mass and Volume Fractions;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1658;9. Phase Diagrams;9.4.a;9.4.a. fractions of total ferrite and cementite phases;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1658;9. Phase Diagrams;9.4.b;9.4.b. Fractions of the proeutectoid ferrite and pearlite;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1658;9. Phase Diagrams;9.4.c;9.4.c. Fraction of eutectoid ferrite;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1670;10. Phase Transformations in Metals;10.1.a;10.1.a. Computation of Critical Nucleus Radius;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1670;10. Phase Transformations in Metals;10.1.b;10.1.b. Activation Free Energy Compputation;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1670;10. Phase Transformations in Metals;10.2;10.2. Determination the rate of recrystallization;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1669;12. Structures and Properties of Ceramics;12.1;12.1. Computation of Minimum Cation to Anion Radius Ratio;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1669;12. Structures and Properties of Ceramics;12.2;12.2. Ceramic Crystal Structure Prediction;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1669;12. Structures and Properties of Ceramics;12.3;12.3. Theoretical Density Calculation;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1669;12. Structures and Properties of Ceramics;12.4;12.4. Computation of the Number of Schottky Defects;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1669;12. Structures and Properties of Ceramics;12.5;12.5. Determination of Possible Point Defect Types;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1672;14. Polymer Structures;14.2.a;14.2.a. Computations of the Density;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1672;14. Polymer Structures;14.2.b;14.2.b. Computation of Percent Crystallinity;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1672;14. Polymer Structures;14.3.a;14.3.a. Computations of Diffusion Flux of Carbon Dioxide;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1672;14. Polymer Structures;14.3.b;14.3.b. Computation of Beverage Shelf Life;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1650;16. Composites;16.1.a;16.1.a. Modulus of elasticity;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1650;16. Composites;16.1.b;16.1.b. Magnitude of the load;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1650;16. Composites;16.1.c;16.1.c. Strain determination;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1650;16. Composites;16.2;16.2. Elastic Modulus Determination;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1649;17. Corrosion and Degradation of Materials;17.1;17.1. Determination of Electrochemical Cell Characteristics;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1649;17. Corrosion and Degradation of Materials;17.2.a;17.2.a. Rate of Oxidation Computation;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1649;17. Corrosion and Degradation of Materials;17.2.b;17.2.b. Corrosion potential determination;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1649;17. Corrosion and Degradation of Materials;17.3;17.3. Temperature Computation;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1616;18. Electrical Properies;18.1;18.1. Computation of the Room Temperature Intrinsic Carrier Concentration;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1616;18. Electrical Properies;18.2;18.2. Electrical Conductivity Determination for Intrinsic Silicon;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1616;18. Electrical Properies;18.3.b;18.3.b. Room Temperature for Extrinsic Silicon;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1616;18. Electrical Properies;18.3.c;18.3.c. Elevated Temperature Electrical Conductivity Calculations;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1616;18. Electrical Properies;18.4;18.4. Hall Voltage Computation;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1616;18. Electrical Properies;18.6;18.6. Acceptor Impurity Doping in Silicon;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1615;19. Thermal Properties;19.1;19.1. Thermal Stress Created Upon Heating;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1615;19. Thermal Properties;19.2;19.2. Final temperature Calculation;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1615;19. Thermal Properties;19.3;19.3. Computation of specific heats for Al and Fe;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1614;20. Magnetic Properties;20.1.a;20.1.a. Saturation Magnetization;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1614;20. Magnetic Properties;20.1.b;20.1.b. Flux Density Computations for Nickel;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1614;20. Magnetic Properties;20.2;20.2. Saturation Magnetization Determination;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1614;20. Magnetic Properties;20.3;20.3. Design of a Mixed Ferrite Magnetic Material;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1613;21. Optical Properties;21.1;21.1. Computation of the Absorption Coefficient for Glass;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1613;21. Optical Properties;21.2;21.2. Velocity of light in diamond;correct;runtime; -539;Materials Science And Engineering: An Introduction(W. D. Callister);1613;21. Optical Properties;21.3;21.3. Suitable material required;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1675;1. Particulate Solids;1.1;1.1. Surface mean diameter;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1675;1. Particulate Solids;1.2;1.2. Surface and mass distribution curve and surface mean diameter;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1675;1. Particulate Solids;1.3;1.3. variation of mixing index with time;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1675;1. Particulate Solids;1.4;1.4. minimum apparent density for seperation;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1675;1. Particulate Solids;1.5;1.5. efficiency of collection for dust;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1675;1. Particulate Solids;1.6;1.6. Overall efficiency of collector;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1675;1. Particulate Solids;1.7;1.7. Estimation of particle size;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1678;2. Particle size reduction and enlargement;2.1;2.1. Consumption of energy;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1678;2. Particle size reduction and enlargement;2.2;2.2. Maximum size of the particle;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1678;2. Particle size reduction and enlargement;2.3;2.3. Proposed modifications in ball mill;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1682;3. Motion of particles in a fluid;3.1;3.1. terminal velocity;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1682;3. Motion of particles in a fluid;3.2;3.2. Estimation of galena;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1682;3. Motion of particles in a fluid;3.3;3.3. terminal velocity;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1682;3. Motion of particles in a fluid;3.4;3.4. Approximate distance travelled;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1682;3. Motion of particles in a fluid;3.5;3.5. maximum size of crystals;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1684;4. Flow of fluids through granular beds and packed columns;4.1;4.1. pressure calculation;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1685;5. Sedimentation;5.1;5.1. Minimum area of thickener;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1685;5. Sedimentation;5.2;5.2. Sedimentation velocity and solids flux;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1685;5. Sedimentation;5.3;5.3. Rate of deposition and maximum flux;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1686;6. Fluidisation;6.1;6.1. minimum fluidising velocity;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1686;6. Fluidisation;6.2;6.2. fluidisation and transport of particles;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1686;6. Fluidisation;6.3;6.3. Voidage of the bed;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1686;6. Fluidisation;6.4;6.4. slope of adsorption isotherm;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1686;6. Fluidisation;6.5;6.5. Coefficient of heat transfer between gas and the particles;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1686;6. Fluidisation;6.6;6.6. Volumetric fraction of the bed carrying out evaporation;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1687;7. Liquid filtration;7.1;7.1. volume of filtrate collected per cycle;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1687;7. Liquid filtration;7.2;7.2. Effect on optimium thickness of the cake;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1687;7. Liquid filtration;7.3;7.3. Time taken to produce 1 m3 of filtrate and pressure in this time;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1687;7. Liquid filtration;7.4;7.4. Speed of rotation for maximum throughput;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1687;7. Liquid filtration;7.5;7.5. Optimum filtration time for maximum throughput;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1687;7. Liquid filtration;7.6;7.6. Thickness of cake produced;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1687;7. Liquid filtration;7.7;7.7. Increase in the overall throughput of the press;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1688;8. Membrane Seperation Processes;8.2;8.2. Area of membrane and average flux;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1688;8. Membrane Seperation Processes;8.3;8.3. Minimum number of membrane modules required;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1689;9. Centrifugal Seperations;9.1;9.1. Value of capacity factor;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1689;9. Centrifugal Seperations;9.3;9.3. TIme taken to produce filtrate;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1691;10. Leaching;10.1;10.1. Time required for solute to dissolve;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1691;10. Leaching;10.2;10.2. Rate of feed of neutral water to the thickeners;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1691;10. Leaching;10.3;10.3. Required number of thickners;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1691;10. Leaching;10.4;10.4. Number of ideal stages required;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1691;10. Leaching;10.5;10.5. Number of theoretical stages required;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1699;11. Distillation;11.1;11.1. Mole fraction calculation;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1699;11. Distillation;11.10;11.10. Heat required;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1699;11. Distillation;11.11;11.11. Number of theoretical stages required;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1699;11. Distillation;11.12;11.12. Amount of distillate;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1699;11. Distillation;11.13;11.13. Heat required and average composition;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1699;11. Distillation;11.14;11.14. Ideal plates required;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1699;11. Distillation;11.15;11.15. Minimum reflux ratio;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1699;11. Distillation;11.16;11.16. Minimum reflux ratio;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1699;11. Distillation;11.17;11.17. Number of theoretical plates required;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1699;11. Distillation;11.18;11.18. Xhange in n with R;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1699;11. Distillation;11.19;11.19. Optimum reflux ratio;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1699;11. Distillation;11.2;11.2. Saturated Pressure calculation;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1699;11. Distillation;11.20;11.20. Plate efficiency for the given data;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1699;11. Distillation;11.3;11.3. Vapour phase composition of a mixture;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1699;11. Distillation;11.4;11.4. Boiling point of equimolar mixture;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1699;11. Distillation;11.5;11.5. Dew point of a equimolar mixture;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1699;11. Distillation;11.6;11.6. Composition of vapour and liquid;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1699;11. Distillation;11.7;11.7. Number of theoretical plates needed;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1699;11. Distillation;11.8;11.8. The Mc Cabe Thiele method;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1699;11. Distillation;11.9;11.9. Number of plates required at total reflux;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1701;12. Absorption of gases;12.1;12.1. Overall liquid film coefficient;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1701;12. Absorption of gases;12.2;12.2. Mass transfer coefficient;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1701;12. Absorption of gases;12.3;12.3. Overall transfer units required;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1701;12. Absorption of gases;12.4;12.4. Height of transfer units and number of transfer units;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1701;12. Absorption of gases;12.5;12.5. Height of the tower;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1701;12. Absorption of gases;12.6;12.6. specific steam consumption;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1702;13. Liquid liquid extraction;13.1;13.1. Composition of final raffinate;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1702;13. Liquid liquid extraction;13.3;13.3. Overall transfer coefficient;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1702;13. Liquid liquid extraction;13.4;13.4. Surface mean droplet size;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1702;13. Liquid liquid extraction;13.5;13.5. Number of overall transfer units in raffinate phase;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1705;14. Evaporation;14.1;14.1. Heat surface required;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1705;14. Evaporation;14.2A;14.2A. Forward feed;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1705;14. Evaporation;14.2B;14.2B. Backward feed;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1705;14. Evaporation;14.3;14.3. Efficiency of the compressor;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1705;14. Evaporation;14.4;14.4. Quantity of additional stream required;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1705;14. Evaporation;14.5;14.5. Capacity and economy of the system;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1705;14. Evaporation;14.6;14.6. Method to drive the compressor;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1705;14. Evaporation;14.7;14.7. Optimum boiling time;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1707;15. Crystallisation;15.1;15.1. Supersaturation ratio;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1707;15. Crystallisation;15.2;15.2. Increase in solubility;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1707;15. Crystallisation;15.3;15.3. Theoretical yield;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1707;15. Crystallisation;15.4;15.4. Yield of Sodium acetate;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1707;15. Crystallisation;15.5;15.5. Length of crystalliser;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1707;15. Crystallisation;15.6;15.6. Crystal production rate;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1707;15. Crystallisation;15.7;15.7. Vapour pressure;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1707;15. Crystallisation;15.8;15.8. Mass sublimation rates;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1708;16. Drying;16.1;16.1. Time taken to dry the solids;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1708;16. Drying;16.2;16.2. Time taken to dry the solids;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1708;16. Drying;16.3;16.3. Mass flow rate of dry air;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1708;16. Drying;16.4;16.4. Approximate drying time;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1708;16. Drying;16.5;16.5. Proposed diameter and length;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1708;16. Drying;16.6;16.6. Specified diameter of the bed;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1713;17. Adsorption;17.1;17.1. Comparison of estimates with the geometric surfaces;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1713;17. Adsorption;17.2;17.2. Applicability of various equilibrium theories;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1713;17. Adsorption;17.3;17.3. Length of the bed;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1713;17. Adsorption;17.5;17.5. Moving bed adsorption design;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1715;18. Ion Exchange;18.1;18.1. Prediction of time t against xs values;correct;runtime; -542;Coulson And Richardson's Chemical Engineering, Volume 2(J. M. Coulson, J. F. Richardson, J. R. Backhurst And J. H. Harker);1715;18. Ion Exchange;18.2;18.2. Concentration of HNO3 in solution;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1503;1. linear algebraic equations;1.1;1.1. TDMA method;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1503;1. linear algebraic equations;1.2;1.2. gauss elimination method;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1503;1. linear algebraic equations;1.3;1.3. gauss elimination method;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1503;1. linear algebraic equations;1.4;1.4. gauss elimination method;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1503;1. linear algebraic equations;1.5;1.5. gauss seidel method;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1503;1. linear algebraic equations;1.6;1.6. gauss seidel method;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1504;2. NONLINEAR ALGEBRAIC EQUATIONS;2.1;2.1. algebraic equations;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1504;2. NONLINEAR ALGEBRAIC EQUATIONS;2.2;2.2. algebraic equations;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1504;2. NONLINEAR ALGEBRAIC EQUATIONS;2.3;2.3. algebraic equations;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1504;2. NONLINEAR ALGEBRAIC EQUATIONS;2.4;2.4. algebraic equations;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1504;2. NONLINEAR ALGEBRAIC EQUATIONS;2.5;2.5. algebraic equations;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1504;2. NONLINEAR ALGEBRAIC EQUATIONS;2.6;2.6. algebraic equations;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1505;3. CHEMICAL ENGINEERING THERMODYNAMICS;3.1;3.1. thermodynamics;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1505;3. CHEMICAL ENGINEERING THERMODYNAMICS;3.10;3.10. adiabatic flame temperature;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1505;3. CHEMICAL ENGINEERING THERMODYNAMICS;3.2;3.2. thermodynamics;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1505;3. CHEMICAL ENGINEERING THERMODYNAMICS;3.3;3.3. flash calculations using Raoult law;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1505;3. CHEMICAL ENGINEERING THERMODYNAMICS;3.4;3.4. BPT and DPT calculation using modified raoult law;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1505;3. CHEMICAL ENGINEERING THERMODYNAMICS;3.5;3.5. flash calculations using modified Raoult law;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1505;3. CHEMICAL ENGINEERING THERMODYNAMICS;3.6;3.6. vapour pressure calculation using cubic equation of state;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1505;3. CHEMICAL ENGINEERING THERMODYNAMICS;3.7;3.7. pressure x y diagram using gamma phi approach;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1505;3. CHEMICAL ENGINEERING THERMODYNAMICS;3.9;3.9. chemical reaction engineering 2 simultaneous reactions;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1506;4. INITIAL VALUE PROBLEMS;4.1;4.1. solution of ordinary differential equation;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1506;4. INITIAL VALUE PROBLEMS;4.10;4.10. series of stirred tank with coil heater;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1506;4. INITIAL VALUE PROBLEMS;4.11;4.11. batch and stirred tank reactor;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1506;4. INITIAL VALUE PROBLEMS;4.12;4.12. batch and stirred tank reactor;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1506;4. INITIAL VALUE PROBLEMS;4.13;4.13. batch and stirred tank reactor;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1506;4. INITIAL VALUE PROBLEMS;4.14;4.14. batch and stirred tank reactor;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1506;4. INITIAL VALUE PROBLEMS;4.15;4.15. plug flow reactor;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1506;4. INITIAL VALUE PROBLEMS;4.16;4.16. plug flow reactor;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1506;4. INITIAL VALUE PROBLEMS;4.17;4.17. plug flow reactor;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1506;4. INITIAL VALUE PROBLEMS;4.18;4.18. non isothermal plug flow reactor;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1506;4. INITIAL VALUE PROBLEMS;4.2;4.2. solution of ordinary differential equation;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1506;4. INITIAL VALUE PROBLEMS;4.3;4.3. double pipe heat exchanger;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1506;4. INITIAL VALUE PROBLEMS;4.4;4.4. stirred tank with coil heater;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1506;4. INITIAL VALUE PROBLEMS;4.5;4.5. stirred tank with coil heater;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1506;4. INITIAL VALUE PROBLEMS;4.6;4.6. pneumatic conveying;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1506;4. INITIAL VALUE PROBLEMS;4.7;4.7. simultaneous ordinary differential equations;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1506;4. INITIAL VALUE PROBLEMS;4.8;4.8. simultaneous ordinary differential equations;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1506;4. INITIAL VALUE PROBLEMS;4.9;4.9. simultaneous ordinary differential equations;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1507;5. BOUNDARY VALUE PROBLEMS;5.1;5.1. discretization in 1 D space;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1507;5. BOUNDARY VALUE PROBLEMS;5.2;5.2. discretization in 1 D space;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1507;5. BOUNDARY VALUE PROBLEMS;5.3;5.3. discretization in 1 D space;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1507;5. BOUNDARY VALUE PROBLEMS;5.4;5.4. discretization in 1 D space;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1507;5. BOUNDARY VALUE PROBLEMS;5.5;5.5. discretization in 1 D space;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1507;5. BOUNDARY VALUE PROBLEMS;5.6;5.6. 1 D steady state heat conduction;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1507;5. BOUNDARY VALUE PROBLEMS;5.7;5.7. 1 D steady state heat conduction;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1507;5. BOUNDARY VALUE PROBLEMS;5.8;5.8. chemical reaction and diffusion in pore;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1508;6. CONVECTION DIFFUSION PROBLEMS;6.1;6.1. upwind scheme;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1508;6. CONVECTION DIFFUSION PROBLEMS;6.2;6.2. upwind scheme;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1510;7. TUBULAR REACTOR WITH AXIAL DISPERSION;7.1;7.1. boundary value problem in chemical reaction engineering;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1510;7. TUBULAR REACTOR WITH AXIAL DISPERSION;7.2;7.2. boundary value problem in chemical reaction engineering second order;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1512;8. CHEMICAL REACTION AND DIFFUSION IN SPHERICAL CATALYST PELLET;8.1;8.1. first order reaction;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1512;8. CHEMICAL REACTION AND DIFFUSION IN SPHERICAL CATALYST PELLET;8.2;8.2. second order reaction;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1512;8. CHEMICAL REACTION AND DIFFUSION IN SPHERICAL CATALYST PELLET;8.3;8.3. non isothermal condition;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1512;8. CHEMICAL REACTION AND DIFFUSION IN SPHERICAL CATALYST PELLET;8.4;8.4. non isothermal condition;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1513;9. ONE DIMENSIONAL TRANSIENT HEAT CONDUCTION;9.1;9.1. transient conduction in rectangular slab;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1513;9. ONE DIMENSIONAL TRANSIENT HEAT CONDUCTION;9.2;9.2. transient conduction in rectangular slab;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1513;9. ONE DIMENSIONAL TRANSIENT HEAT CONDUCTION;9.3;9.3. transient conduction in cylinder;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1513;9. ONE DIMENSIONAL TRANSIENT HEAT CONDUCTION;9.4;9.4. transient conduction in sphere;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1513;9. ONE DIMENSIONAL TRANSIENT HEAT CONDUCTION;9.5;9.5. transient diffusion in sphere;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1514;10. TWO DIMENSIONAL STEADY AND TRANSIENT HEAT CONDUCTION;10.1;10.1. discretization in 2 D space gauss seidel method;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1514;10. TWO DIMENSIONAL STEADY AND TRANSIENT HEAT CONDUCTION;10.10;10.10. ADI method;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1514;10. TWO DIMENSIONAL STEADY AND TRANSIENT HEAT CONDUCTION;10.11;10.11. ADI method for transient heat conduction;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1514;10. TWO DIMENSIONAL STEADY AND TRANSIENT HEAT CONDUCTION;10.2;10.2. discretization in 2 D space gauss seidel method;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1514;10. TWO DIMENSIONAL STEADY AND TRANSIENT HEAT CONDUCTION;10.3;10.3. discretization in 2 D space;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1514;10. TWO DIMENSIONAL STEADY AND TRANSIENT HEAT CONDUCTION;10.8;10.8. discretization in 2 D space;correct;runtime; -545;Introduction To Numerical Methods In Chemical Engineering(P. Ahuja);1514;10. TWO DIMENSIONAL STEADY AND TRANSIENT HEAT CONDUCTION;10.9;10.9. discretization in 2 D space;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1625;2. Fundamental Thoughts;2.1;2.1. Example 1;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1625;2. Fundamental Thoughts;2.2;2.2. Example 2;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1625;2. Fundamental Thoughts;2.3;2.3. Example 3;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1625;2. Fundamental Thoughts;2.4;2.4. Example 4;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1625;2. Fundamental Thoughts;2.5;2.5. Example 5;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1625;2. Fundamental Thoughts;2.6;2.6. example 6;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1626;3. The Standard Atmosphere;3.01;3.01. Example 1;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1626;3. The Standard Atmosphere;3.02;3.02. Example 2;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1626;3. The Standard Atmosphere;3.03;3.03. Example 3;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1626;3. The Standard Atmosphere;3.04;3.04. Example 4;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.01;4.01. Example 1;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.02;4.02. Example 1;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.03;4.03. Example 3;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.04;4.04. Example 4;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.05;4.05. Example 5;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.06;4.06. Example 6;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.07;4.07. Example 7;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.08;4.08. Example 8;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.09;4.09. Example 9;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.10;4.10. Example 10;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.11;4.11. Example 11;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.12;4.12. Example 12;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.13;4.13. Example 13;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.14;4.14. Example 14;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.15;4.15. Example 15;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.16;4.16. Example 16;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.17;4.17. Example 17;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.18;4.18. Example 18;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.19;4.19. Example 19;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.20;4.20. Example 20;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.21;4.21. Example 21;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.22;4.22. Example 22;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.23;4.23. Example 23;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.24;4.24. Example 24;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.25;4.25. Example 25;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.26;4.26. Example 26;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.27;4.27. Example 27;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1627;4. Basic Aerodynamics;4.28;4.28. Example 28;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.01;5.01. Example 1;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.02;5.02. Example 2;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.03;5.03. Example 3;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.04;5.04. Example 4;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.05;5.05. Example 5;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.06;5.06. Example 6;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.07;5.07. Example 7;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.08;5.08. Example 8;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.09;5.09. Example 9;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.10;5.10. Example 10;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.11;5.11. Example 11;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.12;5.12. example 12;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.13;5.13. Example 13;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.14;5.14. Example 14;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.15;5.15. Example 15;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.16;5.16. Example 16;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.17;5.17. Example 17;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.18;5.18. Example 18;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.19;5.19. Example 19;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.20;5.20. Example 20;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1631;5. Airfoils Wings and Other Aerodynamic Shapes;5.21;5.21. Example 21;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.1.a;6.1.a. Example 1 a;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.1.b;6.1.b. Example 1 b;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.12;6.12. Example 12;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.13;6.13. Example 13;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.14;6.14. Example 14;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.15;6.15. Example 15;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.16.b;6.16.b. Example 16 b;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.16.c;6.16.c. Example 16 c;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.16.d;6.16.d. Example 16 d;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.17;6.17. Example 17;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.18;6.18. Example 18;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.19.a;6.19.a. Example 19 a;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.19.b;6.19.b. Example 19 b;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.19.c;6.19.c. Example 19 c;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.19.d;6.19.d. Example 19 d;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.2;6.2. Example 2;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.20;6.20. Example 20;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.3.a;6.3.a. Example 3 a;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.3.b;6.3.b. Example 3 b;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.4.a;6.4.a. Example 4 a;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.4.b;6.4.b. Example 4 b;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.5;6.5. Example 5;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.6;6.6. Example 6;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.7;6.7. Example 7;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.8;6.8. Example 8;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1635;6. Elements Of Airplane Performance;6.9;6.9. Example 9;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1639;7. Principles of Stability and Control;7.1;7.1. Example 1;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1639;7. Principles of Stability and Control;7.2;7.2. Example 2;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1639;7. Principles of Stability and Control;7.3;7.3. Example 3;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1639;7. Principles of Stability and Control;7.4;7.4. Example 4;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1639;7. Principles of Stability and Control;7.5;7.5. Example 5;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1639;7. Principles of Stability and Control;7.6;7.6. Example 6;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1639;7. Principles of Stability and Control;7.7;7.7. Example 7;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1639;7. Principles of Stability and Control;7.8;7.8. Example 8;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1639;7. Principles of Stability and Control;7.9;7.9. Example 9;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1641;8. Space Flight;8.1;8.1. Example 1;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1641;8. Space Flight;8.2;8.2. Example 2;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1641;8. Space Flight;8.3;8.3. Example 3;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1642;9. Propulsion;9.1;9.1. Example 1;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1642;9. Propulsion;9.2;9.2. Example 2;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1642;9. Propulsion;9.3;9.3. Example 3;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1642;9. Propulsion;9.4;9.4. Example 4;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1642;9. Propulsion;9.5;9.5. Example 5;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1643;10. Flight Vehicle Structure and Material;10.1;10.1. Example 1;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1643;10. Flight Vehicle Structure and Material;10.2;10.2. Example 2;correct;runtime; -548;Introduction To Flight(J. D. Anderson Jr.);1644;11. Hypersonic Vehicles;11.1;11.1. Example 1;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.1;2.1. 1;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.10;2.10. 10;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.11;2.11. 11;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.12;2.12. 12;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.13;2.13. 13;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.15;2.15. 15;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.16;2.16. 16;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.17;2.17. 17;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.18;2.18. 18;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.19;2.19. 19;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.2;2.2. 2;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.20;2.20. 20;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.21;2.21. 21;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.22;2.22. 22;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.3;2.3. 3;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.4;2.4. 4;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.5;2.5. 5;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.6;2.6. 6;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.7;2.7. 7;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.8;2.8. 8;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1478;2. Basic Concepts Of Thermodynamics;2.9;2.9. 9;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.1;3.1. 1;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.10;3.10. 10;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.11;3.11. 11;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.12;3.12. 12;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.13;3.13. 13;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.14;3.14. 14;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.15;3.15. 15;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.16;3.16. 16;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.17;3.17. 17;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.18;3.18. 18;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.19;3.19. 19;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.2;3.2. 2;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.20;3.20. 20;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.21;3.21. 21;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.22;3.22. 22;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.23;3.23. 23;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.24;3.24. 24;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.25;3.25. 25;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.26;3.26. 26;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.27;3.27. 27;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.28;3.28. 28;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.3;3.3. 3;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.4;3.4. 4;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.5;3.5. 5;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.6;3.6. 6;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.7;3.7. 7;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.8;3.8. 8;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1480;3. Properties Of Pure Substances;3.9;3.9. 9;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.1;4.1. 1;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.10;4.10. 10;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.11;4.11. 11;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.12;4.12. 12;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.13;4.13. 13;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.14;4.14. 14;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.15;4.15. 15;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.16;4.16. 16;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.17;4.17. 17;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.18;4.18. 18;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.19;4.19. 19;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.2;4.2. 2;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.20;4.20. 20;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.21;4.21. 21;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.23;4.23. 23;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.25;4.25. 25;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.27;4.27. 27;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.28;4.28. 28;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.29;4.29. 29;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.3;4.3. 3;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.30;4.30. 30;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.31;4.31. 31;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.32;4.32. 32;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.33;4.33. 33;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.34;4.34. 34;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.35;4.35. 35;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.36;4.36. 36;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.37;4.37. 37;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.38;4.38. 38;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.39;4.39. 39;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.4;4.4. 4;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.40;4.40. 40;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.41;4.41. 41;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.42;4.42. 42;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.43;4.43. 43;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.44;4.44. 44;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.45;4.45. 45;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.46;4.46. 46;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.47;4.47. 47;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.48;4.48. 48;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.49;4.49. 49;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.50;4.50. 50;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.51;4.51. 51;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.52;4.52. 52;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.53;4.53. 53;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.54;4.54. 54;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.55;4.55. 55;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.56;4.56. 56;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.57;4.57. 57;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.58;4.58. 58;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.59;4.59. 59;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.6;4.6. 6;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.60;4.60. 60;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.61;4.61. 61;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.62;4.62. 62;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.63;4.63. 63;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.64;4.64. 64;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.65;4.65. 65;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.66;4.66. 66;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.7;4.7. 7;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.8;4.8. 8;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1481;4. First Law of Thermodynamics;4.9;4.9. 9;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.1;5.1. 1;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.10;5.10. 10;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.11;5.11. 11;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.12;5.12. 12;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.13;5.13. 13;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.14;5.14. 14;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.15;5.15. 15;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.16;5.16. 16;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.17;5.17. 17;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.18;5.18. 18;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.19;5.19. 19;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.2;5.2. 2;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.20;5.20. 20;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.21;5.21. 21;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.23;5.23. 23;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.24;5.24. 24;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.25;5.25. 25;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.26;5.26. 26;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.27;5.27. 27;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.28;5.28. 28;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.29;5.29. 29;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.3;5.3. 3;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.30;5.30. 30;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.31;5.31. 31;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.32;5.32. 32;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.33;5.33. 33;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.34;5.34. 34;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.35;5.35. 35;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.36;5.36. 36;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.37;5.37. 37;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.39;5.39. 39;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.4;5.4. 4;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.40;5.40. 40;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.41;5.41. 41;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.42;5.42. 42;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.44;5.44. 44;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.45;5.45. 45;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.46;5.46. 46;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.47;5.47. 47;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.49;5.49. 49;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.5;5.5. 5;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.50;5.50. 50;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.6;5.6. 6;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.7;5.7. 7;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.8;5.8. 8;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1484;5. Second Law of Thermodynamics and Entropy;5.9;5.9. 9;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.1;6.1. 1;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.10;6.10. 10;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.11;6.11. 11;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.12;6.12. 12;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.13;6.13. 13;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.14;6.14. 14;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.15;6.15. 15;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.16;6.16. 16;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.17;6.17. 17;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.18;6.18. 18;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.19;6.19. 19;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.2;6.2. 2;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.20;6.20. 20;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.21;6.21. 21;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.22;6.22. 22;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.3;6.3. 3;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.4;6.4. 4;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.5;6.5. 5;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.6;6.6. 6;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.7;6.7. 7;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.8;6.8. 8;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1485;6. Availability and Irreversibility;6.9;6.9. 9;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1486;7. Thermodynamic Relations;7.17;7.17. 17;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1486;7. Thermodynamic Relations;7.18;7.18. 18;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1486;7. Thermodynamic Relations;7.19;7.19. 19;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1486;7. Thermodynamic Relations;7.20;7.20. 20;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1488;8. Ideal and Real Gases;8.1;8.1. 1;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1488;8. Ideal and Real Gases;8.10;8.10. 10;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1488;8. Ideal and Real Gases;8.11;8.11. 11;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1488;8. Ideal and Real Gases;8.12;8.12. 12;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1488;8. Ideal and Real Gases;8.13;8.13. 13;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1488;8. Ideal and Real Gases;8.14;8.14. 14;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1488;8. Ideal and Real Gases;8.15;8.15. 15;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1488;8. Ideal and Real Gases;8.16;8.16. 16;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1488;8. Ideal and Real Gases;8.2;8.2. 2;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1488;8. Ideal and Real Gases;8.3;8.3. 3;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1488;8. Ideal and Real Gases;8.4;8.4. 4;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1488;8. Ideal and Real Gases;8.5;8.5. 5;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1488;8. Ideal and Real Gases;8.6;8.6. 6;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1488;8. Ideal and Real Gases;8.7;8.7. 7;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1488;8. Ideal and Real Gases;8.8;8.8. 8;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1488;8. Ideal and Real Gases;8.9;8.9. 9;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.1;9.1. 1;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.10;9.10. 10;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.11;9.11. 11;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.12;9.12. 12;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.13;9.13. 13;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.14;9.14. 14;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.15;9.15. 15;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.16;9.16. 16;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.17;9.17. 17;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.18;9.18. 18;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.19;9.19. 19;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.2;9.2. 2;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.20;9.20. 20;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.21;9.21. 21;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.22;9.22. 22;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.3;9.3. 3;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.4;9.4. 4;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.5;9.5. 5;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.6;9.6. 6;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.7;9.7. 7;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.8;9.8. 8;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1489;9. Gases and Vapour Mixtures;9.9;9.9. 9;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1490;10. Psychrometrics;10.1;10.1. 1;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1490;10. Psychrometrics;10.10;10.10. 10;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1490;10. Psychrometrics;10.11;10.11. 11;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1490;10. Psychrometrics;10.12;10.12. 12;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1490;10. Psychrometrics;10.13;10.13. 13;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1490;10. Psychrometrics;10.14;10.14. 14;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1490;10. Psychrometrics;10.15;10.15. 15;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1490;10. Psychrometrics;10.17;10.17. 17;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1490;10. Psychrometrics;10.18;10.18. 18;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1490;10. Psychrometrics;10.19;10.19. 19;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1490;10. Psychrometrics;10.2;10.2. 2;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1490;10. Psychrometrics;10.3;10.3. 3;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1490;10. Psychrometrics;10.4;10.4. 4;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1490;10. Psychrometrics;10.5;10.5. 5;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1490;10. Psychrometrics;10.6;10.6. 6;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1490;10. Psychrometrics;10.7;10.7. 7;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1490;10. Psychrometrics;10.8;10.8. 8;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1490;10. Psychrometrics;10.9;10.9. 9;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.1;11.1. 1;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.11;11.11. 11;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.12;11.12. 12;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.13;11.13. 13;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.14;11.14. 14;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.15;11.15. 15;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.16;11.16. 16;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.17;11.17. 17;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.18;11.18. 18;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.19;11.19. 19;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.2;11.2. 2;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.20;11.20. 20;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.21;11.21. 21;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.22;11.22. 22;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.23;11.23. 23;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.24;11.24. 24;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.25;11.25. 25;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.26;11.26. 26;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.27;11.27. 27;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.28;11.28. 28;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.29;11.29. 29;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.3;11.3. 3;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.30;11.30. 30;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.31;11.31. 31;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.32;11.32. 32;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.33;11.33. 33;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.34;11.34. 34;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.35;11.35. 35;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.36;11.36. 36;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.37;11.37. 37;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.4;11.4. 4;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.5;11.5. 5;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.6;11.6. 6;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.7;11.7. 7;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.8;11.8. 8;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1491;11. Chemical Thermodynamics;11.9;11.9. 9;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.1;12.1. 1;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.10;12.10. 10;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.11;12.11. 11;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.12;12.12. 12;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.13;12.13. 13;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.14;12.14. 14;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.15;12.15. 15;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.16;12.16. 16;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.17;12.17. 17;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.18;12.18. 18;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.19;12.19. 19;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.2;12.2. 2;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.20;12.20. 20;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.21;12.21. 21;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.22;12.22. 22;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.23;12.23. 23;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.24;12.24. 24;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.25;12.25. 25;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.26;12.26. 26;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.27;12.27. 27;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.3;12.3. 3;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.4;12.4. 4;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.5;12.5. 5;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.6;12.6. 6;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.7;12.7. 7;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.8;12.8. 8;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1494;12. Vapour Power Cycles;12.9;12.9. 9;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.1;13.1. 1;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.10;13.10. 10;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.11;13.11. 11;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.12;13.12. 12;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.13;13.13. 13;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.14;13.14. 14;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.15;13.15. 15;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.17;13.17. 17;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.18;13.18. 18;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.19;13.19. 19;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.2;13.2. 2;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.20;13.20. 20;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.21;13.21. 21;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.22;13.22. 22;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.23;13.23. 23;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.24;13.24. 24;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.25;13.25. 25;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.26;13.26. 26;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.27;13.27. 27;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.28;13.28. 28;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.29;13.29. 29;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.3;13.3. 3;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.30;13.30. 30;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.31;13.31. 31;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.32;13.32. 32;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.33;13.33. 33;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.34;13.34. 34;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.35;13.35. 35;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.36;13.36. 36;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.37;13.37. 37;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.38;13.38. 38;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.39;13.39. 39;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.4;13.4. 4;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.40;13.40. 40;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.41;13.41. 41;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.42;13.42. 42;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.43;13.43. 43;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.44;13.44. 44;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.45;13.45. 45;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.46;13.46. 46;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.47;13.47. 47;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.48;13.48. 48;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.49;13.49. 49;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.5;13.5. 5;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.7;13.7. 7;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.8;13.8. 8;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1495;13. Gas Power Cycles;13.9;13.9. 9;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.1;14.1. 1;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.10;14.10. 10;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.11;14.11. 11;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.12;14.12. 12;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.13;14.13. 13;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.14;14.14. 14;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.15;14.15. 15;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.16;14.16. 16;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.17;14.17. 17;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.18;14.18. 18;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.19;14.19. 19;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.2;14.2. 2;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.20;14.20. 20;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.21;14.21. 21;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.22;14.22. 22;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.23;14.23. 23;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.24;14.24. 24;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.25;14.25. 25;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.26;14.26. 26;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.27;14.27. 27;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.3;14.3. 3;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.4;14.4. 4;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.5;14.5. 5;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.6;14.6. 6;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.7;14.7. 7;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.8;14.8. 8;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1496;14. Refrigeration Cycles;14.9;14.9. 9;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.1;15.1. 1;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.10;15.10. 10;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.11;15.11. 11;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.12;15.12. 12;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.13;15.13. 13;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.14;15.14. 14;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.15;15.15. 15;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.16;15.16. 16;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.17;15.17. 17;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.18;15.18. 18;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.19;15.19. 19;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.2;15.2. 2;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.20;15.20. 20;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.21;15.21. 21;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.22;15.22. 22;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.23;15.23. 23;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.24;15.24. 24;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.25;15.25. 25;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.26;15.26. 26;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.27;15.27. 27;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.28;15.28. 28;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.29;15.29. 29;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.3;15.3. 3;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.30;15.30. 30;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.31;15.31. 31;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.32;15.32. 32;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.4;15.4. 4;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.5;15.5. 5;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.6;15.6. 6;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.7;15.7. 7;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.8;15.8. 8;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1497;15. Heat Transfer;15.9;15.9. 9;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1498;16. Compressible Flow;16.1;16.1. 1;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1498;16. Compressible Flow;16.10;16.10. 10;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1498;16. Compressible Flow;16.11;16.11. 11;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1498;16. Compressible Flow;16.12;16.12. 12;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1498;16. Compressible Flow;16.13;16.13. 13;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1498;16. Compressible Flow;16.14;16.14. 14;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1498;16. Compressible Flow;16.15;16.15. 15;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1498;16. Compressible Flow;16.16;16.16. 16;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1498;16. Compressible Flow;16.17;16.17. 17;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1498;16. Compressible Flow;16.18;16.18. 18;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1498;16. Compressible Flow;16.19;16.19. 19;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1498;16. Compressible Flow;16.2;16.2. 2;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1498;16. Compressible Flow;16.3;16.3. 3;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1498;16. Compressible Flow;16.4;16.4. 4;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1498;16. Compressible Flow;16.5;16.5. 5;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1498;16. Compressible Flow;16.6;16.6. 6;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1498;16. Compressible Flow;16.7;16.7. 7;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1498;16. Compressible Flow;16.8;16.8. 8;correct;runtime; -551;Engineering Thermodynamics: A Computer Approach (SI Units Version)(R. K. Rajput);1498;16. Compressible Flow;16.9;16.9. 9;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1883;1. Introduction;1.1;1.1. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1883;1. Introduction;1.2;1.2. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1884;3. Work and Heat Transfer;3.1;3.1. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1884;3. Work and Heat Transfer;3.2;3.2. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1884;3. Work and Heat Transfer;3.3;3.3. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1884;3. Work and Heat Transfer;3.4;3.4. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1884;3. Work and Heat Transfer;3.5;3.5. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1884;3. Work and Heat Transfer;3.6;3.6. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1885;4. First Law of Thermodynamics;4.1;4.1. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1885;4. First Law of Thermodynamics;4.2;4.2. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1885;4. First Law of Thermodynamics;4.3;4.3. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1885;4. First Law of Thermodynamics;4.4;4.4. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1885;4. First Law of Thermodynamics;4.5;4.5. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1886;5. First Law Applied to Flow Processes;5.1;5.1. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1886;5. First Law Applied to Flow Processes;5.2;5.2. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1886;5. First Law Applied to Flow Processes;5.3;5.3. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1886;5. First Law Applied to Flow Processes;5.4;5.4. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1886;5. First Law Applied to Flow Processes;5.5;5.5. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1886;5. First Law Applied to Flow Processes;5.6;5.6. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1886;5. First Law Applied to Flow Processes;5.8;5.8. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1887;6. Second Law of Thermodynamics;6.1;6.1. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1887;6. Second Law of Thermodynamics;6.2;6.2. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1887;6. Second Law of Thermodynamics;6.3;6.3. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1887;6. Second Law of Thermodynamics;6.5;6.5. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1887;6. Second Law of Thermodynamics;6.6;6.6. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1887;6. Second Law of Thermodynamics;6.7;6.7. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1888;7. Entropy;7.1;7.1. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1888;7. Entropy;7.10;7.10. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1888;7. Entropy;7.2;7.2. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1888;7. Entropy;7.3;7.3. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1888;7. Entropy;7.6;7.6. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1888;7. Entropy;7.7;7.7. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1888;7. Entropy;7.8;7.8. Example;correct;runtime; -555;Basic And Applied Thermodynamics(P. K. Nag);1888;7. Entropy;7.9;7.9. Example;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1371;1. Fluids and their properties;1.1;1.1. Excess Pressure;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1372;2. Pressure and Head;2.1;2.1. VARIATION OF PRESSURE VERTICALLY;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1372;2. Pressure and Head;2.10;2.10. RELATIVE EQUILIBRIUM;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1372;2. Pressure and Head;2.2;2.2. VARIATION OF PRESSURE WITH ALTITUDE;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1372;2. Pressure and Head;2.3;2.3. VARIATION OF PRESSURE WITH ALTITUDE IN A GAS UNDER ADIABATIC CONDITIONS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1372;2. Pressure and Head;2.4;2.4. VARIATION OF PRESSURE AND DENSITY WITH ALTITUDE FOR A CONSTANT TEMPERATURE GRADIENT;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1372;2. Pressure and Head;2.5;2.5. PRESSURE AND HEAD;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1372;2. Pressure and Head;2.6;2.6. PRESSURE MEASUREMENT BY MANOMETER;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1372;2. Pressure and Head;2.7;2.7. PRESSURE MEASUREMENT BY MANOMETER;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1372;2. Pressure and Head;2.8;2.8. PRESSURE MEASUREMENT BY MANOMETER;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1372;2. Pressure and Head;2.9;2.9. PRESSURE MEASUREMENT BY MANOMETER;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1377;3. Static Forces on Surfaces Buoyancy;3.1;3.1. RESULTANT FORCE AND CENTRE OF PRESSURE ON A PLANE SURFACE UNDER UNIFORM PRESSURE;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1377;3. Static Forces on Surfaces Buoyancy;3.2;3.2. RESULTANT FORCE AND CENTRE OF PRESSURE ON A PLANE SURFACE UNDER UNIFORM PRESSURE;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1377;3. Static Forces on Surfaces Buoyancy;3.3;3.3. PRESSURE DIAGRAMS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1377;3. Static Forces on Surfaces Buoyancy;3.4;3.4. FORCE ON A CURVED SURFACE DUE TO HYDROSTATIC PRESSURE;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1377;3. Static Forces on Surfaces Buoyancy;3.5;3.5. BUOYANCY;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1377;3. Static Forces on Surfaces Buoyancy;3.6;3.6. DETERMINATION OF THE POSITION OF THE METACENTRE RELATIVE TO THE CENTRE OF BUOYANCY;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1377;3. Static Forces on Surfaces Buoyancy;3.7;3.7. STABILITY OF A VESSEL CARRYING LIQUID IN TANKS WITH A FREE SURFACE;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1378;4. Motion of Fluid Particles and Streams;4.1;4.1. DISCHARGE AND MEAN VELOCITY;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1378;4. Motion of Fluid Particles and Streams;4.2;4.2. CONTINUITY OF FLOW;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1378;4. Motion of Fluid Particles and Streams;4.3;4.3. CONTINUITY EQUATIONS FOR THREE DIMENSIONAL FLOW USING CARTESIAN COORDINATES;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1379;5. The Momentum Equation and its Applications;5.1;5.1. GRADUAL ACCELERATION OF A FLUID IN A PIPELINE NEGLECTING ELASTICITY;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1379;5. The Momentum Equation and its Applications;5.10;5.10. ANGULAR MOTION;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1379;5. The Momentum Equation and its Applications;5.2;5.2. FORCE EXERTED BY A JET STRIKING A FLAT PLATE;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1379;5. The Momentum Equation and its Applications;5.3;5.3. FORCE DUE TO THE DEFLECTION OF A JET BY A CURVED VANE;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1379;5. The Momentum Equation and its Applications;5.4;5.4. FORCE EXERTED WHEN A JET IS DEFLECTED BY A MOVING CURVED VANE;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1379;5. The Momentum Equation and its Applications;5.5;5.5. FORCE EXERTED ON PIPE BENDS AND CLOSED CONDUITS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1379;5. The Momentum Equation and its Applications;5.6;5.6. REACTION OF A JET;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1379;5. The Momentum Equation and its Applications;5.7;5.7. REACTION OF A JET;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1379;5. The Momentum Equation and its Applications;5.8;5.8. REACTION OF A JET;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1380;6. The Energy Equation and its Applications;6.1;6.1. MECHANICAL ENERGY OF A FLOWING FLUID;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1380;6. The Energy Equation and its Applications;6.10;6.10. Free vortex or potential vortex;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1380;6. The Energy Equation and its Applications;6.2;6.2. CHANGES OF PRESSURE IN A TAPERING PIPE;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1380;6. The Energy Equation and its Applications;6.3;6.3. PRINCIPLE OF THE VENTURI METER;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1380;6. The Energy Equation and its Applications;6.4;6.4. THEORY OF SMALL ORIFICES DISCHARGING TO ATMOSPHERE;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1380;6. The Energy Equation and its Applications;6.5;6.5. THEORY OF LARGE ORIFICES;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1380;6. The Energy Equation and its Applications;6.6;6.6. ELEMENTARY THEORY OF NOTCHES AND WEIRS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1380;6. The Energy Equation and its Applications;6.7;6.7. ELEMENTARY THEORY OF NOTCHES AND WEIRS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1380;6. The Energy Equation and its Applications;6.8;6.8. THE POWER OF A STREAM OF FLUID;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1380;6. The Energy Equation and its Applications;6.9;6.9. VORTEX MOTION;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1382;7. Two dimensional Ideal Flow;7.2;7.2. STRAIGHT LINE FLOWS AND THEIR COMBINATIONS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1382;7. Two dimensional Ideal Flow;7.3;7.3. COMBINED SOURCE AND SINK FLOWS DOUBLET;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1382;7. Two dimensional Ideal Flow;7.4;7.4. FLOW PAST A CYLINDER;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1382;7. Two dimensional Ideal Flow;7.5;7.5. CURVED FLOWS AND THEIR COMBINATIONS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1383;8. Dimensional Analysis;8.1;8.1. CONVERSION BETWEEN SYSTEMS OF UNITS INCLUDING THE TREATMENT OF DIMENSIONAL CONSTANTS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1384;9. Similarity;9.1;9.1. MODEL STUDIES FOR FLOWS WITHOUT A FREE SURFACE;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1384;9. Similarity;9.2;9.2. MODEL STUDIES FOR FLOWS WITHOUT A FREE SURFACE;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1384;9. Similarity;9.3;9.3. ZONE OF DEPENDENCE OF MACH NUMBER;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1384;9. Similarity;9.4;9.4. SIGNIFICANCE OF THE PRESSURE COEFFICIENT;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1384;9. Similarity;9.5;9.5. MODEL STUDIES IN CASES INVOLVING FREE SURFACE FLOW;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1384;9. Similarity;9.6;9.6. SIMILARITY APPLIED TO ROTODYNAMIC MACHINES;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1384;9. Similarity;9.8;9.8. RIVER AND HARBOUR MODELS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1385;10. Laminar and Turbulent Flows in Bounded Systems;10.1;10.1. INCOMPRESSIBLE STEADY AND UNIFORM LAMINAR FLOW BETWEEN PARALLEL PLATES;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1385;10. Laminar and Turbulent Flows in Bounded Systems;10.2;10.2. INCOMPRESSIBLE STEADY AND UNIFORM LAMINAR FLOW IN CIRCULAR CROSS SECTION PIPES;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1385;10. Laminar and Turbulent Flows in Bounded Systems;10.3;10.3. INCOMPRESSIBLE STEADY AND UNIFORM TURBULENT FLOW IN CIRCULAR CROSS SECTION PIPES;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1385;10. Laminar and Turbulent Flows in Bounded Systems;10.4;10.4. STEADY AND UNIFORM TURBULENT FLOW IN OPEN CHANNELS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1385;10. Laminar and Turbulent Flows in Bounded Systems;10.5;10.5. VELOCITY DISTRIBUTION IN TURBULENT FULLY DEVELOPED PIPE FLOW;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1385;10. Laminar and Turbulent Flows in Bounded Systems;10.7;10.7. SEPARATION LOSSES IN PIPE FLOW;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1386;11. Boundary Layer;11.1;11.1. PROPERTIES OF THE LAMINAR BOUNDARY LAYER FORMED OVER A FLAT PLATE IN THE ABSENCE OF A PRESSURE GRADIENT IN THE FLOW DIRECTION;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1386;11. Boundary Layer;11.2;11.2. PROPERTIES OF THE TURBULENT BOUNDARY LAYER OVER A FLAT PLATE IN THE ABSENCE OF A PRESSURE GRADIENT IN THE FLOW DIRECTION;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1423;12. Incompressible Flow around a Body;12.1;12.1. DRAG;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1423;12. Incompressible Flow around a Body;12.2;12.2. RESISTANCE OF SHIPS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1423;12. Incompressible Flow around a Body;12.3;12.3. FLOW PAST A CYLINDER;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1423;12. Incompressible Flow around a Body;12.4;12.4. FLOW PAST A SPHERE;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1423;12. Incompressible Flow around a Body;12.5;12.5. FLOW PAST A SPHERE;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1423;12. Incompressible Flow around a Body;12.6;12.6. FLOW PAST AN AEROFOIL OF FINITE LENGTH;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1424;13. Compressible Flow around a Body;13.1;13.1. EFFECTS OF COMPRESSIBILITY;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1424;13. Compressible Flow around a Body;13.2;13.2. SHOCK WAVES;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1425;14. Steady Incompressible Flow in Pipe and Duct Systems;14.1;14.1. INCOMPRESSIBLE FLOW THROUGH DUCTS AND PIPES;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1425;14. Steady Incompressible Flow in Pipe and Duct Systems;14.12;14.12. QUASI STEADY FLOW;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1425;14. Steady Incompressible Flow in Pipe and Duct Systems;14.3;14.3. INCOMPRESSIBLE FLOW THROUGH PIPES IN PARALLEL;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1425;14. Steady Incompressible Flow in Pipe and Duct Systems;14.4;14.4. INCOMPRESSIBLE FLOW THROUGH BRANCHING PIPES THE THREE RESERVOIR PROBLEM;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1425;14. Steady Incompressible Flow in Pipe and Duct Systems;14.5;14.5. INCOMPRESSIBLE STEADY FLOW IN DUCT NETWORKS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1425;14. Steady Incompressible Flow in Pipe and Duct Systems;14.6;14.6. INCOMPRESSIBLE STEADY FLOW IN DUCT NETWORKS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1425;14. Steady Incompressible Flow in Pipe and Duct Systems;14.7;14.7. RESISTANCE COEFFICIENTS FOR PIPELINES IN SERIES AND IN PARALLEL;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1425;14. Steady Incompressible Flow in Pipe and Duct Systems;14.8;14.8. THE QUANTITY BALANCE METHOD FOR PIPE NETWORKS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1425;14. Steady Incompressible Flow in Pipe and Duct Systems;14.9;14.9. QUASI STEADY FLOW;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1427;15. Uniform Flow in Open Channels;15.1;15.1. RESISTANCE FORMULAE FOR STEADY UNIFORM FLOW IN OPEN CHANNELS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1427;15. Uniform Flow in Open Channels;15.2;15.2. OPTIMUM SHAPE OF CROSS SECTION FOR UNIFORM FLOW IN OPEN CHANNELS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1428;16. Non uniform Flow in Open Channels;16.2;16.2. EFFECT OF LATERAL CONTRACTION OF A CHANNEL;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1428;16. Non uniform Flow in Open Channels;16.3;16.3. CLASSIFICATION OF WATER SURFACE PROFILES;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1432;17. Compressible Flow in Pipes;17.1;17.1. MASS FLOW THROUGH A VENTURI METER;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1432;17. Compressible Flow in Pipes;17.2;17.2. THE LAVAL NOZZLE;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1432;17. Compressible Flow in Pipes;17.3;17.3. NORMAL SHOCK WAVE IN A DIFFUSER;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1432;17. Compressible Flow in Pipes;17.4;17.4. COMPRESSIBLE FLOW IN A DUCT WITH FRICTION UNDER ADIABATIC CONDITIONS FANNO FLOW;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1432;17. Compressible Flow in Pipes;17.5;17.5. ISOTHERMAL FLOW OF A COMPRESSIBLE FLUID IN A PIPELINE;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1434;20. Pressure Transient Theory and Surge Control;20.3;20.3. APPLICATION OF THE SIMPLIFIED EQUATIONS TO EXPLAIN PRESSURE TRANSIENT OSCILLATIONS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1434;20. Pressure Transient Theory and Surge Control;20.5;20.5. CONTROL OF SURGE FOLLOWING VALVE CLOSURE WITH PUMP RUNNING AND SURGE TANK APPLICATIONS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1435;22. Theory of Rotodynamic Machines;22.1;22.1. ONE DIMENSIONAL THEORY;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1435;22. Theory of Rotodynamic Machines;22.2;22.2. DEPARTURES FROM EULERS THEORY AND LOSSES;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1435;22. Theory of Rotodynamic Machines;22.3;22.3. COMPRESSIBLE FLOW THROUGH ROTODYNAMIC MACHINES;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1436;23. Performance of Rotodynamic Machines;23.1;23.1. DIMENSIONLESS COEFFICIENTS AND SIMILARITY LAWS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1436;23. Performance of Rotodynamic Machines;23.2;23.2. THE PELTON WHEEL;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1436;23. Performance of Rotodynamic Machines;23.3;23.3. FRANCIS TURBINES;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1436;23. Performance of Rotodynamic Machines;23.4;23.4. AXIAL FLOW TURBINES;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1436;23. Performance of Rotodynamic Machines;23.5;23.5. HYDRAULIC TRANSMISSIONS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1437;24. Positive Displacement Machines;24.1;24.1. RECIPROCATING PUMPS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1437;24. Positive Displacement Machines;24.2;24.2. RECIPROCATING PUMPS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1651;25. Machine Network Interactions;25.1;25.1. FANS PUMPS AND FLUID NETWORKS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1651;25. Machine Network Interactions;25.11;25.11. VENTILATION AND AIRBORNE CONTAMINATION AS A CRITERION FOR FAN SELECTION;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1651;25. Machine Network Interactions;25.4;25.4. AN APPLICATION OF THE STEADY FLOW ENERGY EQUATION;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1651;25. Machine Network Interactions;25.7;25.7. JET FANS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1651;25. Machine Network Interactions;25.8;25.8. JET FANS;correct;runtime; -557;Fluid Mechanics(J. F. Douglas);1651;25. Machine Network Interactions;25.9;25.9. CAVITATION IN PUMPS AND TURBINES;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1466;1. Basic Elasticity;1.1;1.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1466;1. Basic Elasticity;1.2;1.2. Example 2;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1466;1. Basic Elasticity;1.3;1.3. Example 3;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1466;1. Basic Elasticity;1.4;1.4. Example 4;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1466;1. Basic Elasticity;1.5;1.5. Example 5;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1466;1. Basic Elasticity;1.7;1.7. Example 7;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1475;3. Torsion of Solid Section;3.1;3.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1475;3. Torsion of Solid Section;3.2;3.2. Example 2;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1476;4. Virtual work and Energy methods;4.1;4.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1476;4. Virtual work and Energy methods;4.2;4.2. Example 2;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1476;4. Virtual work and Energy methods;4.3;4.3. Example 3;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1476;4. Virtual work and Energy methods;4.4;4.4. Example 4;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1476;4. Virtual work and Energy methods;4.5;4.5. Example 5;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1476;4. Virtual work and Energy methods;4.6;4.6. Example 6;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1492;5. Energy Methods;5.1;5.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1492;5. Energy Methods;5.10;5.10. Example 10;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1492;5. Energy Methods;5.11;5.11. Example 11;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1492;5. Energy Methods;5.12;5.12. Example 12;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1492;5. Energy Methods;5.2;5.2. Example 2;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1492;5. Energy Methods;5.3;5.3. Example 3;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1492;5. Energy Methods;5.4;5.4. Example 4;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1492;5. Energy Methods;5.5;5.5. Example 5;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1492;5. Energy Methods;5.6;5.6. Example 6;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1492;5. Energy Methods;5.7;5.7. Example 7;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1492;5. Energy Methods;5.8;5.8. Example 8;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1492;5. Energy Methods;5.9;5.9. Example 9;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1493;6. Matrix Methods;6.1;6.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1493;6. Matrix Methods;6.2;6.2. Example 2;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1493;6. Matrix Methods;6.4;6.4. Example 4;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1499;7. Bending of Thin plates;7.1;7.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1499;7. Bending of Thin plates;7.3;7.3. Example 3;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1499;7. Bending of Thin plates;7.4;7.4. Example 4;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1500;8. Columns;8.2;8.2. Example 2;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1500;8. Columns;8.3;8.3. Example 3;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1500;8. Columns;8.4;8.4. Example 4;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1501;9. Thin plates;9.1;9.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1525;10. Oscillation of mass spring systems;10.1;10.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1525;10. Oscillation of mass spring systems;10.2;10.2. Example 2;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1525;10. Oscillation of mass spring systems;10.4;10.4. Example 4;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1525;10. Oscillation of mass spring systems;10.5;10.5. Example 5;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1525;10. Oscillation of mass spring systems;10.6;10.6. Example 6;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1502;12. Structural components of aircraft;12.1;12.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1502;12. Structural components of aircraft;12.2;12.2. Example 2;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1509;14. Airframe Loads;14.1;14.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1509;14. Airframe Loads;14.2;14.2. Example 2;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1509;14. Airframe Loads;14.3;14.3. Example 3;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1511;15. Fatigue;15.1;15.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1515;16. Bending of open and closed thin walled beams;16.1;16.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1515;16. Bending of open and closed thin walled beams;16.10;16.10. Example 10;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1515;16. Bending of open and closed thin walled beams;16.11;16.11. Example 11;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1515;16. Bending of open and closed thin walled beams;16.12;16.12. Example 12;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1515;16. Bending of open and closed thin walled beams;16.13;16.13. Example 13;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1515;16. Bending of open and closed thin walled beams;16.14;16.14. Example 14;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1515;16. Bending of open and closed thin walled beams;16.15;16.15. Example 15;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1515;16. Bending of open and closed thin walled beams;16.16;16.16. Example 16;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1515;16. Bending of open and closed thin walled beams;16.2;16.2. Example 2;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1515;16. Bending of open and closed thin walled beams;16.3;16.3. Example 3;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1515;16. Bending of open and closed thin walled beams;16.4;16.4. Example 4;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1515;16. Bending of open and closed thin walled beams;16.5;16.5. Example 5;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1515;16. Bending of open and closed thin walled beams;16.6;16.6. Example 6;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1515;16. Bending of open and closed thin walled beams;16.7;16.7. Example 7;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1515;16. Bending of open and closed thin walled beams;16.8;16.8. Example 8;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1515;16. Bending of open and closed thin walled beams;16.9;16.9. Example 9;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1516;17. Shear of beams;17.1;17.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1516;17. Shear of beams;17.2;17.2. Example 2;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1516;17. Shear of beams;17.3;17.3. Example 3;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1517;18. Torsion of beams;18.1;18.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1517;18. Torsion of beams;18.2;18.2. Example 2;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1517;18. Torsion of beams;18.3;18.3. Example 3;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1518;19. Combined open and closed section beams;19.1;19.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1518;19. Combined open and closed section beams;19.2;19.2. Example 2;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1519;20. Structural idealization;20.1;20.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1519;20. Structural idealization;20.2;20.2. Example 2;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1519;20. Structural idealization;20.3;20.3. Example 3;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1519;20. Structural idealization;20.4;20.4. Example 4;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1520;21. Wing spars and box beams;21.1;21.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1520;21. Wing spars and box beams;21.2;21.2. Example 2;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1520;21. Wing spars and box beams;21.3;21.3. Example 3;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1521;22. Fuselages;22.1;22.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1521;22. Fuselages;22.2;22.2. Example 2;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1526;23. Wings;23.1;23.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1526;23. Wings;23.2;23.2. Example 2;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1526;23. Wings;23.3;23.3. Example 3;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1526;23. Wings;23.4;23.4. Example 4;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1526;23. Wings;23.6;23.6. Example 6;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1522;24. Fuselage frames and wing ribs;24.1;24.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1522;24. Fuselage frames and wing ribs;24.2;24.2. Example 2;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1523;25. Laminated composites;25.1;25.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1523;25. Laminated composites;25.2;25.2. Example 2;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1523;25. Laminated composites;25.3;25.3. Example 3;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1523;25. Laminated composites;25.4;25.4. Example 4;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1523;25. Laminated composites;25.5;25.5. Example 5;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1523;25. Laminated composites;25.6;25.6. Example 6;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1523;25. Laminated composites;25.7;25.7. Example 7;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1523;25. Laminated composites;25.8;25.8. Example 8;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1527;26. closed section beams;26.1;26.1. Example 1;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1527;26. closed section beams;26.2;26.2. Example 2;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1527;26. closed section beams;26.3;26.3. Example 3;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1527;26. closed section beams;26.4;26.4. Example 4;correct;runtime; -564;Aircraft Structures For Engineering Students(T. H. G. Megson);1524;27. Open section beams;27.2;27.2. Example 2;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.1;2.1. calculating static error and static correction;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.10;2.10. calculating the ratio of output signal to noise signal;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.12;2.12. calculating the average force and range of error;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.13;2.13. calculating the sum of resistances connected in series with uncertainity of one unit;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.14;2.14. calculating the power with uncertainity of one unit in voltage and current;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.15;2.15. calculating the sum of resistances connected in series with appropriate number of significant figure;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.16;2.16. calculating the voltage drop with appropriate number of significant figure;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.17;2.17. calculating the sensitivity and deflection factor of wheatstone bridge;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.18;2.18. calculating the volume of the mercury thermometer;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.19;2.19. calculating the maximum position deviation resistance deviation;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.2;2.2. calculating true value of the temperature;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.20;2.20. calculating the dead zone;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.22;2.22. calculating the Resolution;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.23;2.23. calculating the Resolution;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.24;2.24. calculating the reading of the multimeter and percentage error;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.25;2.25. calculating the reading of the multimeter and percentage error;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.26;2.26. calculating the loading error;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.27;2.27. calculating the voltage across the oscilloscope;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.28;2.28. calculating the actual value of current measured value of current and percentage error;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.29;2.29. calculating the maximum available power;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.3;2.3. calculating Relative error expressed as a percentage of f s d;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.4;2.4. calculating static error and static correction;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.5;2.5. calculating maximum static error Span of the thermometer degree C Accuracy of the thermometer in terms of percentage of span;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.6;2.6. calculating the pressure for a dial reading of 100;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.7;2.7. calculating the noise output voltage of the amplifier;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.8;2.8. calculating the noise voltage;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1862;2. Static Characteristics of Instruments and Measurement systems;2.9;2.9. calculating the signal to noise ratio at input calculating the signal to noise ratio at output calculating the noise factor and noise figure;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.1;3.1. calculating guarantee value of capacitance;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.10;3.10. Calculate the magnitude of power and limiting error;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.11;3.11. Calculate the magnitude of Force and limiting error;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.12;3.12. calculate the power loss and relative error;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.13;3.13. Calculate the true power as a percentage of measured power;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.14;3.14. calculate the total resistance error of each register and fractional error of total resistance;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.15;3.15. find the error;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.16;3.16. calculate the Volume and relative error;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.17;3.17. calculate the per unit change in the value of spring for different temperature ranges;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.18;3.18. Calculate apparent resistance actual resistance and error;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.19;3.19. Calculate apparent resistance actual resistance and error;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.2;3.2. calculating percentage limiting error;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.20;3.20. Calculate the error and percentage error in the measurement of deflection;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.21;3.21. to find the mean deviations from the mean Average deviation standard deviation and variance;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.22;3.22. to find the mean standard deviation probable error and range;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.23;3.23. to find the arithematic mean maen deviation standard deviation prpobable error of 1 reading standard deviation and probable error of mean standard deviation of standard deviation;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.24;3.24. to find probable no of resistors;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.25;3.25. to find no of 100 rsding exceed 30mm;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.26;3.26. to find no of rods of desired length;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.27;3.27. to find standard deviation and probability of error;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.28;3.28. to find no of expected readings;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.29;3.29. to calculate precision index of instrument;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.3;3.3. Calculate the range of readings;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.30;3.30. to find confidence interval for given confidence levels;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.31;3.31. to point out the reading that can be rejected by chavenets criterion;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.32;3.32. calculate standard deviation;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.34;3.34. determine value of total current considering errors as limiting errors ans as standrd deviations;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.35;3.35. determine probable error in the computed value of resistnce;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.37;3.37. to find Cq and its possible errors;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.38;3.38. calculate power disipated and uncertaainity in power;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.39;3.39. to find uncertainity in combined resistance in both series and in parrallel;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.4;3.4. Calculate the limiting error in percent;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.40;3.40. to calculate uncertainity in measurement;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.41;3.41. to calculate uncertainity in power;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.5;3.5. Calculate the range of readings specified interms of fsd and true value;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.6;3.6. Calculate the magnitude and limiting error in ohm and in percentage of the resistance;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.7;3.7. calculate the value of relative limiting error in resistance;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.8;3.8. Calculate the guaranteed values of the resistance;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1865;3. Errors in Measurements and Their Statistical Analysis;3.9;3.9. Calculate the percentage limiting error and range of resistance values;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.1;4.1. calculating the temperature;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.10;4.10. Calculate the temperature at a depth of 1000 m;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.11;4.11. Calculate the value of resistance at different values of time;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.12;4.12. calculate the value of damping constant and frequency of damped oscillations;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.13;4.13. Calculate damping ratio natural frequency frequency of damped oscillations time constant and steady state error for ramp signal;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.14;4.14. Calculate the natural frequency;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.15;4.15. Calculate natural frequency and setteling time;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.16;4.16. Calculate time lag and ratio of output and input;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.17;4.17. Calculate the maximum allowable time constant and phase shift;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.18;4.18. Calculate maximum value of indicated temperature and delay time;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.19;4.19. Find the output;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.2;4.2. calculate time to read half of the temperature difference;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.20;4.20. Calculate maximum and minimum value of indicated temperature phase shift time lag;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.21;4.21. determine damping ratio;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.22;4.22. Calculate the frequency range;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.23;4.23. determine the error;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.4;4.4. Calculate the temperature after 10s;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.5;4.5. Calculate the value of resistance after 15s;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.6;4.6. Calculate the depth after one hour;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.8;4.8. Calculate time constant;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1866;4. Dynamic Characteristics of Instruments and Measurement systems;4.9;4.9. Calculate the temperature after 10s;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.1;5.1. Calculate the deflection at center;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.10;5.10. Checking the suitability of the potentiometer;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.11;5.11. Calculating the possion ratio;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.12;5.12. Calculating the value of the resistance of the gauges;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.13;5.13. calculate the percentage change in value of the gauge resistance;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.14;5.14. Calculating the Gauge factor;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.15;5.15. Calculating the change in length and the force applied;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.16;5.16. Calculate the linear approximation;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.17;5.17. Calculate the linear approximation;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.18;5.18. Calculate the resistance and the temperature;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.19;5.19. Calculate the resistance;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.2;5.2. Calculate the angle of twist;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.20;5.20. Calculate the time;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.21;5.21. Calculate the resistance;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.22;5.22. find resistance;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.23;5.23. calculating the change in temperature;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.24;5.24. calculating the frequencies of oscillation;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.25;5.25. Calculating the sensitivity and maximum output voltage;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.26;5.26. Calculating the temperature;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.27;5.27. Calcating the series resistance and approximate error;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.28;5.28. Calculate the values of resistance R1 and R2;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.29;5.29. Calculate the percentage linearity;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.3;5.3. Calculate the Torque;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.30;5.30. Calculate senstivity of the LVDT;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.31;5.31. calculate the deflection maximum and minimum force;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.32;5.32. calculating the sensitivity of the transducer;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.33;5.33. Calculate the value of the capacitance afte the application of pressure;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.34;5.34. Calculate the change in frequency of the oscillator;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.35;5.35. Calculate the dielectric stress change in value of capacitance;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.36;5.36. Calculate the value of time constant phase shift series resistance amplitude ratio and voltage sensitivity;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.37;5.37. Calculate the change in capacitance and ratio;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.4;5.4. Calculating the displacement and resolution of the potentiometer;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.40;5.40. Calculate the output voltage and charge sensitivity;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.41;5.41. Calculate the force;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.42;5.42. Calculate the strain charge and capacitance clc;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.43;5.43. calculate peak to peak voltage swing under open and loaded conditions calculate maximum change in crystal thickness;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.44;5.44. Calculate the minimum frequency and phase shift;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.45;5.45. calculate sensitivity of the transducer high frequency sensitivity Lowest frequency Calculate external shunt capacitance and high frequency sensitivity after connecting the external shunt capacitance;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.46;5.46. calculate op volatge;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.47;5.47. to prove time constant should be approximately 20T;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.48;5.48. calculate op volatge;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.49;5.49. Calculate the threshold wavelength;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.5;5.5. plot the graph of error versus K;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.50;5.50. Calculate maximum velocity of emitted photo electrons;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.51;5.51. Calculate the resistance of the cell;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.52;5.52. Calculate incident power and cut off frequency;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.53;5.53. Calculate the internal resistance of cell and open circuit voltage;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.54;5.54. Find the value of current;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.6;5.6. Calculating the output voltage;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.7;5.7. Calculating the maximum excitation voltage and the sensitivity;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.8;5.8. Calculating the resolution of the potentiometer;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1867;5. Primary Sensing Elements and Transducers;5.9;5.9. Checking the suitability of the potentiometer;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.1;6.1. calculating feedback resistance;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.10;6.10. Calculating Difference mode gain and output voltage;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.11;6.11. Calculating Difference mode Common mode gain and CMRR;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.12;6.12. Calculating Signal to noise ratio and CMRR;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.13;6.13. Calculating sensitivity and output voltage;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.14;6.14. calculating minimum maximum time constants and value of frequencies;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.15;6.15. calculating time constant and value of capacitance;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.16;6.16. calcuating the passband gain and upper and lower cut off frequencies;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.17;6.17. calcuating the value of C;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.19;6.19. calculate the output voltage and sensitivity;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.2;6.2. calculating the closed loop gain;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.20;6.20. calculate the output voltage for different values of K;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.21;6.21. calculating the resistance and output voltage;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.22;6.22. Calculating the bridge output;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.23;6.23. Calculating the resistance of unknown resistance;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.24;6.24. calculating the current;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.25;6.25. Calculating maximum permissible current through strain gauge supply voltage and Power dissipation in series resistance;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.26;6.26. Calculating the maximum voltage sensitivity of the bridge;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.27;6.27. Calculating the resolution of the instrument quantization error and decesion levels;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.28;6.28. Calculating the weight of MSB and LSB;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.29;6.29. Calculating reference voltage and percentage change;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.3;6.3. calculating the maximum output voltage;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.30;6.30. Calculating the number of bits Value of LSB Quantization error minimum sampling rate Aperature time and dynamic range;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.31;6.31. Calculating the value of resistance and smallest output current;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.32;6.32. Calculating the output voltage;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.33;6.33. Calculate the output of successive approximation A to D;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.34;6.34. to calculate op dc voltage;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.4;6.4. calculating output voltage due to offset voltage;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.5;6.5. calculating Amplification factor;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.6;6.6. calculating output voltage due to offset voltage;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.7;6.7. calculating gain and feedback resistance;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.8;6.8. Calculating the values of resistances;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1868;6. Signal Conditioning;6.9;6.9. Calculating the value of resistance and capacitance;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1869;7. Display Devices and recorders;7.1;7.1. calculating resolution;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1869;7. Display Devices and recorders;7.10;7.10. Calculating possible phase angles;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1869;7. Display Devices and recorders;7.2;7.2. calculating resolution;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1869;7. Display Devices and recorders;7.3;7.3. calculating Total possible error and percentage error;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1869;7. Display Devices and recorders;7.4;7.4. calculating frequency;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1869;7. Display Devices and recorders;7.5;7.5. calculating maximum error;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1869;7. Display Devices and recorders;7.6;7.6. calculating number of turns and current;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1869;7. Display Devices and recorders;7.7;7.7. calculating speed of the tape;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1869;7. Display Devices and recorders;7.8;7.8. calculating number density of the tape;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1869;7. Display Devices and recorders;7.9;7.9. Calculating possible phase angles;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1870;8. Metrology;8.1;8.1. calculate the arrangement of slip gauges;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1870;8. Metrology;8.2;8.2. calculate the sensitivity;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1870;8. Metrology;8.3;8.3. calculate uncertainity in displacement;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1870;8. Metrology;8.4;8.4. calculate difference between height of workpieces and pile of slip gauges;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1870;8. Metrology;8.5;8.5. calculate seperation distance between two surfaces and angle of tilt;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1870;8. Metrology;8.6;8.6. Calculate the difference in two diameters;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1870;8. Metrology;8.7;8.7. Calculate the change in thickness along its length;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1871;9. Pressure Measurements;9.1;9.1. calculating the length of mean free path;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1871;9. Pressure Measurements;9.10;9.10. calculate diameter of the tube;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1871;9. Pressure Measurements;9.11;9.11. calculate amplification ratio and percentage error;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1871;9. Pressure Measurements;9.12;9.12. calculate value of counter weight required;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1871;9. Pressure Measurements;9.13;9.13. calculate damping factor time constant error and time lag calculate damping factor natural frequency time constant error and time lag;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1871;9. Pressure Measurements;9.14;9.14. calculate thickness of diaphram and natural frequency;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1871;9. Pressure Measurements;9.15;9.15. calculate the natural length of the spring and dispacement;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1871;9. Pressure Measurements;9.16;9.16. calculate the open circuit voltage;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1871;9. Pressure Measurements;9.17;9.17. calculate the optimum setting;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1871;9. Pressure Measurements;9.18;9.18. calculate the output voltage of bridge;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1871;9. Pressure Measurements;9.19;9.19. calculate attenuation;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1871;9. Pressure Measurements;9.2;9.2. Calculate Pressure of air source;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1871;9. Pressure Measurements;9.20;9.20. calculate error;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1871;9. Pressure Measurements;9.3;9.3. Calculate Pressure head;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1871;9. Pressure Measurements;9.4;9.4. calculate height;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1871;9. Pressure Measurements;9.6;9.6. calculate error interms of pressure;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1871;9. Pressure Measurements;9.7;9.7. calculate angle to which tube is incliend to vertical;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1871;9. Pressure Measurements;9.8;9.8. calculate angle to which tube is incliend to horizontal;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1871;9. Pressure Measurements;9.9;9.9. calculate Length of scale angle to which tube is incliend to horizontal;correct;runtime; -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1878;10. Strain Gauges and Measurement of Strain;10.1;10.1. calculating the output voltage;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH10/EX10.1/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1878;10. Strain Gauges and Measurement of Strain;10.10;10.10. Calculate effective value of strain;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH10/EX10.10/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1878;10. Strain Gauges and Measurement of Strain;10.11;10.11. Calculate strain when strain gauge is loaded;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH10/EX10.11/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1878;10. Strain Gauges and Measurement of Strain;10.12;10.12. Calculate Hoop stress and Longitudinal stress;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH10/EX10.12/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1878;10. Strain Gauges and Measurement of Strain;10.13;10.13. calculate Poission ratio;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH10/EX10.13/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1878;10. Strain Gauges and Measurement of Strain;10.14;10.14. calculate principal strains and stresses Maximum shear stress and Angle of orientation with principal axis;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH10/EX10.14/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1878;10. Strain Gauges and Measurement of Strain;10.2;10.2. find the meter current and op voltage;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH10/EX10.2/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1878;10. Strain Gauges and Measurement of Strain;10.3;10.3. calculating the strain;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH10/EX10.3/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1878;10. Strain Gauges and Measurement of Strain;10.4;10.4. calculating the output voltage;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH10/EX10.4/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1878;10. Strain Gauges and Measurement of Strain;10.5;10.5. calculating the stress of steel and aluminium;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH10/EX10.5/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1878;10. Strain Gauges and Measurement of Strain;10.6;10.6. calculating change in resistance of gauge andchange in resistance due to change in differential expansion;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH10/EX10.6/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1878;10. Strain Gauges and Measurement of Strain;10.7;10.7. Calculate Change in value of R4 for balance current through meter and current through strain gauge;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH10/EX10.7/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1878;10. Strain Gauges and Measurement of Strain;10.8;10.8. Calculate deflection of galvanometer;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH10/EX10.8/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1878;10. Strain Gauges and Measurement of Strain;10.9;10.9. Calculate Vth and Rth;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH10/EX10.9/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1879;11. Force Torque and Shaft Power Measurements;11.1;11.1. calculating length of beam;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH11/EX11.1/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1879;11. Force Torque and Shaft Power Measurements;11.10;11.10. CAlculate load torque;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH11/EX11.10/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1879;11. Force Torque and Shaft Power Measurements;11.11;11.11. Calculate diameter of shaft Output voltage;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH11/EX11.11/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1879;11. Force Torque and Shaft Power Measurements;11.12;11.12. Calculate the sensitivity of the cell;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH11/EX11.12/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1879;11. Force Torque and Shaft Power Measurements;11.13;11.13. Calculate percentage error in torque measurement;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH11/EX11.13/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1879;11. Force Torque and Shaft Power Measurements;11.14;11.14. Calculate diameter of shaft;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH11/EX11.14/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1879;11. Force Torque and Shaft Power Measurements;11.15;11.15. Calculate Overall efficiency of motor;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH11/EX11.15/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1879;11. Force Torque and Shaft Power Measurements;11.16;11.16. Calculate Cooling water evaporated per minute;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH11/EX11.16/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1879;11. Force Torque and Shaft Power Measurements;11.2;11.2. calculating uncertainty in the measurement of weight;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH11/EX11.2/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1879;11. Force Torque and Shaft Power Measurements;11.3;11.3. Calculate true weight of plastic material;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH11/EX11.3/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1894;12. Velocity and Vibration Measurements;12.1;12.1. Calculate speed;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH12/EX12.1/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1894;12. Velocity and Vibration Measurements;12.10;12.10. calculate the normalized frequency;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH12/EX12.10/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1894;12. Velocity and Vibration Measurements;12.11;12.11. calculate error;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH12/EX12.11/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1894;12. Velocity and Vibration Measurements;12.12;12.12. calculate sensitivity of accelerometer Natural frequency and Maximum measurable acceleration;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH12/EX12.12/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1894;12. Velocity and Vibration Measurements;12.13;12.13. calculate the gain;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH12/EX12.13/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1894;12. Velocity and Vibration Measurements;12.14;12.14. calculate the bridge output voltage;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH12/EX12.14/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1894;12. Velocity and Vibration Measurements;12.2;12.2. Calculate speed;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH12/EX12.2/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1894;12. Velocity and Vibration Measurements;12.3;12.3. Calculate speed;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH12/EX12.3/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1894;12. Velocity and Vibration Measurements;12.4;12.4. Calculate flasing Frequency which give 5 line pattern;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH12/EX12.4/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1894;12. Velocity and Vibration Measurements;12.5;12.5. Calculate speed of steam turbine;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH12/EX12.5/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1894;12. Velocity and Vibration Measurements;12.6;12.6. Calculate speed of machine;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH12/EX12.6/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1894;12. Velocity and Vibration Measurements;12.7;12.7. Calculate range of frequencies;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH12/EX12.7/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1894;12. Velocity and Vibration Measurements;12.8;12.8. Calculate peak accelaration;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH12/EX12.8/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1894;12. Velocity and Vibration Measurements;12.9;12.9. Calculate maximum accelaration and natural frequency;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH12/EX12.9/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1895;13. Flow Measurements;13.1;13.1. calculate flow of water;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH13/EX13.1/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1895;13. Flow Measurements;13.10;13.10. calculate the discharge;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH13/EX13.10/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1895;13. Flow Measurements;13.11;13.11. calculate the discharge;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH13/EX13.11/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1895;13. Flow Measurements;13.12;13.12. calculating the volumetric density of the float;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH13/EX13.12/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1895;13. Flow Measurements;13.13;13.13. Calculate average flow rate and percentage decrease in voltage;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH13/EX13.13/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1895;13. Flow Measurements;13.2;13.2. calculate Reynoids number differential pressure;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH13/EX13.2/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1895;13. Flow Measurements;13.3;13.3. calculate differential pressure of air and water;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH13/EX13.3/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1895;13. Flow Measurements;13.4;13.4. calculate the flow rate;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH13/EX13.4/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1895;13. Flow Measurements;13.5;13.5. calculate stagnation pressure;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH13/EX13.5/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1895;13. Flow Measurements;13.6;13.6. calculate mean velocity of water and velocity of air;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH13/EX13.6/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1895;13. Flow Measurements;13.7;13.7. calculate velocity;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH13/EX13.7/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1895;13. Flow Measurements;13.8;13.8. calculate depth of flow;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH13/EX13.8/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1895;13. Flow Measurements;13.9;13.9. calculate uncertinity in discharge;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH13/EX13.9/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1896;14. Temperature Measurements;14.1;14.1. calculating the correction;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH14/EX14.1/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1896;14. Temperature Measurements;14.10;14.10. Calculate the true air temperature;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH14/EX14.10/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1896;14. Temperature Measurements;14.11;14.11. Calculate the temperature indicated by the sensor;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH14/EX14.11/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1896;14. Temperature Measurements;14.12;14.12. Design a thermocouple compensation network;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH14/EX14.12/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1896;14. Temperature Measurements;14.2;14.2. calculating the radius of curvature;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH14/EX14.2/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1896;14. Temperature Measurements;14.3;14.3. calculating the vertical displacement;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH14/EX14.3/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1896;14. Temperature Measurements;14.4;14.4. calculating the temperature sensitivity of thermistor;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH14/EX14.4/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1896;14. Temperature Measurements;14.5;14.5. calculating the emf indicated by the potentiometer between temp 840 degree C and 25 degree C;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH14/EX14.5/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1896;14. Temperature Measurements;14.7;14.7. Calculate the true temperature;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH14/EX14.7/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1896;14. Temperature Measurements;14.8;14.8. Calculate the error in the measurement of temperature;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH14/EX14.8/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1896;14. Temperature Measurements;14.9;14.9. Calculate the true air temperature;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH14/EX14.9/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1896;14. Temperature Measurements;15.6;15.6. calculating kinematic viscosity of oil;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH15/EX15.6/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1896;14. Temperature Measurements;15.8;15.8. calculating kinematic viscosities;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH15/EX15.8/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1897;15. Miscellaneous Measurements;15.1;15.1. calculating maximum pressure and change in pressure;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH15/EX15.1/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1897;15. Miscellaneous Measurements;15.10;15.10. calculating kinematic viscosity;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH15/EX15.10/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1897;15. Miscellaneous Measurements;15.2;15.2. calculating sensitivity of liquid level measuring system;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH15/EX15.2/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1897;15. Miscellaneous Measurements;15.3;15.3. calculating maximum pressure and maximum differential pressure;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH15/EX15.3/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1897;15. Miscellaneous Measurements;15.4;15.4. calculating pressure of an open and closed tank;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH15/EX15.4/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1897;15. Miscellaneous Measurements;15.5;15.5. calculating minimum mass maximum and minimum force;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH15/EX15.5/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1897;15. Miscellaneous Measurements;15.7;15.7. calculating Reyonlds number;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH15/EX15.7/: PATH DOES NOT EXIST -569;A Course In Mechanical Measurements And Instrumentation(A. K. Sawhney And P. Sawhney);1897;15. Miscellaneous Measurements;15.9;15.9. calculating Reyonlds number;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/569/CH15/EX15.9/: PATH DOES NOT EXIST -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1558;2. Energy and the first law of thermodynamics;2.1;2.1. Example 1;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1558;2. Energy and the first law of thermodynamics;2.2;2.2. Example 2;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1558;2. Energy and the first law of thermodynamics;2.3;2.3. Example 3;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1558;2. Energy and the first law of thermodynamics;2.4;2.4. Example 4;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1558;2. Energy and the first law of thermodynamics;2.5;2.5. Example 5;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1558;2. Energy and the first law of thermodynamics;2.6;2.6. Example 6;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1559;3. Evaluating properties;3.1;3.1. Example 1;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1559;3. Evaluating properties;3.10;3.10. Example 10;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1559;3. Evaluating properties;3.11;3.11. Example 11;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1559;3. Evaluating properties;3.2;3.2. Example 2;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1559;3. Evaluating properties;3.3;3.3. Example 3;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1559;3. Evaluating properties;3.4;3.4. Example 4;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1559;3. Evaluating properties;3.5;3.5. Example 5;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1559;3. Evaluating properties;3.6;3.6. Example 6;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1559;3. Evaluating properties;3.7;3.7. Example 7;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1559;3. Evaluating properties;3.8;3.8. Example 8;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1559;3. Evaluating properties;3.9;3.9. Example 9;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1560;4. Control volume analysis using energy;4.1;4.1. Example 1;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1560;4. Control volume analysis using energy;4.10;4.10. Example 10;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1560;4. Control volume analysis using energy;4.11;4.11. Example 11;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1560;4. Control volume analysis using energy;4.12;4.12. Example 12;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1560;4. Control volume analysis using energy;4.13;4.13. Example 13;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1560;4. Control volume analysis using energy;4.14;4.14. Example 14;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1560;4. Control volume analysis using energy;4.2;4.2. Example 2;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1560;4. Control volume analysis using energy;4.3;4.3. Example 3;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1560;4. Control volume analysis using energy;4.4;4.4. Example 4;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1560;4. Control volume analysis using energy;4.5;4.5. Example 5;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1560;4. Control volume analysis using energy;4.6;4.6. Example 6;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1560;4. Control volume analysis using energy;4.7;4.7. Example 7;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1560;4. Control volume analysis using energy;4.8;4.8. Example 8;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1560;4. Control volume analysis using energy;4.9;4.9. Example 9;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1561;5. The second law of thermodynamics;5.1;5.1. Example 1;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1561;5. The second law of thermodynamics;5.2;5.2. Example 2;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1561;5. The second law of thermodynamics;5.3;5.3. Example 3;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1562;6. Using entropy;6.1;6.1. Example 1;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1562;6. Using entropy;6.10;6.10. Example 10;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1562;6. Using entropy;6.11;6.11. Example 11;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1562;6. Using entropy;6.12;6.12. Example 12;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1562;6. Using entropy;6.13;6.13. Example 13;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1562;6. Using entropy;6.14;6.14. Example 14;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1562;6. Using entropy;6.15;6.15. Example 15;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1562;6. Using entropy;6.2;6.2. Example 2;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1562;6. Using entropy;6.3;6.3. Example 3;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1562;6. Using entropy;6.4;6.4. Example 4;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1562;6. Using entropy;6.5;6.5. Example 5;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1562;6. Using entropy;6.6;6.6. Example 6;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1562;6. Using entropy;6.7;6.7. Example 7;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1562;6. Using entropy;6.8;6.8. Example 8;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1562;6. Using entropy;6.9;6.9. Example 9;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1563;7. Exergy analysis;7.1;7.1. Example 1;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1563;7. Exergy analysis;7.10;7.10. Example 10;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1563;7. Exergy analysis;7.2;7.2. Example 2;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1563;7. Exergy analysis;7.3;7.3. Example 3;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1563;7. Exergy analysis;7.4;7.4. Example 4;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1563;7. Exergy analysis;7.5;7.5. Example 5;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1563;7. Exergy analysis;7.6;7.6. Example 6;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1563;7. Exergy analysis;7.7;7.7. Example 7;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1563;7. Exergy analysis;7.8;7.8. Example 8;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1563;7. Exergy analysis;7.9;7.9. Example 9;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1564;8. Vapor power systems;8.1;8.1. Example 1;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1564;8. Vapor power systems;8.2;8.2. Example 2;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1564;8. Vapor power systems;8.3;8.3. Example 3;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1564;8. Vapor power systems;8.4;8.4. Example 4;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1564;8. Vapor power systems;8.5;8.5. Example 5;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1564;8. Vapor power systems;8.6;8.6. Example 6;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1564;8. Vapor power systems;8.7;8.7. Example 7;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1564;8. Vapor power systems;8.8;8.8. Example 8;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1564;8. Vapor power systems;8.9;8.9. Example 9;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1565;9. Gas power systems;9.1;9.1. Example 1;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1565;9. Gas power systems;9.10;9.10. Example 10;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1565;9. Gas power systems;9.11;9.11. Example 11;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1565;9. Gas power systems;9.12;9.12. Example 12;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1565;9. Gas power systems;9.13;9.13. Example 13;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1565;9. Gas power systems;9.14;9.14. Example 14;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1565;9. Gas power systems;9.15;9.15. Example 15;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1565;9. Gas power systems;9.2;9.2. Example 2;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1565;9. Gas power systems;9.3;9.3. Example 3;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1565;9. Gas power systems;9.4;9.4. Example 4;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1565;9. Gas power systems;9.5;9.5. Example 5;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1565;9. Gas power systems;9.6;9.6. Example 6;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1565;9. Gas power systems;9.7;9.7. Example 7;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1565;9. Gas power systems;9.8;9.8. Example 8;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1565;9. Gas power systems;9.9;9.9. Example 9;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1566;10. Refrigeration and heat pump systems;10.1;10.1. Example 1;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1566;10. Refrigeration and heat pump systems;10.2;10.2. Example 2;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1566;10. Refrigeration and heat pump systems;10.3;10.3. Example 3;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1566;10. Refrigeration and heat pump systems;10.4;10.4. Example 4;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1566;10. Refrigeration and heat pump systems;10.5;10.5. Example 5;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1567;11. Thermodynamic relations;11.1;11.1. Example 1;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1567;11. Thermodynamic relations;11.10;11.10. Example 10;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1567;11. Thermodynamic relations;11.2;11.2. Example 2;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1567;11. Thermodynamic relations;11.3;11.3. Example 3;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1567;11. Thermodynamic relations;11.4;11.4. Example 4;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1567;11. Thermodynamic relations;11.5;11.5. Example 5;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1567;11. Thermodynamic relations;11.6;11.6. Example 6;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1567;11. Thermodynamic relations;11.7;11.7. Example 7;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1567;11. Thermodynamic relations;11.8;11.8. Example 8;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1567;11. Thermodynamic relations;11.9;11.9. Example 9;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1568;12. Ideal gas mixture and psychrometric applications;12.1;12.1. Example 1;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1568;12. Ideal gas mixture and psychrometric applications;12.10;12.10. Example 10;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1568;12. Ideal gas mixture and psychrometric applications;12.11;12.11. Example 11;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1568;12. Ideal gas mixture and psychrometric applications;12.12;12.12. Example 12;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1568;12. Ideal gas mixture and psychrometric applications;12.13;12.13. Example 13;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1568;12. Ideal gas mixture and psychrometric applications;12.14;12.14. Example 14;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1568;12. Ideal gas mixture and psychrometric applications;12.15;12.15. Example 15;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1568;12. Ideal gas mixture and psychrometric applications;12.2;12.2. Example 2;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1568;12. Ideal gas mixture and psychrometric applications;12.3;12.3. Example 3;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1568;12. Ideal gas mixture and psychrometric applications;12.4;12.4. Example 4;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1568;12. Ideal gas mixture and psychrometric applications;12.5;12.5. Example 5;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1568;12. Ideal gas mixture and psychrometric applications;12.6;12.6. Example 6;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1568;12. Ideal gas mixture and psychrometric applications;12.7;12.7. Example 7;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1568;12. Ideal gas mixture and psychrometric applications;12.8;12.8. Example 8;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1568;12. Ideal gas mixture and psychrometric applications;12.9;12.9. Example 9;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1569;13. Reacting mixtures and combustion;13.1;13.1. Example 1;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1569;13. Reacting mixtures and combustion;13.10;13.10. Example 10;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1569;13. Reacting mixtures and combustion;13.11;13.11. Example 11;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1569;13. Reacting mixtures and combustion;13.12;13.12. Example 12;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1569;13. Reacting mixtures and combustion;13.13;13.13. Example 13;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1569;13. Reacting mixtures and combustion;13.14;13.14. Example 14;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1569;13. Reacting mixtures and combustion;13.15;13.15. Example 15;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1569;13. Reacting mixtures and combustion;13.16;13.16. Example 16;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1569;13. Reacting mixtures and combustion;13.2;13.2. Example 2;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1569;13. Reacting mixtures and combustion;13.3;13.3. Example 3;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1569;13. Reacting mixtures and combustion;13.4;13.4. Example 4;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1569;13. Reacting mixtures and combustion;13.5;13.5. Example 5;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1569;13. Reacting mixtures and combustion;13.6;13.6. Example 6;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1569;13. Reacting mixtures and combustion;13.7;13.7. Example 7;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1569;13. Reacting mixtures and combustion;13.8;13.8. Example 8;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1569;13. Reacting mixtures and combustion;13.9;13.9. Example 9;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1570;14. Chemical and phase equilibrium;14.1;14.1. Example 1;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1570;14. Chemical and phase equilibrium;14.10;14.10. Example 10;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1570;14. Chemical and phase equilibrium;14.2;14.2. Example 2;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1570;14. Chemical and phase equilibrium;14.3;14.3. Example 3;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1570;14. Chemical and phase equilibrium;14.4;14.4. Example 4;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1570;14. Chemical and phase equilibrium;14.5;14.5. Example 5;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1570;14. Chemical and phase equilibrium;14.6;14.6. Example 6;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1570;14. Chemical and phase equilibrium;14.7;14.7. Example 7;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1570;14. Chemical and phase equilibrium;14.8;14.8. Example 8;correct;runtime; -572;Fundamental Of Engineering Thermodynamics(M. J. Moran, H. N. Shapiro, D. D. Boettner And M. B. Bailey);1570;14. Chemical and phase equilibrium;14.9;14.9. Example 9;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1438;2. Introduction To Engineering Calculations;2.2.1;2.2.1. chapter 2 example 1;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1438;2. Introduction To Engineering Calculations;2.3.1;2.3.1. chapter 2 example 2;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1438;2. Introduction To Engineering Calculations;2.4.1;2.4.1. chapter 2 example 3;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1438;2. Introduction To Engineering Calculations;2.5.2;2.5.2. chapter 2 example 4;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1438;2. Introduction To Engineering Calculations;2.7.1;2.7.1. chapter 2 example 5;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1438;2. Introduction To Engineering Calculations;2.7.2;2.7.2. chapter 2 example 6;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1441;3. Processes and Process Variables;3.1.1;3.1.1. chapter 3 example 1;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1441;3. Processes and Process Variables;3.1.2;3.1.2. chapter 3 example 2;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1441;3. Processes and Process Variables;3.3.1;3.3.1. chapter 3 example 3;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1441;3. Processes and Process Variables;3.3.2;3.3.2. chapter 3 example 4;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1441;3. Processes and Process Variables;3.3.3;3.3.3. chapter 3 example 5;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1441;3. Processes and Process Variables;3.3.4;3.3.4. chapter 3 example 6;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1441;3. Processes and Process Variables;3.3.5;3.3.5. chapter 3 example 7;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1441;3. Processes and Process Variables;3.4.1;3.4.1. chapter 3 example 8;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1441;3. Processes and Process Variables;3.4.2;3.4.2. chapter 3 example 9;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1441;3. Processes and Process Variables;3.5.2;3.5.2. chapter 3 example 10;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.2.1;4.2.1. chapter 4 example 1;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.2.2;4.2.2. chapter 4 example 2;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.2.3;4.2.3. chapter 4 example 3;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.2.4;4.2.4. chapter 4 example 4;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.3.1;4.3.1. chapter 4 example 5;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.3.2;4.3.2. chapter 4 example 6;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.3.3;4.3.3. chapter 4 example 7;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.3.5;4.3.5. chapter 4 example 8;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.4.1;4.4.1. chapter 4 example 9;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.4.2;4.4.2. chapter 4 example 10;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.5.1;4.5.1. chapter 4 example 11;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.5.2;4.5.2. chapter 4 example 12;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.6.1;4.6.1. chapter 4 example 13;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.6.3;4.6.3. chapter 4 example 14;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.7.2;4.7.2. chapter 4 example 15;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.7.3;4.7.3. chapter 4 example 16;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.8.1;4.8.1. chapter 4 example 17;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.8.2;4.8.2. chapter 4 example 18;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.8.3;4.8.3. chapter 4 example 19;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.8.4;4.8.4. chapter 4 example 20;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1442;4. Fundamentals Of Material Balances;4.9.1;4.9.1. chapter 4 example 21;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1443;5. Single Phase Systems;5.1.1;5.1.1. chapter 5 example 1;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1443;5. Single Phase Systems;5.2.1;5.2.1. chapter 5 example 2;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1443;5. Single Phase Systems;5.2.2;5.2.2. chapter 5 example 3;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1443;5. Single Phase Systems;5.2.3;5.2.3. chapter 5 example 4;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1443;5. Single Phase Systems;5.2.4;5.2.4. chapter 5 example 5;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1443;5. Single Phase Systems;5.2.5;5.2.5. chapter 5 example 6;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1443;5. Single Phase Systems;5.3.1;5.3.1. chapter 5 example 7;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1443;5. Single Phase Systems;5.3.2;5.3.2. chapter 5 example 8;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1443;5. Single Phase Systems;5.4.1;5.4.1. chapter 5 example 9;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1443;5. Single Phase Systems;5.4.2;5.4.2. chapter 5 example 10;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1443;5. Single Phase Systems;5.4.3;5.4.3. chapter 5 example 11;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1444;6. Multiphase Systems;6.1.1;6.1.1. chapter 6 example 1;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1444;6. Multiphase Systems;6.3.1;6.3.1. chapter 6 example 2;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1444;6. Multiphase Systems;6.3.2;6.3.2. chapter 6 example 3;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1444;6. Multiphase Systems;6.3.3;6.3.3. chapter 6 example 4;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1444;6. Multiphase Systems;6.4.1;6.4.1. chapter 6 example 5;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1444;6. Multiphase Systems;6.4.2;6.4.2. chapter 6 example 6;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1444;6. Multiphase Systems;6.5.1;6.5.1. chapter 6 example 7;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1444;6. Multiphase Systems;6.5.2;6.5.2. chapter 6 example 8;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1444;6. Multiphase Systems;6.5.3;6.5.3. chapter 6 example 9;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1444;6. Multiphase Systems;6.5.4;6.5.4. chapter 6 example 10;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1444;6. Multiphase Systems;6.6.1;6.6.1. chapter 6 example 11;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1444;6. Multiphase Systems;6.6.2;6.6.2. chapter 6 example 12;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1444;6. Multiphase Systems;6.7.1;6.7.1. chapter 6 example 13;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1445;7. Energy And Energy Balances;7.2.1;7.2.1. chapter 7 example 1;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1445;7. Energy And Energy Balances;7.2.2;7.2.2. chapter 7 example 2;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1445;7. Energy And Energy Balances;7.4.1;7.4.1. chapter 7 example 3;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1445;7. Energy And Energy Balances;7.4.2;7.4.2. chapter 7 example 4;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1445;7. Energy And Energy Balances;7.5.1;7.5.1. chapter 7 example 5;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1445;7. Energy And Energy Balances;7.5.3;7.5.3. chapter 7 example 6;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1445;7. Energy And Energy Balances;7.6.1;7.6.1. chapter 7 example 7;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1445;7. Energy And Energy Balances;7.6.2;7.6.2. chapter 7 example 8;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1445;7. Energy And Energy Balances;7.6.3;7.6.3. chapter 7 example 9;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1445;7. Energy And Energy Balances;7.7.1;7.7.1. chapter 7 example 10;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1445;7. Energy And Energy Balances;7.7.2;7.7.2. chapter 7 example 11;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1445;7. Energy And Energy Balances;7.7.3;7.7.3. chapter 7 example 12;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1446;8. Balances On Nonreactive Processes;8.3.1;8.3.1. chapter 8 example 1;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1446;8. Balances On Nonreactive Processes;8.3.2;8.3.2. chapter 8 example 2;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1446;8. Balances On Nonreactive Processes;8.3.3;8.3.3. chapter 8 example 3;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1446;8. Balances On Nonreactive Processes;8.3.4;8.3.4. chapter 8 example 4;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1446;8. Balances On Nonreactive Processes;8.3.5;8.3.5. chapter 8 example 5;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1446;8. Balances On Nonreactive Processes;8.4.1;8.4.1. chapter 8 example 6;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1446;8. Balances On Nonreactive Processes;8.4.2;8.4.2. chapter 8 example 7;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1446;8. Balances On Nonreactive Processes;8.4.3;8.4.3. chapter 8 example 8;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1446;8. Balances On Nonreactive Processes;8.4.4;8.4.4. chapter 8 example 9;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1446;8. Balances On Nonreactive Processes;8.5.1;8.5.1. chapter 8 example 10;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1446;8. Balances On Nonreactive Processes;8.5.2;8.5.2. chapter 8 example 11;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1446;8. Balances On Nonreactive Processes;8.5.5;8.5.5. chapter 8 example 12;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1448;9. Balances On Reactive Processes;9.1.1;9.1.1. chapter 9 example 1;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1448;9. Balances On Reactive Processes;9.1.2;9.1.2. chapter 9 example 2;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1448;9. Balances On Reactive Processes;9.3.1;9.3.1. chapter 9 example 3;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1448;9. Balances On Reactive Processes;9.4.1;9.4.1. chapter 9 example 4;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1448;9. Balances On Reactive Processes;9.5.1;9.5.1. chapter 9 example 5;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1448;9. Balances On Reactive Processes;9.5.2;9.5.2. chapter 9 example 6;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1448;9. Balances On Reactive Processes;9.5.4;9.5.4. chapter 9 example 7;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1448;9. Balances On Reactive Processes;9.5.5;9.5.5. chapter 9 example 8;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1448;9. Balances On Reactive Processes;9.5.6;9.5.6. chapter 9 example 9;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1448;9. Balances On Reactive Processes;9.6.1;9.6.1. chapter 9 example 10;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1450;11. Balances on Transient Processes;11.1.2;11.1.2. chapter 11 example 1;correct;runtime; -575;Elementary Principles Of Chemical Processes(R. M. Felder And R. W. Rousseau);1450;11. Balances on Transient Processes;11.3.1;11.3.1. chapter 11 example 2;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1690;1. Introduction;1.1;1.1. heat flux and heat transfer rate;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1690;1. Introduction;1.2;1.2. Temperature Distribution;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1690;1. Introduction;1.3;1.3. heat transfer coefficient calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1690;1. Introduction;1.4;1.4. response of thermocouple;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1690;1. Introduction;1.5;1.5. Temperature of thermocouple;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1690;1. Introduction;1.6;1.6. Temperature of thermocouple;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1692;2. Heat conduction concepts and heat transfer coefficient;2.10;2.10. heat transfer coefficient calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1692;2. Heat conduction concepts and heat transfer coefficient;2.12;2.12. redesign of siding;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1692;2. Heat conduction concepts and heat transfer coefficient;2.13;2.13. fouling calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1692;2. Heat conduction concepts and heat transfer coefficient;2.3;2.3. steady flux;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1692;2. Heat conduction concepts and heat transfer coefficient;2.4;2.4. thickness calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1692;2. Heat conduction concepts and heat transfer coefficient;2.7;2.7. Critical radius of insulation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1692;2. Heat conduction concepts and heat transfer coefficient;2.8;2.8. Ressistor temperature calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1692;2. Heat conduction concepts and heat transfer coefficient;2.9;2.9. time of cooling of ressistor;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1693;3. Heat Exchanger Design;3.3;3.3. heat transfer coefficient calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1693;3. Heat Exchanger Design;3.4;3.4. heat exchanger area;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1693;3. Heat Exchanger Design;3.5;3.5. heat transfer temperature;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1693;3. Heat Exchanger Design;3.6;3.6. area calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1694;4. Analysis of Heat Conduction;4.10;4.10. Ressistor temperature calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1694;4. Analysis of Heat Conduction;4.11;4.11. Heat Loss Calulation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1694;4. Analysis of Heat Conduction;4.8;4.8. Comparison of tip temperatures;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1694;4. Analysis of Heat Conduction;4.9;4.9. error calculation in heat flux;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1695;5. Transient and Multidimensional Heat Conduction;5.11;5.11. Thermal Conductivity;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1695;5. Transient and Multidimensional Heat Conduction;5.12;5.12. temperature calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1695;5. Transient and Multidimensional Heat Conduction;5.13;5.13. Mean Temperature calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1695;5. Transient and Multidimensional Heat Conduction;5.2;5.2. temperature and heat calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1695;5. Transient and Multidimensional Heat Conduction;5.3;5.3. temperature fluctuation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1695;5. Transient and Multidimensional Heat Conduction;5.4;5.4. Maximum Time Calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1695;5. Transient and Multidimensional Heat Conduction;5.5;5.5. Time Calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1695;5. Transient and Multidimensional Heat Conduction;5.7;5.7. depth calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1695;5. Transient and Multidimensional Heat Conduction;5.8;5.8. temperature calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1695;5. Transient and Multidimensional Heat Conduction;5.9;5.9. Shape Factor Calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1696;6. Laminar and Turbulent Boundary Layers;6.10;6.10. Average temperature calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1696;6. Laminar and Turbulent Boundary Layers;6.2;6.2. boundary layer thickness calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1696;6. Laminar and Turbulent Boundary Layers;6.3;6.3. shear Stress and friction coefficient;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1696;6. Laminar and Turbulent Boundary Layers;6.4;6.4. Average Heat Flux;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1696;6. Laminar and Turbulent Boundary Layers;6.5;6.5. Average Heat Transfer coefficient;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1696;6. Laminar and Turbulent Boundary Layers;6.6;6.6. Average temperature calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1696;6. Laminar and Turbulent Boundary Layers;6.8;6.8. Drag Force calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1696;6. Laminar and Turbulent Boundary Layers;6.9;6.9. heat transfer coefficient calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1697;7. Forced Convection in Configuration Systems;7.1;7.1. depth calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1697;7. Forced Convection in Configuration Systems;7.2;7.2. power input and wall temperature;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1697;7. Forced Convection in Configuration Systems;7.3;7.3. friction factor calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1697;7. Forced Convection in Configuration Systems;7.4;7.4. friction factor calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1697;7. Forced Convection in Configuration Systems;7.5;7.5. temperature calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1697;7. Forced Convection in Configuration Systems;7.6;7.6. change in bulk temperature;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1697;7. Forced Convection in Configuration Systems;7.7;7.7. Air speed calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1706;8. natural Convection in single phase fluids and during film codensation;8.1;8.1. heat transfer coefficient and heat flux calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1706;8. natural Convection in single phase fluids and during film codensation;8.3;8.3. heat transfer coefficient varification;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1706;8. natural Convection in single phase fluids and during film codensation;8.4;8.4. Heat flux variation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1706;8. natural Convection in single phase fluids and during film codensation;8.5;8.5. Average surface temperature calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1706;8. natural Convection in single phase fluids and during film codensation;8.6;8.6. heat transfer calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1718;9. Heat transfer in boiling and other phase configurations;9.1;9.1. Size estimation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1718;9. Heat transfer in boiling and other phase configurations;9.2;9.2. surface factor calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1718;9. Heat transfer in boiling and other phase configurations;9.3;9.3. steam velocity estimation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1718;9. Heat transfer in boiling and other phase configurations;9.4;9.4. maximum spacing calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1718;9. Heat transfer in boiling and other phase configurations;9.5;9.5. peak heat flux calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1718;9. Heat transfer in boiling and other phase configurations;9.6;9.6. maximum heat flux;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1718;9. Heat transfer in boiling and other phase configurations;9.7;9.7. heat removal rate calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1718;9. Heat transfer in boiling and other phase configurations;9.8;9.8. minimum heat flux;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1718;9. Heat transfer in boiling and other phase configurations;9.9;9.9. wall temperature calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1731;10. thermal radiation heat transfer;10.1;10.1. net heat transfer calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1731;10. thermal radiation heat transfer;10.10;10.10. heat transfer rate calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1731;10. thermal radiation heat transfer;10.11;10.11. net heat radiation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1731;10. thermal radiation heat transfer;10.12;10.12. root temperature calculculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1731;10. thermal radiation heat transfer;10.2;10.2. net heat transfer calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1731;10. thermal radiation heat transfer;10.3;10.3. view factor calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1731;10. thermal radiation heat transfer;10.4;10.4. view factor calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1731;10. thermal radiation heat transfer;10.8;10.8. heat gain rate and temperature of the shield;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1731;10. thermal radiation heat transfer;10.9;10.9. net heat transfer calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1732;11. An Introduction to mass Transfer;11.1;11.1. mol fraction and pressure density calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1732;11. An Introduction to mass Transfer;11.10;11.10. average rate of naphthalene loss;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1732;11. An Introduction to mass Transfer;11.11;11.11. average concentration of helium;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1732;11. An Introduction to mass Transfer;11.14;11.14. concentration distribution;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1732;11. An Introduction to mass Transfer;11.15;11.15. rate of evaporation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1732;11. An Introduction to mass Transfer;11.16;11.16. mass transfer coefficient calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1732;11. An Introduction to mass Transfer;11.2;11.2. mass and mole flux calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1732;11. An Introduction to mass Transfer;11.3;11.3. diffusivity calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1732;11. An Introduction to mass Transfer;11.4;11.4. transport properties calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1732;11. An Introduction to mass Transfer;11.5;11.5. mass fraction calculation;correct;runtime; -581;A Heat Transfer Text Book(J. H. Lienhard, IV And J. H. Lienhard, V);1732;11. An Introduction to mass Transfer;11.6;11.6. mass fraction calculation;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1355;1. Introduction and basic concepts;1.1;1.1. ab12;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1355;1. Introduction and basic concepts;1.10;1.10. ab20;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1355;1. Introduction and basic concepts;1.11;1.11. ab21;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1355;1. Introduction and basic concepts;1.13;1.13. ab22;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1355;1. Introduction and basic concepts;1.14;1.14. ab23;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1355;1. Introduction and basic concepts;1.2;1.2. ab13;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1355;1. Introduction and basic concepts;1.3;1.3. ab14;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1355;1. Introduction and basic concepts;1.4;1.4. ab15;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1355;1. Introduction and basic concepts;1.5;1.5. ab16;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1355;1. Introduction and basic concepts;1.6;1.6. ab16;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1355;1. Introduction and basic concepts;1.7;1.7. ab17;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1355;1. Introduction and basic concepts;1.8;1.8. ab18;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1355;1. Introduction and basic concepts;1.9;1.9. ab19;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1357;2. Heat Conduction Equation;2.10;2.10. ab31;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1357;2. Heat Conduction Equation;2.11;2.11. ab32;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1357;2. Heat Conduction Equation;2.13;2.13. ab33;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1357;2. Heat Conduction Equation;2.14;2.14. ab34;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1357;2. Heat Conduction Equation;2.15;2.15. ab35;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1357;2. Heat Conduction Equation;2.16;2.16. ab36;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1357;2. Heat Conduction Equation;2.17;2.17. ab37;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1357;2. Heat Conduction Equation;2.18;2.18. ab38;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1357;2. Heat Conduction Equation;2.19;2.19. ab39;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1357;2. Heat Conduction Equation;2.2;2.2. ab24;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1357;2. Heat Conduction Equation;2.21;2.21. ab40;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1357;2. Heat Conduction Equation;2.4;2.4. ab25;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1357;2. Heat Conduction Equation;2.5;2.5. ab26;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1357;2. Heat Conduction Equation;2.6;2.6. ab27;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1357;2. Heat Conduction Equation;2.7;2.7. ab28;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1357;2. Heat Conduction Equation;2.8;2.8. ab29;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1357;2. Heat Conduction Equation;2.9;2.9. ab30;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1359;3. steady Heat Conduction;3.1;3.1. ab41;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1359;3. steady Heat Conduction;3.10;3.10. ab50;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1359;3. steady Heat Conduction;3.11;3.11. ab51;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1359;3. steady Heat Conduction;3.12;3.12. ab52;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1359;3. steady Heat Conduction;3.13;3.13. ab53;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1359;3. steady Heat Conduction;3.14;3.14. ab54;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1359;3. steady Heat Conduction;3.15;3.15. ab55;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1359;3. steady Heat Conduction;3.16;3.16. ab56;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1359;3. steady Heat Conduction;3.17;3.17. ab57;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1359;3. steady Heat Conduction;3.2;3.2. ab42;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1359;3. steady Heat Conduction;3.3;3.3. ab43;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1359;3. steady Heat Conduction;3.4;3.4. ab44;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1359;3. steady Heat Conduction;3.5;3.5. ab45;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1359;3. steady Heat Conduction;3.6;3.6. ab46;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1359;3. steady Heat Conduction;3.7;3.7. ab47;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1359;3. steady Heat Conduction;3.8;3.8. ab48;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1359;3. steady Heat Conduction;3.9;3.9. ab49;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1360;4. Transient Heat Conduction;4.1;4.1. ab61;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1360;4. Transient Heat Conduction;4.10;4.10. ab70;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1360;4. Transient Heat Conduction;4.11;4.11. ab71;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1360;4. Transient Heat Conduction;4.2;4.2. ab62;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1360;4. Transient Heat Conduction;4.3;4.3. ab63;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1360;4. Transient Heat Conduction;4.4;4.4. ab64;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1360;4. Transient Heat Conduction;4.5;4.5. ab65;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1360;4. Transient Heat Conduction;4.6;4.6. ab66;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1360;4. Transient Heat Conduction;4.7;4.7. ab67;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1360;4. Transient Heat Conduction;4.8;4.8. ab68;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1360;4. Transient Heat Conduction;4.9;4.9. ab69;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1361;5. Numerical Methods in Heat Conduction;5.1;5.1. ab71;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1361;5. Numerical Methods in Heat Conduction;5.2;5.2. ab72;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1361;5. Numerical Methods in Heat Conduction;5.3;5.3. ab73;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1361;5. Numerical Methods in Heat Conduction;5.4;5.4. ab74;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1361;5. Numerical Methods in Heat Conduction;5.5;5.5. ab75;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1361;5. Numerical Methods in Heat Conduction;5.6;5.6. ab76;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1362;6. Fundamentals of Convection;6.1;6.1. ab81;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1362;6. Fundamentals of Convection;6.2;6.2. ab82;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1363;7. External Forced Convection;7.1;7.1. ab91;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1363;7. External Forced Convection;7.2;7.2. ab92;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1363;7. External Forced Convection;7.3;7.3. ab93;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1363;7. External Forced Convection;7.4;7.4. ab94;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1363;7. External Forced Convection;7.5;7.5. ab95;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1363;7. External Forced Convection;7.6;7.6. ab96;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1363;7. External Forced Convection;7.7;7.7. ab97;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1363;7. External Forced Convection;7.8;7.8. ab98;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1363;7. External Forced Convection;7.9;7.9. ab99;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1364;8. Internal Forced Convection;8.1;8.1. ab101;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1364;8. Internal Forced Convection;8.2;8.2. ab102;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1364;8. Internal Forced Convection;8.3;8.3. ab103;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1364;8. Internal Forced Convection;8.4;8.4. ab104;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1364;8. Internal Forced Convection;8.5;8.5. ab105;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1364;8. Internal Forced Convection;8.6;8.6. ab106;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1364;8. Internal Forced Convection;8.7;8.7. ab107;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1364;8. Internal Forced Convection;8.8;8.8. ab108;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1373;9. Natural Convection;9.1;9.1. ab111;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1373;9. Natural Convection;9.2;9.2. ab112;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1373;9. Natural Convection;9.3;9.3. ab113;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1373;9. Natural Convection;9.4;9.4. ab114;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1373;9. Natural Convection;9.5;9.5. ab115;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1373;9. Natural Convection;9.6;9.6. ab116;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1373;9. Natural Convection;9.7;9.7. ab117;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1373;9. Natural Convection;9.8;9.8. ab118;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1373;9. Natural Convection;9.9;9.9. ab119;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1374;10. Boiling and Condensation;10.1;10.1. ab121;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1374;10. Boiling and Condensation;10.2;10.2. ab122;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1374;10. Boiling and Condensation;10.3;10.3. ab123;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1374;10. Boiling and Condensation;10.4;10.4. ab124;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1374;10. Boiling and Condensation;10.5;10.5. ab125;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1374;10. Boiling and Condensation;10.6;10.6. ab126;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1374;10. Boiling and Condensation;10.7;10.7. ab127;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1374;10. Boiling and Condensation;10.8;10.8. ab128;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1375;11. Heat Exchangers;11.1;11.1. ab131;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1375;11. Heat Exchangers;11.10;11.10. ab140;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1375;11. Heat Exchangers;11.2;11.2. ab132;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1375;11. Heat Exchangers;11.3;11.3. ab133;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1375;11. Heat Exchangers;11.4;11.4. ab134;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1375;11. Heat Exchangers;11.5;11.5. ab135;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1375;11. Heat Exchangers;11.6;11.6. ab136;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1375;11. Heat Exchangers;11.7;11.7. ab137;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1375;11. Heat Exchangers;11.8;11.8. ab138;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1375;11. Heat Exchangers;11.9;11.9. ab139;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1376;12. Fundamentals of Thermal Radiation;12.1;12.1. ab141;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1376;12. Fundamentals of Thermal Radiation;12.2;12.2. ab142;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1376;12. Fundamentals of Thermal Radiation;12.3;12.3. ab143;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1376;12. Fundamentals of Thermal Radiation;12.4;12.4. ab144;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1376;12. Fundamentals of Thermal Radiation;12.5;12.5. ab145;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1376;12. Fundamentals of Thermal Radiation;12.6;12.6. ab146;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1395;13. Radiation Heat Transfer;13.1;13.1. ab151;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1395;13. Radiation Heat Transfer;13.10;13.10. ab160;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1395;13. Radiation Heat Transfer;13.11;13.11. ab161;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1395;13. Radiation Heat Transfer;13.12;13.12. ab162;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1395;13. Radiation Heat Transfer;13.13;13.13. ab163;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1395;13. Radiation Heat Transfer;13.14;13.14. ab164;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1395;13. Radiation Heat Transfer;13.15;13.15. ab165;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1395;13. Radiation Heat Transfer;13.2;13.2. ab152;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1395;13. Radiation Heat Transfer;13.3;13.3. ab153;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1395;13. Radiation Heat Transfer;13.5;13.5. ab155;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1395;13. Radiation Heat Transfer;13.6;13.6. ab156;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1395;13. Radiation Heat Transfer;13.7;13.7. ab157;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1395;13. Radiation Heat Transfer;13.8;13.8. ab158;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1395;13. Radiation Heat Transfer;13.9;13.9. ab159;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1403;14. Mass Transfer;14.1;14.1. ab171;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1403;14. Mass Transfer;14.10;14.10. ab180;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1403;14. Mass Transfer;14.11;14.11. ab181;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1403;14. Mass Transfer;14.12;14.12. ab182;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1403;14. Mass Transfer;14.13;14.13. ab183;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1403;14. Mass Transfer;14.2;14.2. ab172;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1403;14. Mass Transfer;14.3;14.3. ab173;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1403;14. Mass Transfer;14.4;14.4. ab174;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1403;14. Mass Transfer;14.5;14.5. ab175;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1403;14. Mass Transfer;14.6;14.6. ab176;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1403;14. Mass Transfer;14.7;14.7. ab177;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1403;14. Mass Transfer;14.8;14.8. ab178;correct;runtime; -587;Heat And Mass Transfer - A Practical Approach(Y. A. Cengel);1403;14. Mass Transfer;14.9;14.9. ab179;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2151;1. Introduction to Equilibrium;1.1;1.1. Units Conversion Factors and Notations;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2151;1. Introduction to Equilibrium;1.2;1.2. Density dependency of concentration;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2152;2. Basic Thermodynamics;2.1;2.1. Calculation of the thermodynamics properties of steam;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2152;2. Basic Thermodynamics;2.2;2.2. Work done in reversible adiabatic steady flow steam turbine;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2152;2. Basic Thermodynamics;2.3;2.3. Estimation of Compressibility factor;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2153;3. The Simplest Phase Equilibrium Examples and Some Simple Estimating Rules;3.1;3.1. Mole fraction of water vapour in air;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2153;3. The Simplest Phase Equilibrium Examples and Some Simple Estimating Rules;3.2;3.2. Roults and Henrys Law;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2153;3. The Simplest Phase Equilibrium Examples and Some Simple Estimating Rules;3.3;3.3. Composition of Air and Water;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2153;3. The Simplest Phase Equilibrium Examples and Some Simple Estimating Rules;3.4;3.4. Some Simple Applications of Raoults and Henrys laws;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2153;3. The Simplest Phase Equilibrium Examples and Some Simple Estimating Rules;3.5;3.5. Some Simple Applications of Raoults and Henrys laws;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2153;3. The Simplest Phase Equilibrium Examples and Some Simple Estimating Rules;3.6;3.6. Some Simple Applications of Raoults and Henrys laws;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2153;3. The Simplest Phase Equilibrium Examples and Some Simple Estimating Rules;3.7;3.7. Some Simple Applications of Raoults and Henrys laws;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2153;3. The Simplest Phase Equilibrium Examples and Some Simple Estimating Rules;3.8;3.8. Some Simple Applications of Raoults and Henrys laws;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2155;4. Minimization of Gibbs Free energy;4.1;4.1. Gibbs free energy calculation;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2155;4. Minimization of Gibbs Free energy;4.2;4.2. Gibbs free energy diagram for the graphite diamond system;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2155;4. Minimization of Gibbs Free energy;4.3;4.3. Gibbs free energy for chemical reactions;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2156;5. Vapor Pressure The Clapeyron Equation And Single Pure Chemical Species Phase Equilibrium;5.1;5.1. Application of Clapeyron Equation;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2156;5. Vapor Pressure The Clapeyron Equation And Single Pure Chemical Species Phase Equilibrium;5.2;5.2. Application of Clausius Clapeyron Equation;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2156;5. Vapor Pressure The Clapeyron Equation And Single Pure Chemical Species Phase Equilibrium;5.3;5.3. Application of Clausius Clapeyron Equation;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2156;5. Vapor Pressure The Clapeyron Equation And Single Pure Chemical Species Phase Equilibrium;5.4;5.4. The Accentric Factor;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2156;5. Vapor Pressure The Clapeyron Equation And Single Pure Chemical Species Phase Equilibrium;5.5;5.5. Estimation of NBP using Antoine equation;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2156;5. Vapor Pressure The Clapeyron Equation And Single Pure Chemical Species Phase Equilibrium;5.6;5.6. Applying the Clapeyron equation to other kind of equilibrium;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2196;6. Partial Molal Properties;6.1;6.1. Tagent Slopes;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2196;6. Partial Molal Properties;6.10;6.10. Integral Heat of Mixing;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2196;6. Partial Molal Properties;6.11;6.11. Application of Gibbs Duhem equation;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2196;6. Partial Molal Properties;6.12;6.12. Application of the gibbs Duhem equation;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2196;6. Partial Molal Properties;6.2;6.2. Volume Change on Mixing;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2196;6. Partial Molal Properties;6.3;6.3. Volume change on mixing;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2196;6. Partial Molal Properties;6.4;6.4. Tangent Intercept Concept;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2196;6. Partial Molal Properties;6.5;6.5. Tangent Intercept concept;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2196;6. Partial Molal Properties;6.6;6.6. Idea of Tangent Intercept;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2196;6. Partial Molal Properties;6.7;6.7. Partial Mass Properties;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2196;6. Partial Molal Properties;6.8;6.8. Differential Heat of Mixing;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2196;6. Partial Molal Properties;6.9;6.9. Integral Heat of Mixing;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2226;7. Fugacity Ideal Solutions Activity Activity Coefficient;7.1;7.1. The fugacity of pure gases;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2226;7. Fugacity Ideal Solutions Activity Activity Coefficient;7.2;7.2. Compressibility factor and volume residual;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2226;7. Fugacity Ideal Solutions Activity Activity Coefficient;7.3;7.3. Fugacity of pure liquid;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2226;7. Fugacity Ideal Solutions Activity Activity Coefficient;7.4;7.4. Activity and activity coefficient;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2226;7. Fugacity Ideal Solutions Activity Activity Coefficient;7.5;7.5. Fugacities from gas PvT data;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2226;7. Fugacity Ideal Solutions Activity Activity Coefficient;7.6;7.6. Fugacities from gas PvT data;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2226;7. Fugacity Ideal Solutions Activity Activity Coefficient;7.7;7.7. Fugacities from an EOS for gas mixtures;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2227;8. Vapor Liquid Equilibrium VLE at Low Pressures;8.1;8.1. Calculation of K factors;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2227;8. Vapor Liquid Equilibrium VLE at Low Pressures;8.10;8.10. Pressure specified dew point;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2227;8. Vapor Liquid Equilibrium VLE at Low Pressures;8.11;8.11. Temperature specified bubble point;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2227;8. Vapor Liquid Equilibrium VLE at Low Pressures;8.12;8.12. Pressure specified bubble point;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2227;8. Vapor Liquid Equilibrium VLE at Low Pressures;8.13;8.13. Isothermal flashes;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2227;8. Vapor Liquid Equilibrium VLE at Low Pressures;8.14;8.14. Use of de prester chart;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2227;8. Vapor Liquid Equilibrium VLE at Low Pressures;8.15;8.15. Non volatile solutes boiling point elevation;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2227;8. Vapor Liquid Equilibrium VLE at Low Pressures;8.16;8.16. Freezing point depression;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2227;8. Vapor Liquid Equilibrium VLE at Low Pressures;8.2;8.2. Liquid phase activity coefficient;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2227;8. Vapor Liquid Equilibrium VLE at Low Pressures;8.3;8.3. Non ideal solution behaviour;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2227;8. Vapor Liquid Equilibrium VLE at Low Pressures;8.4;8.4. Two liquid phase;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2227;8. Vapor Liquid Equilibrium VLE at Low Pressures;8.5;8.5. Two liquid phase;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2227;8. Vapor Liquid Equilibrium VLE at Low Pressures;8.6;8.6. Activity coefficient of water and n butanol;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2227;8. Vapor Liquid Equilibrium VLE at Low Pressures;8.7;8.7. Zero Solubility and Steam distillatation;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2227;8. Vapor Liquid Equilibrium VLE at Low Pressures;8.8;8.8. The little EOS;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2227;8. Vapor Liquid Equilibrium VLE at Low Pressures;8.9;8.9. Dew Point Calculations;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2228;9. Correlating And Predicting Nonideal VLE;9.1;9.1. Van Laar equation;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2228;9. Correlating And Predicting Nonideal VLE;9.10;9.10. Solubility parameter;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2228;9. Correlating And Predicting Nonideal VLE;9.11;9.11. Henrys Law Constant estimation;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2228;9. Correlating And Predicting Nonideal VLE;9.12;9.12. Calculation of the activity coefficient using Henrys law;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2228;9. Correlating And Predicting Nonideal VLE;9.2;9.2. Excess Gibbs free energy and activity coefficient equations;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2228;9. Correlating And Predicting Nonideal VLE;9.3;9.3. Excess Gibbs free energy and activity coefficient equations;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2228;9. Correlating And Predicting Nonideal VLE;9.4;9.4. Activity coefficient at infinite dilution;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2228;9. Correlating And Predicting Nonideal VLE;9.5;9.5. Constants in the morgules equation;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2228;9. Correlating And Predicting Nonideal VLE;9.6;9.6. Effect of pressure changes on liquid phase activity coefficient;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2228;9. Correlating And Predicting Nonideal VLE;9.7;9.7. Effect of temperature changes on liquid phase activity coefficient;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2228;9. Correlating And Predicting Nonideal VLE;9.8;9.8. Liquid phase activity coefficients for ternary mixtures;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2228;9. Correlating And Predicting Nonideal VLE;9.9;9.9. Application of mixing rule;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2229;10. Vapor Liquid Equilibrium VLE at High Pressures;10.1;10.1. Bubble point temperature estimation;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2229;10. Vapor Liquid Equilibrium VLE at High Pressures;10.2;10.2. Bubble point temperature estimation;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2229;10. Vapor Liquid Equilibrium VLE at High Pressures;10.3;10.3. Bubble point temperature estimation using SRK EOS;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2230;11. LIquid Liquid Liquid Solid And Gas Solid Equilibrium;11.1;11.1. Reporting and presenting LLE data;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2230;11. LIquid Liquid Liquid Solid And Gas Solid Equilibrium;11.10;11.10. The experimental determination of LSE;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2230;11. LIquid Liquid Liquid Solid And Gas Solid Equilibrium;11.11;11.11. The experimental determination of LSE;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2230;11. LIquid Liquid Liquid Solid And Gas Solid Equilibrium;11.12;11.12. Estimation of the activity coefficients;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2230;11. LIquid Liquid Liquid Solid And Gas Solid Equilibrium;11.13;11.13. Solubility of NaCl in water;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2230;11. LIquid Liquid Liquid Solid And Gas Solid Equilibrium;11.14;11.14. Gas solid equilibrium at low pressures;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2230;11. LIquid Liquid Liquid Solid And Gas Solid Equilibrium;11.15;11.15. GSE at high pressures;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2230;11. LIquid Liquid Liquid Solid And Gas Solid Equilibrium;11.2;11.2. Reporting and presenting LLE data;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2230;11. LIquid Liquid Liquid Solid And Gas Solid Equilibrium;11.3;11.3. ternary LLE;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2230;11. LIquid Liquid Liquid Solid And Gas Solid Equilibrium;11.4;11.4. The elementary theory of LLE;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2230;11. LIquid Liquid Liquid Solid And Gas Solid Equilibrium;11.5;11.5. Plot of the Gibbs free energy vs mole fraction;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2230;11. LIquid Liquid Liquid Solid And Gas Solid Equilibrium;11.6;11.6. Two liquid phase;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2230;11. LIquid Liquid Liquid Solid And Gas Solid Equilibrium;11.7;11.7. Effect of temperature on LLE;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2230;11. LIquid Liquid Liquid Solid And Gas Solid Equilibrium;11.8;11.8. Effect of temperature on LLE;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2230;11. LIquid Liquid Liquid Solid And Gas Solid Equilibrium;11.9;11.9. Distribution coefficients;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2232;12. Chemical Equilibrium;12.1;12.1. Gibbs free energy;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2232;12. Chemical Equilibrium;12.10;12.10. Ideal solution of ideal gases;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2232;12. Chemical Equilibrium;12.11;12.11. Non ideal solution non ideal gases;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2232;12. Chemical Equilibrium;12.12;12.12. Liquids and solids;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2232;12. Chemical Equilibrium;12.13;12.13. Equilibrium constant Kp;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2232;12. Chemical Equilibrium;12.2;12.2. Calculation of the Equilibrium constants;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2232;12. Chemical Equilibrium;12.3;12.3. Change of reactant concentration;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2232;12. Chemical Equilibrium;12.4;12.4. Mass action law;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2232;12. Chemical Equilibrium;12.5;12.5. Mass action law;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2232;12. Chemical Equilibrium;12.6;12.6. Reversible reaction;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2232;12. Chemical Equilibrium;12.7;12.7. Standard state Gibbs free energy;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2232;12. Chemical Equilibrium;12.8;12.8. Effect of temperature on chemical reaction equilibrium;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2232;12. Chemical Equilibrium;12.9;12.9. Equilibrium conversion of a mixture;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2234;13. Equilibrium In Complex Chemical Reactions;13.1;13.1. Reactions Involving Ions;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2234;13. Equilibrium In Complex Chemical Reactions;13.10;13.10. Dimerization;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2234;13. Equilibrium In Complex Chemical Reactions;13.11;13.11. Dimerization;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2234;13. Equilibrium In Complex Chemical Reactions;13.12;13.12. Dimerization;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2234;13. Equilibrium In Complex Chemical Reactions;13.2;13.2. Sequential reactions;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2234;13. Equilibrium In Complex Chemical Reactions;13.3;13.3. Simultaneous reactions;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2234;13. Equilibrium In Complex Chemical Reactions;13.4;13.4. Solubility product;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2234;13. Equilibrium In Complex Chemical Reactions;13.5;13.5. Gas liquid reactions;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2234;13. Equilibrium In Complex Chemical Reactions;13.6;13.6. Gas liquid reactions;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2234;13. Equilibrium In Complex Chemical Reactions;13.7;13.7. Electrochemical reactions;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2234;13. Equilibrium In Complex Chemical Reactions;13.8;13.8. Electrochemical reactions;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2234;13. Equilibrium In Complex Chemical Reactions;13.9;13.9. Electrochemical reactions;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2235;14. Equilibrium With Gravity Or Centrifugal Force Osmotic Equilibrium Equilibrium With Surface Tension;14.1;14.1. Equilibrium in the presence of gravity;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2235;14. Equilibrium With Gravity Or Centrifugal Force Osmotic Equilibrium Equilibrium With Surface Tension;14.2;14.2. Equilibrium in the presence of gravity;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2235;14. Equilibrium With Gravity Or Centrifugal Force Osmotic Equilibrium Equilibrium With Surface Tension;14.3;14.3. Equilibrium in the presence of gravity;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2235;14. Equilibrium With Gravity Or Centrifugal Force Osmotic Equilibrium Equilibrium With Surface Tension;14.4;14.4. Centrifuges;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2235;14. Equilibrium With Gravity Or Centrifugal Force Osmotic Equilibrium Equilibrium With Surface Tension;14.5;14.5. Osmotic Pressure;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2235;14. Equilibrium With Gravity Or Centrifugal Force Osmotic Equilibrium Equilibrium With Surface Tension;14.6;14.6. Pressure difference across a droplet;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2235;14. Equilibrium With Gravity Or Centrifugal Force Osmotic Equilibrium Equilibrium With Surface Tension;14.7;14.7. Equilibrium with surface tension;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2235;14. Equilibrium With Gravity Or Centrifugal Force Osmotic Equilibrium Equilibrium With Surface Tension;14.8;14.8. Equilibrium with surface tension;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2235;14. Equilibrium With Gravity Or Centrifugal Force Osmotic Equilibrium Equilibrium With Surface Tension;14.9;14.9. Equilibrium with surface tension;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2236;15. The Phase Rule;15.1;15.1. Phase rule;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2236;15. The Phase Rule;15.2;15.2. Two component system;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2236;15. The Phase Rule;15.3;15.3. Degree of freedom and number of components;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2236;15. The Phase Rule;15.4;15.4. Number of components in a reactions;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2236;15. The Phase Rule;15.5;15.5. Degree of freedom and Phases;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2236;15. The Phase Rule;15.6;15.6. Number of components in ionic reaction;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2236;15. The Phase Rule;15.7;15.7. Dependency of the number of components;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2236;15. The Phase Rule;15.8;15.8. A formal way to find the number of the indepedent equations;correct;runtime; -593;Physical And Chemical Equilibrium For Chemical Engineers(N. de Nevers);2236;15. The Phase Rule;15.9;15.9. Isothermal behaviour of the given reaction set;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.1.a;2.1.a. diffusivity of nitrogen carbondioxide mixture;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.1.b;2.1.b. diffusivity of hydrogen chloride mixture;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.10.a;2.10.a. rate of mass transfer;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.10.b;2.10.b. partial pressure of co2;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.11.a;2.11.a. diffusion flux if N2 is non diffusing;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.11.b;2.11.b. diffusion flux of oxygen;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.12;2.12. diffusion flux through inert air;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.13;2.13. diffusion rate of acetic acid;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.14;2.14. diffusion flux of nitrogen;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.15;2.15. diffusion rate of loss of benzene;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.16;2.16. rate of diffusion of alcohol water vapour mixture;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.17;2.17. diffusion rate of ammonia;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.18;2.18. rate of evaporation;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.19;2.19. diffusivity of the mixture in stefan tube of toluene in air;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.2;2.2. the diffusivity of isoamyl alcohol;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.20;2.20. diffusion flux of a mixture of benzene and toluene;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.21;2.21. diffusivity of the mixture in stefan tube;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.22;2.22. diffusivity of ccl4;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.23;2.23. rate of transfer of nitrogen and hydrogen;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.24;2.24. diffusivity of methanol in carbon tetrachloride;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.25;2.25. diffusivity of methanol in water;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.26;2.26. rate of passage of hydrogen;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.3;2.3. diffusivity of ccl4 through oxygen;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.4;2.4. rate at which crystal dissolves;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.5.a;2.5.a. rate of diffusion of alcohol water vapour mixture;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.5.b;2.5.b. rate of diffusion if water layer is stagnant;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.6;2.6. rate of loss of hydrogen;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.7;2.7. ammonia diffusion through nitrogen;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.8;2.8. rate at which crystal dissolves;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1648;2. Diffusion;2.9;2.9. diffusion rate of acetic acid;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1656;3. Mass transfer coefficient and interphase mass transfer;3.1;3.1. rate of sublimation;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1656;3. Mass transfer coefficient and interphase mass transfer;3.2;3.2. rate of sublimation of solid naphthalene;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1656;3. Mass transfer coefficient and interphase mass transfer;3.3;3.3. rate of absorption and mass transfer coefficient;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1656;3. Mass transfer coefficient and interphase mass transfer;3.4;3.4. mass transfer coefficient and film thickness;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1656;3. Mass transfer coefficient and interphase mass transfer;3.5;3.5. value of liquid and gas film coefficient;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1656;3. Mass transfer coefficient and interphase mass transfer;3.6;3.6. concentration of ammonia and interfacial partial pressure;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1656;3. Mass transfer coefficient and interphase mass transfer;3.7;3.7. diffusivity of gas overall transfer cofficient;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1656;3. Mass transfer coefficient and interphase mass transfer;3.8;3.8. overall gas phase mass transfer flux;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1656;3. Mass transfer coefficient and interphase mass transfer;3.9;3.9. concentration of acid at outlet;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1661;5. Humidification;5.1;5.1. properties through humidity chart;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1661;5. Humidification;5.10;5.10. Calculation of film coefficient and make up water;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1661;5. Humidification;5.11;5.11. Calculation of the make up water needed and the velocity of air;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1661;5. Humidification;5.12;5.12. Calculation of the length of the chamber;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1661;5. Humidification;5.2;5.2. properties if DBT is 25 and WBT is 22;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1661;5. Humidification;5.3;5.3. properties of nitrogen oxygen vapour mixture;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1661;5. Humidification;5.4;5.4. properties at a temperature of 60 degree celcius;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1661;5. Humidification;5.5;5.5. properties if DBT is 30 and WBT is 25;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1661;5. Humidification;5.6;5.6. properties when dry bulb temperature is 55;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1661;5. Humidification;5.7;5.7. Calculation of final temperature;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1661;5. Humidification;5.8;5.8. Calculation of molal humidity;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1661;5. Humidification;5.9;5.9. Calculation of relative humidity and humid volume;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.1;6.1. Calculation of the solid temp;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.10;6.10. time for drying the moist material;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.11;6.11. time for drying the slab from 65 to 30 percent;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.12;6.12. time for drying the slab;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.13;6.13. time for drying the filter cake;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.14;6.14. time for drying the sheets;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.15;6.15. heater load per unit mass of dry air;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.16;6.16. surface area of the roller;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.17;6.17. time for drying the sheets;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.2;6.2. time for drying;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.3.a;6.3.a. plots of drying rate curve;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.3.b;6.3.b. total time for drying;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.4;6.4. time for drying the sheets;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.5.a;6.5.a. Calculation and plot of drying rates;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.5.b;6.5.b. amount of air required;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.5.c;6.5.c. actual time of the falling peroid;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.6;6.6. time saved in drying;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.7;6.7. time for drying the sheets from 30 to 6 percent;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.8.a;6.8.a. time for drying the material;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.8.b;6.8.b. time saved if air velocity is increased;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1662;6. Drying;6.9;6.9. time for drying the fibreboard;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1673;7. Crystallisation;7.1;7.1. total weight of the solution;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1673;7. Crystallisation;7.10;7.10. weight of Na2CO3hydrate needed to dissolve Na2CO3;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1673;7. Crystallisation;7.11;7.11. weight of Na2CO3 hydrated formed;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1673;7. Crystallisation;7.12;7.12. feed rate of FeSO4 hydrated crystal produced per hour;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1673;7. Crystallisation;7.13;7.13. cooling water requirement;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1673;7. Crystallisation;7.2;7.2. percentage saturation and yield;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1673;7. Crystallisation;7.3;7.3. temperature to which solution should be cooled;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1673;7. Crystallisation;7.4;7.4. percentage saturation and yield;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1673;7. Crystallisation;7.5;7.5. the weight of Na2SO4 hydrate crystal;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1673;7. Crystallisation;7.6;7.6. percentage yield of Na2CO3 hydrated crysta;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1673;7. Crystallisation;7.7;7.7. percentage yield of K2CO3 hydrated crystal;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1673;7. Crystallisation;7.8;7.8. percentage yield FeSO4 hydrate crystal;correct;runtime; -599;Elements Of Mass Transfer (Part 1)(N. Anantharaman And K. M. M. S. Begum);1673;7. Crystallisation;7.9;7.9. percentage saturation and weight of Cesium chloride crystal;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1671;2. communication systems;2.1;2.1. 1;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1671;2. communication systems;2.10;2.10. 10;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1671;2. communication systems;2.11;2.11. 11;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1671;2. communication systems;2.12;2.12. 12;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1671;2. communication systems;2.13;2.13. 13;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1671;2. communication systems;2.14;2.14. 14;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1671;2. communication systems;2.15;2.15. 15;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1671;2. communication systems;2.2;2.2. 2;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1671;2. communication systems;2.3;2.3. 3;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1671;2. communication systems;2.4;2.4. 4;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1671;2. communication systems;2.5;2.5. 5;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1671;2. communication systems;2.6;2.6. 6;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1671;2. communication systems;2.7;2.7. 7;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1671;2. communication systems;2.8;2.8. 8;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1671;2. communication systems;2.9;2.9. 9;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1679;3. transmission lines;3.1;3.1. 1;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1679;3. transmission lines;3.10;3.10. 10;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1679;3. transmission lines;3.11;3.11. 11;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1679;3. transmission lines;3.12;3.12. 12;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1679;3. transmission lines;3.13;3.13. 13;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1679;3. transmission lines;3.14;3.14. 14;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1679;3. transmission lines;3.15;3.15. 15;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1679;3. transmission lines;3.2;3.2. 2;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1679;3. transmission lines;3.3;3.3. 3;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1679;3. transmission lines;3.5;3.5. 5;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1679;3. transmission lines;3.6;3.6. 6;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1679;3. transmission lines;3.7;3.7. 7;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1679;3. transmission lines;3.8;3.8. 8;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1679;3. transmission lines;3.9;3.9. 9;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1778;4. electromagnetic fields and waves;4.10;4.10. 10;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1778;4. electromagnetic fields and waves;4.11;4.11. 11;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1778;4. electromagnetic fields and waves;4.12;4.12. 12;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1778;4. electromagnetic fields and waves;4.3;4.3. 3;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1778;4. electromagnetic fields and waves;4.4;4.4. 4;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1778;4. electromagnetic fields and waves;4.5;4.5. 5;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1778;4. electromagnetic fields and waves;4.6;4.6. 6;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1778;4. electromagnetic fields and waves;4.7;4.7. 7;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1720;5. resonant circuits;5.1;5.1. 1;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1720;5. resonant circuits;5.10;5.10. 10;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1720;5. resonant circuits;5.2;5.2. 2;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1720;5. resonant circuits;5.3;5.3. 3;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1720;5. resonant circuits;5.5;5.5. 5;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1720;5. resonant circuits;5.6;5.6. 6;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1720;5. resonant circuits;5.7;5.7. 7;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1720;5. resonant circuits;5.8;5.8. 8;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1720;5. resonant circuits;5.9;5.9. 9;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1744;6. impedance matching networks;6.1;6.1. 1;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1744;6. impedance matching networks;6.10;6.10. 10;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1744;6. impedance matching networks;6.3;6.3. 3;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1744;6. impedance matching networks;6.5;6.5. 5;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1744;6. impedance matching networks;6.6;6.6. 6;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1744;6. impedance matching networks;6.7;6.7. 7;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1744;6. impedance matching networks;6.8;6.8. 8;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1744;6. impedance matching networks;6.9;6.9. 9;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1745;7. impedance transformers;7.1;7.1. 1;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1745;7. impedance transformers;7.5;7.5. 5;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1746;8. two port networks;8.1;8.1. 1;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1746;8. two port networks;8.10;8.10. 10;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1746;8. two port networks;8.14;8.14. 14;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1746;8. two port networks;8.17;8.17. 17;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1746;8. two port networks;8.19;8.19. 19;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1746;8. two port networks;8.2;8.2. 2;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1746;8. two port networks;8.3;8.3. 3;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1746;8. two port networks;8.5;8.5. 5;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1746;8. two port networks;8.6;8.6. 6;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1746;8. two port networks;8.7;8.7. 7;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1746;8. two port networks;8.9;8.9. 9;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1783;9. filter design;9.10;9.10. 10;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1783;9. filter design;9.11;9.11. 11;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1783;9. filter design;9.12;9.12. 12;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1783;9. filter design;9.13;9.13. 13;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1783;9. filter design;9.2;9.2. 2;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1783;9. filter design;9.3;9.3. 3;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1783;9. filter design;9.4;9.4. 4;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1783;9. filter design;9.5;9.5. 5;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1783;9. filter design;9.6;9.6. 6;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1783;9. filter design;9.7;9.7. 7;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1783;9. filter design;9.8;9.8. 8;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1783;9. filter design;9.9;9.9. 9;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1788;10. signal flow graphs and their applications;10.10;10.10. 10;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1788;10. signal flow graphs and their applications;10.11;10.11. 11;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1765;11. transistor amplifier design;11.1;11.1. 1;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1765;11. transistor amplifier design;11.2;11.2. 2;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1765;11. transistor amplifier design;11.3;11.3. 3;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1765;11. transistor amplifier design;11.4;11.4. 4;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1765;11. transistor amplifier design;11.5;11.5. 5;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1765;11. transistor amplifier design;11.6;11.6. 6;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1767;12. oscillator design;12.1;12.1. 1;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1767;12. oscillator design;12.11;12.11. 11;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1767;12. oscillator design;12.12;12.12. 12;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1767;12. oscillator design;12.13;12.13. 13;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1767;12. oscillator design;12.2;12.2. 2;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1767;12. oscillator design;12.4;12.4. 4;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1767;12. oscillator design;12.5;12.5. 5;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1767;12. oscillator design;12.6;12.6. 6;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1767;12. oscillator design;12.7;12.7. 7;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1767;12. oscillator design;12.8;12.8. 8;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1777;13. detectors and mixers;13.1;13.1. 1;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1777;13. detectors and mixers;13.2;13.2. 2;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1777;13. detectors and mixers;13.3;13.3. 3;correct;runtime; -605;Radio - Frequency And Microwave Communication Circuits(D. K. Mishra);1777;13. detectors and mixers;13.5;13.5. 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1528;1. Units associated with basic electrical quantities;1.01;1.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1528;1. Units associated with basic electrical quantities;1.02;1.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1528;1. Units associated with basic electrical quantities;1.03;1.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1528;1. Units associated with basic electrical quantities;1.04;1.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1528;1. Units associated with basic electrical quantities;1.05;1.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1528;1. Units associated with basic electrical quantities;1.06;1.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1528;1. Units associated with basic electrical quantities;1.07;1.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1528;1. Units associated with basic electrical quantities;1.08;1.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1530;2. An introduction to electric circuits;2.01;2.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1530;2. An introduction to electric circuits;2.02;2.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1530;2. An introduction to electric circuits;2.03;2.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1530;2. An introduction to electric circuits;2.04;2.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1530;2. An introduction to electric circuits;2.05;2.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1530;2. An introduction to electric circuits;2.06;2.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1530;2. An introduction to electric circuits;2.07;2.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1530;2. An introduction to electric circuits;2.08;2.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1530;2. An introduction to electric circuits;2.09;2.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1530;2. An introduction to electric circuits;2.10;2.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1530;2. An introduction to electric circuits;2.11;2.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1530;2. An introduction to electric circuits;2.12;2.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1530;2. An introduction to electric circuits;2.13;2.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1530;2. An introduction to electric circuits;2.14;2.14. Example 14;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1530;2. An introduction to electric circuits;2.15;2.15. Example 15;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1530;2. An introduction to electric circuits;2.16;2.16. Example 16;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1530;2. An introduction to electric circuits;2.17;2.17. Example 17;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1530;2. An introduction to electric circuits;2.18;2.18. Example 18;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1530;2. An introduction to electric circuits;2.19;2.19. Example 19;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1531;3. Resistance variation;3.01;3.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1531;3. Resistance variation;3.02;3.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1531;3. Resistance variation;3.03;3.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1531;3. Resistance variation;3.04;3.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1531;3. Resistance variation;3.05;3.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1531;3. Resistance variation;3.06;3.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1531;3. Resistance variation;3.07;3.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1531;3. Resistance variation;3.08;3.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1531;3. Resistance variation;3.09;3.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1531;3. Resistance variation;3.10;3.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1531;3. Resistance variation;3.11;3.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1531;3. Resistance variation;3.12;3.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1531;3. Resistance variation;3.13;3.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1532;4. Chemical effects of electricity;4.01;4.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1532;4. Chemical effects of electricity;4.02;4.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1532;4. Chemical effects of electricity;4.03;4.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1532;4. Chemical effects of electricity;4.04;4.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1533;5. Series and parallel networks;5.01;5.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1533;5. Series and parallel networks;5.02;5.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1533;5. Series and parallel networks;5.03;5.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1533;5. Series and parallel networks;5.04;5.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1533;5. Series and parallel networks;5.05;5.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1533;5. Series and parallel networks;5.06;5.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1533;5. Series and parallel networks;5.07;5.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1533;5. Series and parallel networks;5.08;5.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1533;5. Series and parallel networks;5.10;5.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1533;5. Series and parallel networks;5.11;5.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1533;5. Series and parallel networks;5.12;5.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1533;5. Series and parallel networks;5.13;5.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1533;5. Series and parallel networks;5.14;5.14. Example 14;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1533;5. Series and parallel networks;5.15;5.15. Example 15;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1534;6. Capacitors and capacitance;6.01;6.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1534;6. Capacitors and capacitance;6.02;6.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1534;6. Capacitors and capacitance;6.03;6.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1534;6. Capacitors and capacitance;6.04;6.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1534;6. Capacitors and capacitance;6.05;6.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1534;6. Capacitors and capacitance;6.06;6.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1534;6. Capacitors and capacitance;6.07;6.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1534;6. Capacitors and capacitance;6.08;6.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1534;6. Capacitors and capacitance;6.09;6.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1534;6. Capacitors and capacitance;6.10;6.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1534;6. Capacitors and capacitance;6.11;6.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1534;6. Capacitors and capacitance;6.12;6.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1534;6. Capacitors and capacitance;6.13;6.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1534;6. Capacitors and capacitance;6.14;6.14. Example 14;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1534;6. Capacitors and capacitance;6.15;6.15. Example 15;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1534;6. Capacitors and capacitance;6.16;6.16. Example 16;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1534;6. Capacitors and capacitance;6.17;6.17. Example 17;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1535;7. Magnetic circuits;7.01;7.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1535;7. Magnetic circuits;7.02;7.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1535;7. Magnetic circuits;7.03;7.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1535;7. Magnetic circuits;7.04;7.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1535;7. Magnetic circuits;7.05;7.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1535;7. Magnetic circuits;7.06;7.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1535;7. Magnetic circuits;7.07;7.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1535;7. Magnetic circuits;7.08;7.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1535;7. Magnetic circuits;7.09;7.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1535;7. Magnetic circuits;7.10;7.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1535;7. Magnetic circuits;7.11;7.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1535;7. Magnetic circuits;7.12;7.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1535;7. Magnetic circuits;7.13;7.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1535;7. Magnetic circuits;7.14;7.14. Example 14;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1536;8. Electromagnetism;8.02;8.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1536;8. Electromagnetism;8.03;8.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1536;8. Electromagnetism;8.04;8.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1536;8. Electromagnetism;8.06;8.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1536;8. Electromagnetism;8.07;8.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1538;9. Electromagnetic induction;9.01;9.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1538;9. Electromagnetic induction;9.02;9.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1538;9. Electromagnetic induction;9.03;9.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1538;9. Electromagnetic induction;9.04;9.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1538;9. Electromagnetic induction;9.06;9.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1538;9. Electromagnetic induction;9.07;9.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1538;9. Electromagnetic induction;9.08;9.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1538;9. Electromagnetic induction;9.09;9.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1538;9. Electromagnetic induction;9.10;9.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1538;9. Electromagnetic induction;9.11;9.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1538;9. Electromagnetic induction;9.12;9.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1538;9. Electromagnetic induction;9.13;9.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1538;9. Electromagnetic induction;9.14;9.14. Example 14;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1538;9. Electromagnetic induction;9.15;9.15. Example 15;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1538;9. Electromagnetic induction;9.16;9.16. Example 16;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1542;10. Electrical measuring instruments and measurements;10.01;10.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1542;10. Electrical measuring instruments and measurements;10.02;10.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1542;10. Electrical measuring instruments and measurements;10.03;10.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1542;10. Electrical measuring instruments and measurements;10.04;10.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1542;10. Electrical measuring instruments and measurements;10.05;10.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1542;10. Electrical measuring instruments and measurements;10.06;10.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1542;10. Electrical measuring instruments and measurements;10.08;10.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1542;10. Electrical measuring instruments and measurements;10.09;10.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1542;10. Electrical measuring instruments and measurements;10.10;10.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1542;10. Electrical measuring instruments and measurements;10.11;10.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1542;10. Electrical measuring instruments and measurements;10.12;10.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1542;10. Electrical measuring instruments and measurements;10.13;10.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1542;10. Electrical measuring instruments and measurements;10.14;10.14. Example 14;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1542;10. Electrical measuring instruments and measurements;10.15;10.15. Example 15;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1542;10. Electrical measuring instruments and measurements;10.16;10.16. Example 16;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1542;10. Electrical measuring instruments and measurements;10.17;10.17. Example 17;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1542;10. Electrical measuring instruments and measurements;10.18;10.18. Example 18;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1542;10. Electrical measuring instruments and measurements;10.19;10.19. Example 19;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1542;10. Electrical measuring instruments and measurements;10.20;10.20. Example 20;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1542;10. Electrical measuring instruments and measurements;10.21;10.21. Example 21;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1543;13. DC circuit theory;13.01;13.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1543;13. DC circuit theory;13.06;13.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1543;13. DC circuit theory;13.07;13.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1543;13. DC circuit theory;13.08;13.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1543;13. DC circuit theory;13.09;13.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1543;13. DC circuit theory;13.10;13.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1543;13. DC circuit theory;13.11;13.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1543;13. DC circuit theory;13.12;13.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1543;13. DC circuit theory;13.13;13.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1543;13. DC circuit theory;13.14;13.14. Example 14;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1543;13. DC circuit theory;13.15;13.15. Example 15;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1543;13. DC circuit theory;13.18;13.18. Example 18;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1543;13. DC circuit theory;13.19;13.19. Example 19;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1543;13. DC circuit theory;13.20;13.20. Example 20;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1543;13. DC circuit theory;13.21;13.21. Example 21;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1543;13. DC circuit theory;13.22;13.22. Example 22;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1544;14. Alternating voltages and currents;14.01;14.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1544;14. Alternating voltages and currents;14.02;14.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1544;14. Alternating voltages and currents;14.03;14.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1544;14. Alternating voltages and currents;14.04;14.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1544;14. Alternating voltages and currents;14.06;14.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1544;14. Alternating voltages and currents;14.07;14.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1544;14. Alternating voltages and currents;14.08;14.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1544;14. Alternating voltages and currents;14.09;14.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1544;14. Alternating voltages and currents;14.10;14.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1544;14. Alternating voltages and currents;14.12;14.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.01;15.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.02;15.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.03;15.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.04;15.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.05;15.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.06;15.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.07;15.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.08;15.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.09;15.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.10;15.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.11;15.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.12;15.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.13;15.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.14;15.14. Example 14;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.15;15.15. Example 15;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.16;15.16. Example 16;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.17;15.17. Example 17;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.18;15.18. Example 18;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.19;15.19. Example 19;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.20;15.20. Example 20;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.21;15.21. Example 21;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.22;15.22. Example 22;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.23;15.23. Example 23;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.24;15.24. Example 24;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.25;15.25. Example 25;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.26;15.26. Example 26;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.27;15.27. Example 27;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.28;15.28. Example 28;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1545;15. Single phase series ac circuits;15.29;15.29. Example 29;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1547;16. Single phase parallel ac circuits;16.01;16.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1547;16. Single phase parallel ac circuits;16.02;16.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1547;16. Single phase parallel ac circuits;16.03;16.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1547;16. Single phase parallel ac circuits;16.04;16.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1547;16. Single phase parallel ac circuits;16.05;16.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1547;16. Single phase parallel ac circuits;16.06;16.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1547;16. Single phase parallel ac circuits;16.07;16.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1547;16. Single phase parallel ac circuits;16.08;16.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1547;16. Single phase parallel ac circuits;16.09;16.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1547;16. Single phase parallel ac circuits;16.10;16.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1547;16. Single phase parallel ac circuits;16.11;16.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1547;16. Single phase parallel ac circuits;16.12;16.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1547;16. Single phase parallel ac circuits;16.13;16.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1548;17. DC transients;17.01;17.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1548;17. DC transients;17.02;17.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1548;17. DC transients;17.03;17.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1548;17. DC transients;17.04;17.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1548;17. DC transients;17.05;17.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1548;17. DC transients;17.06;17.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1548;17. DC transients;17.07;17.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1548;17. DC transients;17.08;17.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1548;17. DC transients;17.09;17.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1548;17. DC transients;17.10;17.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1548;17. DC transients;17.11;17.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1548;17. DC transients;17.12;17.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1549;18. Operational amplifiers;18.01;18.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1549;18. Operational amplifiers;18.02;18.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1549;18. Operational amplifiers;18.03;18.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1549;18. Operational amplifiers;18.04;18.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1549;18. Operational amplifiers;18.05;18.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1549;18. Operational amplifiers;18.06;18.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1549;18. Operational amplifiers;18.07;18.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1549;18. Operational amplifiers;18.08;18.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1549;18. Operational amplifiers;18.10;18.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1549;18. Operational amplifiers;18.11;18.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1550;19. Three phase systems;19.01;19.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1550;19. Three phase systems;19.02;19.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1550;19. Three phase systems;19.04;19.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1550;19. Three phase systems;19.05;19.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1550;19. Three phase systems;19.06;19.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1550;19. Three phase systems;19.07;19.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1550;19. Three phase systems;19.08;19.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1550;19. Three phase systems;19.09;19.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1550;19. Three phase systems;19.10;19.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1550;19. Three phase systems;19.11;19.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1550;19. Three phase systems;19.13;19.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1550;19. Three phase systems;19.14;19.14. Example 14;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1550;19. Three phase systems;19.15;19.15. Example 15;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1550;19. Three phase systems;19.16;19.16. Example 16;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1550;19. Three phase systems;19.17;19.17. Example 17;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1550;19. Three phase systems;19.18;19.18. Example 18;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.01;20.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.02;20.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.03;20.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.04;20.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.05;20.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.06;20.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.07;20.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.08;20.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.09;20.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.10;20.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.11;20.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.12;20.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.13;20.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.14;20.14. Example 14;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.15;20.15. Example 15;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.16;20.16. Example 16;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.17;20.17. Example 17;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.18;20.18. Example 18;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.19;20.19. Example 19;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.20;20.20. Example 20;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.21;20.21. Example 21;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.22;20.22. Example 22;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.23;20.23. Example 23;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.24;20.24. Example 24;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.25;20.25. Example 25;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.26;20.26. Example 26;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.27;20.27. Example 27;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1551;20. Transformers;20.28;20.28. Example 28;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.01;21.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.02;21.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.03;21.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.04;21.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.06;21.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.07;21.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.08;21.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.09;21.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.10;21.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.11;21.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.12;21.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.13;21.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.14;21.14. Example 14;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.15;21.15. Example 15;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.16;21.16. Example 16;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.17;21.17. Example 17;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.18;21.18. Example 18;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.19;21.19. Example 19;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.20;21.20. Example 20;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.21;21.21. Example 21;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.22;21.22. Example 22;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.23;21.23. Example 23;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.24;21.24. Example 24;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.25;21.25. Example 25;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.26;21.26. Example 26;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.27;21.27. Example 27;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.28;21.28. Example 28;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.29;21.29. Example 29;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1571;21. DC machines;21.30;21.30. Example 30;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1572;22. Three phase induction motors;22.01;22.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1572;22. Three phase induction motors;22.02;22.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1572;22. Three phase induction motors;22.03;22.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1572;22. Three phase induction motors;22.04;22.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1572;22. Three phase induction motors;22.05;22.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1572;22. Three phase induction motors;22.06;22.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1572;22. Three phase induction motors;22.07;22.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1572;22. Three phase induction motors;22.08;22.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1572;22. Three phase induction motors;22.09;22.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1572;22. Three phase induction motors;22.10;22.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1572;22. Three phase induction motors;22.11;22.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1572;22. Three phase induction motors;22.12;22.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1572;22. Three phase induction motors;22.13;22.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1573;23. Revision of complex numbers;23.01;23.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1573;23. Revision of complex numbers;23.02;23.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1573;23. Revision of complex numbers;23.03;23.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1573;23. Revision of complex numbers;23.05;23.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1573;23. Revision of complex numbers;23.06;23.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1573;23. Revision of complex numbers;23.07;23.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1573;23. Revision of complex numbers;23.08;23.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1574;24. Application of complex numbers to series ac circuits;24.01;24.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1574;24. Application of complex numbers to series ac circuits;24.02;24.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1574;24. Application of complex numbers to series ac circuits;24.03;24.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1574;24. Application of complex numbers to series ac circuits;24.04;24.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1574;24. Application of complex numbers to series ac circuits;24.05;24.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1574;24. Application of complex numbers to series ac circuits;24.06;24.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1574;24. Application of complex numbers to series ac circuits;24.07;24.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1574;24. Application of complex numbers to series ac circuits;24.08;24.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1574;24. Application of complex numbers to series ac circuits;24.09;24.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1574;24. Application of complex numbers to series ac circuits;24.10;24.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1574;24. Application of complex numbers to series ac circuits;24.11;24.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1574;24. Application of complex numbers to series ac circuits;24.12;24.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1575;25. Application of complex numbers to parallel ac networks;25.01;25.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1575;25. Application of complex numbers to parallel ac networks;25.02;25.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1575;25. Application of complex numbers to parallel ac networks;25.03;25.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1575;25. Application of complex numbers to parallel ac networks;25.04;25.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1575;25. Application of complex numbers to parallel ac networks;25.05;25.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1575;25. Application of complex numbers to parallel ac networks;25.06;25.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1575;25. Application of complex numbers to parallel ac networks;25.07;25.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1575;25. Application of complex numbers to parallel ac networks;25.08;25.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1576;26. Power in ac circuits;26.01;26.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1576;26. Power in ac circuits;26.02;26.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1576;26. Power in ac circuits;26.03;26.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1576;26. Power in ac circuits;26.04;26.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1576;26. Power in ac circuits;26.05;26.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1576;26. Power in ac circuits;26.06;26.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1576;26. Power in ac circuits;26.07;26.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1577;27. AC bridges;27.02;27.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1577;27. AC bridges;27.03;27.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1578;28. Series resonance and Q factor;28.01;28.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1578;28. Series resonance and Q factor;28.02;28.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1578;28. Series resonance and Q factor;28.03;28.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1578;28. Series resonance and Q factor;28.04;28.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1578;28. Series resonance and Q factor;28.05;28.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1578;28. Series resonance and Q factor;28.06;28.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1578;28. Series resonance and Q factor;28.07;28.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1578;28. Series resonance and Q factor;28.08;28.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1578;28. Series resonance and Q factor;28.09;28.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1578;28. Series resonance and Q factor;28.10;28.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1578;28. Series resonance and Q factor;28.11;28.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1579;29. Parallel resonance and Q factor;29.01;29.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1579;29. Parallel resonance and Q factor;29.02;29.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1579;29. Parallel resonance and Q factor;29.03;29.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1579;29. Parallel resonance and Q factor;29.04;29.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1579;29. Parallel resonance and Q factor;29.05;29.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1579;29. Parallel resonance and Q factor;29.06;29.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1579;29. Parallel resonance and Q factor;29.07;29.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1580;30. Introduction to network analysis;30.01;30.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1580;30. Introduction to network analysis;30.02;30.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1580;30. Introduction to network analysis;30.03;30.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1580;30. Introduction to network analysis;30.04;30.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1581;31. Mesh current and nodal analysis;31.01;31.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1581;31. Mesh current and nodal analysis;31.02;31.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1581;31. Mesh current and nodal analysis;31.03;31.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1581;31. Mesh current and nodal analysis;31.04;31.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1581;31. Mesh current and nodal analysis;31.05;31.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1581;31. Mesh current and nodal analysis;31.06;31.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1581;31. Mesh current and nodal analysis;31.07;31.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1581;31. Mesh current and nodal analysis;31.08;31.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1581;31. Mesh current and nodal analysis;31.09;31.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1582;32. The superposition theorem;32.01;32.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1582;32. The superposition theorem;32.02;32.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1582;32. The superposition theorem;32.03;32.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1582;32. The superposition theorem;32.04;32.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1582;32. The superposition theorem;32.05;32.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1583;33. Thevenins and Nortons theorems;33.01;33.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1583;33. Thevenins and Nortons theorems;33.02;33.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1583;33. Thevenins and Nortons theorems;33.03;33.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1583;33. Thevenins and Nortons theorems;33.04;33.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1583;33. Thevenins and Nortons theorems;33.05;33.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1583;33. Thevenins and Nortons theorems;33.06;33.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1583;33. Thevenins and Nortons theorems;33.07;33.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1583;33. Thevenins and Nortons theorems;33.08;33.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1583;33. Thevenins and Nortons theorems;33.09;33.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1583;33. Thevenins and Nortons theorems;33.10;33.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1583;33. Thevenins and Nortons theorems;33.11;33.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1583;33. Thevenins and Nortons theorems;33.12;33.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1583;33. Thevenins and Nortons theorems;33.13;33.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1583;33. Thevenins and Nortons theorems;33.15;33.15. Example 15;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1583;33. Thevenins and Nortons theorems;33.16;33.16. Example 16;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1583;33. Thevenins and Nortons theorems;33.17;33.17. Example 17;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1601;34. Delta star and star delta transformations;34.02;34.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1601;34. Delta star and star delta transformations;34.03;34.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1601;34. Delta star and star delta transformations;34.05;34.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1602;35. Maximum power transfer theorems and impedance matching;35.01;35.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1602;35. Maximum power transfer theorems and impedance matching;35.02;35.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1602;35. Maximum power transfer theorems and impedance matching;35.03;35.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1602;35. Maximum power transfer theorems and impedance matching;35.04;35.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1602;35. Maximum power transfer theorems and impedance matching;35.05;35.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1602;35. Maximum power transfer theorems and impedance matching;35.06;35.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1602;35. Maximum power transfer theorems and impedance matching;35.07;35.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1602;35. Maximum power transfer theorems and impedance matching;35.08;35.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1602;35. Maximum power transfer theorems and impedance matching;35.09;35.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1602;35. Maximum power transfer theorems and impedance matching;35.10;35.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1603;36. Complex Waveforms;36.03;36.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1603;36. Complex Waveforms;36.04;36.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1603;36. Complex Waveforms;36.06;36.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1603;36. Complex Waveforms;36.07;36.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1603;36. Complex Waveforms;36.09;36.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1603;36. Complex Waveforms;36.10;36.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1603;36. Complex Waveforms;36.11;36.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1603;36. Complex Waveforms;36.12;36.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1603;36. Complex Waveforms;36.13;36.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1603;36. Complex Waveforms;36.14;36.14. Example 14;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1603;36. Complex Waveforms;36.15;36.15. Example 15;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1604;38. Magnetic materials;38.01;38.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1604;38. Magnetic materials;38.02;38.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1604;38. Magnetic materials;38.03;38.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1604;38. Magnetic materials;38.04;38.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1604;38. Magnetic materials;38.05;38.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1604;38. Magnetic materials;38.06;38.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1604;38. Magnetic materials;38.07;38.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1604;38. Magnetic materials;38.08;38.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1604;38. Magnetic materials;38.10;38.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1605;39. Dielectrics and dielectric loss;39.01;39.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1605;39. Dielectrics and dielectric loss;39.02;39.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1605;39. Dielectrics and dielectric loss;39.03;39.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.01;40.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.02;40.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.03;40.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.04;40.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.05;40.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.06;40.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.07;40.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.08;40.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.09;40.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.10;40.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.11;40.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.12;40.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.13;40.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.14;40.14. Example 14;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.15;40.15. Example 15;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.16;40.16. Example 16;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.17;40.17. Example 17;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.18;40.18. Example 18;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.19;40.19. Example 19;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.20;40.20. Example 20;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.21;40.21. Example 21;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.22;40.22. Example 22;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.23;40.23. Example 23;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1606;40. Field theory;40.24;40.24. Example 24;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1607;41. Attenuators;41.01;41.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1607;41. Attenuators;41.02;41.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1607;41. Attenuators;41.03;41.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1607;41. Attenuators;41.04;41.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1607;41. Attenuators;41.05;41.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1607;41. Attenuators;41.06;41.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1607;41. Attenuators;41.07;41.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1607;41. Attenuators;41.10;41.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1607;41. Attenuators;41.11;41.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1607;41. Attenuators;41.12;41.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1607;41. Attenuators;41.13;41.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1607;41. Attenuators;41.14;41.14. Example 14;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1607;41. Attenuators;41.15;41.15. Example 15;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1607;41. Attenuators;41.16;41.16. Example 16;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1608;42. Filter networks;42.01;42.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1608;42. Filter networks;42.02;42.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1608;42. Filter networks;42.03;42.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1608;42. Filter networks;42.04;42.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1608;42. Filter networks;42.05;42.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1608;42. Filter networks;42.07;42.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1608;42. Filter networks;42.08;42.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1608;42. Filter networks;42.09;42.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1608;42. Filter networks;42.10;42.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1608;42. Filter networks;42.11;42.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1608;42. Filter networks;42.12;42.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1608;42. Filter networks;42.13;42.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1608;42. Filter networks;42.14;42.14. Example 14;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1609;43. Magnetically coupled circuits;43.01;43.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1609;43. Magnetically coupled circuits;43.02;43.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1609;43. Magnetically coupled circuits;43.03;43.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1609;43. Magnetically coupled circuits;43.04;43.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1609;43. Magnetically coupled circuits;43.05;43.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1609;43. Magnetically coupled circuits;43.06;43.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1609;43. Magnetically coupled circuits;43.07;43.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1609;43. Magnetically coupled circuits;43.08;43.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1609;43. Magnetically coupled circuits;43.09;43.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1609;43. Magnetically coupled circuits;43.10;43.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1609;43. Magnetically coupled circuits;43.11;43.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1609;43. Magnetically coupled circuits;43.12;43.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1609;43. Magnetically coupled circuits;43.13;43.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1609;43. Magnetically coupled circuits;43.14;43.14. Example 14;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1609;43. Magnetically coupled circuits;43.15;43.15. Example 15;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1609;43. Magnetically coupled circuits;43.16;43.16. Example 16;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1610;44. Transmission lines;44.01;44.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1610;44. Transmission lines;44.02;44.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1610;44. Transmission lines;44.03;44.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1610;44. Transmission lines;44.04;44.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1610;44. Transmission lines;44.05;44.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1610;44. Transmission lines;44.06;44.06. Example 6;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1610;44. Transmission lines;44.07;44.07. Example 7;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1610;44. Transmission lines;44.08;44.08. Example 8;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1610;44. Transmission lines;44.09;44.09. Example 9;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1610;44. Transmission lines;44.10;44.10. Example 10;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1610;44. Transmission lines;44.11;44.11. Example 11;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1610;44. Transmission lines;44.12;44.12. Example 12;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1610;44. Transmission lines;44.13;44.13. Example 13;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1610;44. Transmission lines;44.14;44.14. Example 14;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1610;44. Transmission lines;44.15;44.15. Example 15;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1610;44. Transmission lines;44.16;44.16. Example 16;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1610;44. Transmission lines;44.17;44.17. Example 17;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1610;44. Transmission lines;44.18;44.18. Example 18;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1611;45. Transients and Laplace transforms;45.01;45.01. Example 1;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1611;45. Transients and Laplace transforms;45.02;45.02. Example 2;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1611;45. Transients and Laplace transforms;45.03;45.03. Example 3;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1611;45. Transients and Laplace transforms;45.04;45.04. Example 4;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1611;45. Transients and Laplace transforms;45.05;45.05. Example 5;correct;runtime; -608;Electrical Circuit Theory And Technology(J. O. Bird);1611;45. Transients and Laplace transforms;45.06;45.06. Example 6;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1482;1. Introduction;1.1;1.1. weight of payload;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1482;1. Introduction;1.2;1.2. Force due to atmospheric air;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1482;1. Introduction;1.3;1.3. pressure drop;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1483;2. Review of basic concepts;2.1;2.1. work done by gas;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1483;2. Review of basic concepts;2.2;2.2. work done by gas in piston cylinder assembly;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1537;3. PvT relations of fluids;3.1;3.1. Specific volume and Specific internal energy;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1537;3. PvT relations of fluids;3.10;3.10. Acentric factor;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1537;3. PvT relations of fluids;3.11;3.11. Volume using two paramter and three parameter compressibility factor correlation;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1537;3. PvT relations of fluids;3.12;3.12. Pressure developed using two paramter compressibility factor correlation;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1537;3. PvT relations of fluids;3.13;3.13. Pressure developed using three paramter compressibility factor correlation;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1537;3. PvT relations of fluids;3.14;3.14. Volume using generalized form of the Redlich Kwong equation of state;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1537;3. PvT relations of fluids;3.15;3.15. Volume using Soave Redlich Kwong equation of state;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1537;3. PvT relations of fluids;3.16;3.16. Volume using Peng Robinson equation of state;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1537;3. PvT relations of fluids;3.2;3.2. Quality of wet steam;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1537;3. PvT relations of fluids;3.3;3.3. Volume ratio;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1537;3. PvT relations of fluids;3.4;3.4. Mass ratio;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1537;3. PvT relations of fluids;3.5;3.5. Volume using ideal gas law;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1537;3. PvT relations of fluids;3.6;3.6. Volume using van der Waals equation;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1537;3. PvT relations of fluids;3.7;3.7. Volume of liquid using van der Waals equation;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1537;3. PvT relations of fluids;3.8;3.8. Volume using Cardans method;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1537;3. PvT relations of fluids;3.9;3.9. Volume using Redlich Kwong equation of state by implementing Cardans method;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.1;4.1. Net work done by the system;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.10;4.10. Final temperature;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.11;4.11. Final temperature Pressure and work done in adiabatic process;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.12;4.12. Final temperature Pressure work done and heat interaction in polytropic process;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.13;4.13. Final temperature and amount of gas entering the tank;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.14;4.14. Final state and mass of steam that entered the tank;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.15;4.15. Final temperature and amount of gas escaping the cylinder;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.16;4.16. Percentage error;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.17;4.17. Exit velocity;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.18;4.18. Quality of wet steam;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.20;4.20. Standard enthalpy change;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.22;4.22. Standard enthalpy change for the reaction from standard enthalpies of formation;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.23;4.23. Standard enthalpy change for the reaction from standard enthalpies of formation 2;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.24;4.24. Standard enthalpy change of formation of n butane gas;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.25;4.25. Standard enthalpy change;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.26;4.26. Standard enthalpy change at 400K;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.28;4.28. Flame temperature;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.29;4.29. Amount of energy transferred as heat in the boiler;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.3;4.3. Final temperature and final pressure;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.4;4.4. Energy transferred and final state masses of liquid and vapour;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.5;4.5. Work done and energy transferred;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.6;4.6. Work done and final temperature;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.7;4.7. Amount of energy;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.8;4.8. Isobaric molar heat capacity;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1931;4. First law of thermodynamics and its applications;4.9;4.9. Amount of energy transferred using isobaric molar heat capacity;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1968;5. Second law of thermodynamics and its applications;5.10;5.10. Change in entropy of steel and water;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1968;5. Second law of thermodynamics and its applications;5.11;5.11. Entropy change of the gas;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1968;5. Second law of thermodynamics and its applications;5.12;5.12. Minimum work to be done for separation;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1968;5. Second law of thermodynamics and its applications;5.13;5.13. Change in the entropy of the mixture;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1968;5. Second law of thermodynamics and its applications;5.14;5.14. Power output of turbine;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1968;5. Second law of thermodynamics and its applications;5.15;5.15. Exit velocity of steam;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1968;5. Second law of thermodynamics and its applications;5.16;5.16. Rate at which entropy is generated;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1968;5. Second law of thermodynamics and its applications;5.17;5.17. Device and its feasibility;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1968;5. Second law of thermodynamics and its applications;5.18;5.18. Isentropic efficiency;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1968;5. Second law of thermodynamics and its applications;5.19;5.19. Power consumed by the compressor;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1968;5. Second law of thermodynamics and its applications;5.2;5.2. Inventor and the heat engine;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1968;5. Second law of thermodynamics and its applications;5.20;5.20. Power consumed by the pump;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1968;5. Second law of thermodynamics and its applications;5.21;5.21. Isentropic efficiency of nozzle;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1968;5. Second law of thermodynamics and its applications;5.3;5.3. Minimum power required;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1968;5. Second law of thermodynamics and its applications;5.4;5.4. Minimum work and maximum possible COP;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1968;5. Second law of thermodynamics and its applications;5.5;5.5. Minimum power and maximum efficiency;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1968;5. Second law of thermodynamics and its applications;5.6;5.6. Inventor and the claim;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1968;5. Second law of thermodynamics and its applications;5.7;5.7. Change in the entropy of the reactor contents;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1968;5. Second law of thermodynamics and its applications;5.8;5.8. Entropy change;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1968;5. Second law of thermodynamics and its applications;5.9;5.9. Change in entropy of water;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1969;6. Thermodynamic potentials;6.10;6.10. Maximum work obtained from steam;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1969;6. Thermodynamic potentials;6.12;6.12. Minimum power for compression;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1969;6. Thermodynamic potentials;6.6;6.6. Work done by steam;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1969;6. Thermodynamic potentials;6.8;6.8. Power output of the turbine;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1970;7. Thermodynamic property relations;7.10;7.10. Pressure at which boiler is to be operated;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1970;7. Thermodynamic property relations;7.11;7.11. The skating problem;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1970;7. Thermodynamic property relations;7.12;7.12. Enthalpy of vaporization;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1970;7. Thermodynamic property relations;7.13;7.13. Enthalpy of vaporization using Watsons correlation;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);1970;7. Thermodynamic property relations;7.14;7.14. Enthalpy of vaporization using Riedels correlation;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2178;8. Thermodynamic properties of real gases;8.10;8.10. Enthalpy and entropy departure using the generalized virial coefficient correlation;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2178;8. Thermodynamic properties of real gases;8.11;8.11. Volume Enthalpy and Entropy departure using the Peng Robinson equation of state;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2178;8. Thermodynamic properties of real gases;8.2;8.2. Enthalpy and entropy departure;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2178;8. Thermodynamic properties of real gases;8.3;8.3. Enthalpy departure using Beattie Bridgman equation of state;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2178;8. Thermodynamic properties of real gases;8.4;8.4. Entropy departure using Beattie Bridgman equation of state;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2178;8. Thermodynamic properties of real gases;8.5;8.5. Enthalpy and entropy departure using the generalized Redlich Kwong equation of state;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2178;8. Thermodynamic properties of real gases;8.6;8.6. Enthalpy and entropy departure using the SRK equation of state;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2178;8. Thermodynamic properties of real gases;8.7;8.7. Enthalpy and entropy departure using the Peng Robinson equation of state;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2178;8. Thermodynamic properties of real gases;8.8;8.8. Enthalpy and entropy departure using the Edmister charts;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2178;8. Thermodynamic properties of real gases;8.9;8.9. Enthalpy and entropy departure using the Lee Kesler data;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.1;9.1. Partial molar volume;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.10;9.10. Molar volume of an equimolar mixture using pseudocritical properties;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.11;9.11. Molar volume of mixture using Prausnitz Gunn rule;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.12;9.12. Molar volume of mixture using van der Waals equation of state;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.13;9.13. Molar volume of mixture using the generalized virial coefficient correlation;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.14;9.14. Enthalpy and entropy departure;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.15;9.15. Enthalpy and entropy departure using the generalized compressibility factor correlation;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.16;9.16. Enthalpy and entropy departure using the virial coefficient correlation;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.17;9.17. Fugacity and fugacity coefficient using van der Waals equation of state;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.18;9.18. Fugacity and fugacity coefficient using the pseudocritical constants method;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.19;9.19. Fugacity and fugacity coefficient using the virial coefficient correlation;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.2;9.2. Volumes to be mixed;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.20;9.20. Fugacity coefficients of the components in a mixture using Redlich Kwong Equation of state;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.21;9.21. Fugacity coefficients of the components in a mixture using the Virial Equation of state;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.22;9.22. Fugacity of liquid n octane;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.3;9.3. Fugacity and fugacity coefficient;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.5;9.5. Fugacity and fugacity coefficient from the Lee Kesler data;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.6;9.6. Fugacity and fugacity coefficient using the virial coefficient correlation;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.7;9.7. Second virial coefficient;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.8;9.8. van der Waals constants;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2224;9. Multicomponent mixtures;9.9;9.9. Molar volume of an equimolar mixture;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2225;10. Stability and phase transition in thermodynamic systems;10.2;10.2. Number of degrees of freedom;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2225;10. Stability and phase transition in thermodynamic systems;10.3;10.3. Vapour Pressure of n octane using the Peng Robinson equation of state;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2307;11. Properties of solutions;11.1;11.1. Pxy and Txy diagram for a Benzene Toluene system;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2307;11. Properties of solutions;11.10;11.10. Activity coefficients using the UNIQUAC equation;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2307;11. Properties of solutions;11.11;11.11. Activity coefficients using the UNIFAC method;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2307;11. Properties of solutions;11.2;11.2. Composition of liquid;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2307;11. Properties of solutions;11.3;11.3. Bubble temperature;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2307;11. Properties of solutions;11.4;11.4. Dew temperature;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2307;11. Properties of solutions;11.5;11.5. Composition of the liquid and vapor streams leaving the flash unit;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2307;11. Properties of solutions;11.7;11.7. Activity coefficients;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2307;11. Properties of solutions;11.8;11.8. van Laar constants and Activity coefficients;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2307;11. Properties of solutions;11.9;11.9. Activity coefficients using the Wilsons parameters;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2372;12. Vapor liquid Equilibrium;12.1;12.1. Margules parameters;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2372;12. Vapor liquid Equilibrium;12.2;12.2. van Laar parameters and txy data;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2372;12. Vapor liquid Equilibrium;12.3;12.3. Pxy data using the Margules parameters;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2372;12. Vapor liquid Equilibrium;12.4;12.4. Pxy data using the van Laar model;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2372;12. Vapor liquid Equilibrium;12.5;12.5. VLE data using the van Laar model;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2372;12. Vapor liquid Equilibrium;12.6;12.6. Dew pressure and liquid composition;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2372;12. Vapor liquid Equilibrium;12.7;12.7. Bubble temperature and vapour composition;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2372;12. Vapor liquid Equilibrium;12.8;12.8. Thermodynamic consistency;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2372;12. Vapor liquid Equilibrium;12.9;12.9. Temperature composition diagram;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2308;13. Dilute solution laws;13.1;13.1. Depression in freezing point;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2308;13. Dilute solution laws;13.2;13.2. Elevation in Boiling Point;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2308;13. Dilute solution laws;13.3;13.3. Osmotic pressure;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2308;13. Dilute solution laws;13.4;13.4. Ideal solubility;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2308;13. Dilute solution laws;13.5;13.5. Solubility of gas;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2373;14. Chemical reaction equilibrium;14.1;14.1. Standard Gibbs free energy change and equilibrium constant;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2373;14. Chemical reaction equilibrium;14.10;14.10. Adiabatic reaction temperature;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2373;14. Chemical reaction equilibrium;14.13;14.13. Equilibrium composition in a simultaneous reaction;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2373;14. Chemical reaction equilibrium;14.14;14.14. Equilibrium concentration;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2373;14. Chemical reaction equilibrium;14.15;14.15. Decomposition pressure;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2373;14. Chemical reaction equilibrium;14.2;14.2. Standard Gibbs free energy of formation;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2373;14. Chemical reaction equilibrium;14.3;14.3. Equilibrium constant;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2373;14. Chemical reaction equilibrium;14.4;14.4. Equilibrium constant with enthalpy of reaction varying with temperature;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2373;14. Chemical reaction equilibrium;14.5;14.5. Conversion and composition of the equilibrium mixture;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2373;14. Chemical reaction equilibrium;14.6;14.6. Conversion and composition of the equilibrium mixture at 5 and 100 bar Pressures;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2373;14. Chemical reaction equilibrium;14.7;14.7. Conversion and composition of the equilibrium mixture with inerts;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2373;14. Chemical reaction equilibrium;14.8;14.8. Degree of conversion for different feed conditions;correct;runtime; -611;Chemical Engineering Thermodynamics(Y. V. C. Rao);2373;14. Chemical reaction equilibrium;14.9;14.9. Degree of conversion;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.1;2.1. pH calculation;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.10;2.10. hydrogen ion concentration;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.11;2.11. concentration of hydroxyl ion;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.12;2.12. concentration hydroxyl ion;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.13;2.13. degree of dissociation;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.14;2.14. pH of buffer solution;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.15;2.15. pH of buffer solution;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.16;2.16. hydrogen ion concentration;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.17;2.17. hydrogen ion concentration;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.18;2.18. ratio of salt to acid;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.19;2.19. degree of dissociation and pH;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.2;2.2. pH of solution;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.20;2.20. pH of resultant liquid;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.21;2.21. hydroxyl ion concentration;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.22;2.22. dissociation constant and pH of aceticacid;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.23;2.23. hydrogen ion concentration in cleaning solution;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.24;2.24. pH oh human blood;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.25;2.25. pH of HCl and NaOH solution;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.26;2.26. change in pH in buffer solution;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.3;2.3. hydrogen ion concentration;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.4;2.4. pH calculation;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.5;2.5. pH calculation;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.6;2.6. pH of mixure;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.7;2.7. pH of the solution;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.8;2.8. pH of solution;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1338;2. acids and bases;2.9;2.9. pH of benzoic acid;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1389;3. chemical kinetics and catalysis;3.10;3.10. first order reaction;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1389;3. chemical kinetics and catalysis;3.11;3.11. second order rate constant;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1389;3. chemical kinetics and catalysis;3.13;3.13. first order reaction;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1389;3. chemical kinetics and catalysis;3.14;3.14. rate constant of first order rection;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1389;3. chemical kinetics and catalysis;3.15;3.15. first order reaction optical rotation;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1389;3. chemical kinetics and catalysis;3.16;3.16. optical rotation of sucrose solution;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1389;3. chemical kinetics and catalysis;3.17;3.17. activation energy of the reaction;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1389;3. chemical kinetics and catalysis;3.18;3.18. temperature for given k;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1389;3. chemical kinetics and catalysis;3.19;3.19. energy of activation of the reaction;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1389;3. chemical kinetics and catalysis;3.2;3.2. rate constant;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1389;3. chemical kinetics and catalysis;3.20;3.20. rate of constant of first order reaction;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1389;3. chemical kinetics and catalysis;3.21;3.21. activation energy of the reaction;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1389;3. chemical kinetics and catalysis;3.3;3.3. rate constant calculation;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1389;3. chemical kinetics and catalysis;3.4;3.4. rate constant of first order reaction;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1389;3. chemical kinetics and catalysis;3.5;3.5. second order reaction;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1389;3. chemical kinetics and catalysis;3.6;3.6. value of decay constant;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1389;3. chemical kinetics and catalysis;3.8;3.8. rate constant of reaction;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1389;3. chemical kinetics and catalysis;3.9;3.9. rate constant and half life;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1388;6. lubricants;6.1;6.1. viscocity index;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1388;6. lubricants;6.2;6.2. API gravity;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1370;7. water chemistry;7.1;7.1. hardness calculation;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1370;7. water chemistry;7.10;7.10. alkalinity hardness salts;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1370;7. water chemistry;7.11;7.11. type and amount of alkalinity;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1370;7. water chemistry;7.12;7.12. type and amount of alkalinity;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1370;7. water chemistry;7.13;7.13. calculation of required lime and soda;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1370;7. water chemistry;7.14;7.14. hardness of water;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1370;7. water chemistry;7.15;7.15. calculation of temporary and permanant hardness;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1370;7. water chemistry;7.2;7.2. dissolved FeSO4;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1370;7. water chemistry;7.3;7.3. hardness calculation;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1370;7. water chemistry;7.4;7.4. hardness calculation;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1370;7. water chemistry;7.5;7.5. quantity of lime and soda;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1370;7. water chemistry;7.6;7.6. lime requirement;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1370;7. water chemistry;7.7;7.7. lime soda requirement;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1370;7. water chemistry;7.8;7.8. hardness of water;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1370;7. water chemistry;7.9;7.9. total cost;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.1;8.1. calorific value;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.10;8.10. percentage of contents in the sample;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.11;8.11. percentage of contents in the sample;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.12;8.12. Amount of Air and Oxygen needed;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.13;8.13. Amount and Volume of Air and Oxygen needed;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.14;8.14. percentage of contents in the sample;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.15;8.15. Efficiency of fuel;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.16;8.16. Amount and Volume of Air needed;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.17;8.17. Amount and Volume of Air needed;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.18;8.18. weight of contents in the sample;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.19;8.19. calorific value;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.2;8.2. Gross calorific value;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.20;8.20. Gross calorific value;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.21;8.21. Gross calorific value;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.22;8.22. Maximum temperature that can be achieved;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.3;8.3. Gross and Net calorific value;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.4;8.4. percentage of contents in the sample;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.5;8.5. percentage of sulphur;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.6;8.6. Gross and Net calorific value;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.7;8.7. amount of air needed;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.8;8.8. Amount and Volume of Air and Oxygen needed;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1402;8. Fuels and Combustion;8.9;8.9. Gross and Net calorific value;correct;runtime; -615;Textbook Of Engineering Chemistry(R. N. Goyal And H. Goel);1387;10. polymer chemistry;10.1;10.1. number average and weight average molecular mass;correct;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1586;3. Conduction of heat in the steady state;3.1;3.1. Conduction through homogenous plane wall;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1586;3. Conduction of heat in the steady state;3.10;3.10. realaxation;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1586;3. Conduction of heat in the steady state;3.2;3.2. Conduction through a composite plane wall;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1586;3. Conduction of heat in the steady state;3.3;3.3. Conduction through a homogenous cylinder wall;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1586;3. Conduction of heat in the steady state;3.4;3.4. Conduction through a composite cylinder wall;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1586;3. Conduction of heat in the steady state;3.5;3.5. Influence of variable conductivity;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1586;3. Conduction of heat in the steady state;3.6;3.6. Conduction through edge and corner sections;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1586;3. Conduction of heat in the steady state;3.7;3.7. Conduction through sections of complicated range;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1586;3. Conduction of heat in the steady state;3.8;3.8. Relaxation method;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1587;4. Conduction of heat in the unsteady state;4.1;4.1. Unsteady state;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1587;4. Conduction of heat in the unsteady state;4.2;4.2. Unsteady State;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1587;4. Conduction of heat in the unsteady state;4.3;4.3. Sudden change of surface temperature;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1587;4. Conduction of heat in the unsteady state;4.4;4.4. Sudden change of temperature;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1587;4. Conduction of heat in the unsteady state;4.5;4.5. Periodic temperature change;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1587;4. Conduction of heat in the unsteady state;4.6;4.6. Periodic change of surface temperature;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1587;4. Conduction of heat in the unsteady state;4.7;4.7. Periodic change of surface temperature;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1587;4. Conduction of heat in the unsteady state;4.8;4.8. Unsteady state conduction;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1587;4. Conduction of heat in the unsteady state;4.9;4.9. Unsteady state conduction;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1588;5. Steady state heat conduction in bodies with heat sources;5.1;5.1. Maximum temperature in coil;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1588;5. Steady state heat conduction in bodies with heat sources;5.2;5.2. Temperare distribution in solid cylinder;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1589;6. Introduction to the dimensional analysis of convection;6.1;6.1. Reynolds concept of similarity;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1589;6. Introduction to the dimensional analysis of convection;6.2;6.2. Reynolds number;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1590;7. Heat transfer by free convection;7.1;7.1. Heat transfer by vertical and horizontal surfaces;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1590;7. Heat transfer by free convection;7.2;7.2. Heat transfer from horizontal surface;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1590;7. Heat transfer by free convection;7.3;7.3. Heat transfer from horizontal cylinders;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1590;7. Heat transfer by free convection;7.4;7.4. Heat transfer from horizontal cylinders;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1592;8. Heat transfer by forced convection;8.1;8.1. Heating of fluids in turbulent flow;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1592;8. Heat transfer by forced convection;8.3;8.3. The heating of fluids flowing normal to tubes;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1593;9. Heat transfer by the combined effect of conduction and convection;9.1;9.1. Heat transfer from a rod;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1593;9. Heat transfer by the combined effect of conduction and convection;9.10;9.10. Heat exchanger effectiveness ratio;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1593;9. Heat transfer by the combined effect of conduction and convection;9.11;9.11. Combined conduction and convection;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1593;9. Heat transfer by the combined effect of conduction and convection;9.2;9.2. Heat transfer from a rod;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1593;9. Heat transfer by the combined effect of conduction and convection;9.3;9.3. Heat transmision through a plane wall;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1593;9. Heat transfer by the combined effect of conduction and convection;9.4;9.4. Heat transfer through a cylinder wall;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1593;9. Heat transfer by the combined effect of conduction and convection;9.5;9.5. LMTD;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1593;9. Heat transfer by the combined effect of conduction and convection;9.6;9.6. LMTD through graphs;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1593;9. Heat transfer by the combined effect of conduction and convection;9.7;9.7. Calculation for heat exchanger design;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1593;9. Heat transfer by the combined effect of conduction and convection;9.8;9.8. Heat exchanger design;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1593;9. Heat transfer by the combined effect of conduction and convection;9.9;9.9. Heat exchanger effectiveness ratio;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1593;9. Heat transfer by the combined effect of conduction and convection;9.9b;9.9b. Heat transfer from wall in contact with a medium;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1594;10. Heat transfer in condensing and boiling;10.1;10.1. Condensation;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1595;11. Heat transfer by radiation;11.1;11.1. Heat excahnge between black planes;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1595;11. Heat transfer by radiation;11.2;11.2. Heat exchange between floor and roof;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1595;11. Heat transfer by radiation;11.3;11.3. Heat exchange between perpendicular surfaces;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1595;11. Heat transfer by radiation;11.4;11.4. Heat exchange between irradiating surfaces;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1595;11. Heat transfer by radiation;11.5;11.5. heat excange between large planes of different emissivity;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1595;11. Heat transfer by radiation;11.6;11.6. Heat exchange between two non black bodies;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1595;11. Heat transfer by radiation;11.7;11.7. Heat exchange in an enclosure;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1596;12. Heat transfer by the combined effect of conduction convection and radiation;12.1;12.1. Heat losses from insulated horizontal table;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1596;12. Heat transfer by the combined effect of conduction convection and radiation;12.2;12.2. Heat loss from bare tubes;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1597;14. Heat transfer in temperature measurements;14.1;14.1. Influence of convection and radiation;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1598;15. Heat transfer and fluid friction;15.1;15.1. Reynolds Analogy;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1599;16. Mass transfer;12.3;12.3. Diffusion of one gas into another stagnant gas;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/617/CH12/EX12.3/: PATH DOES NOT EXIST -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1599;16. Mass transfer;16.1;16.1. Diffusion coefficient;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1599;16. Mass transfer;16.2;16.2. Diffusion coefficient;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1599;16. Mass transfer;16.4;16.4. Mass transfer coefficient;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1599;16. Mass transfer;16.5;16.5. Air over water surface;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1599;16. Mass transfer;16.6;16.6. Air flowing over water surface;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1599;16. Mass transfer;16.7;16.7. Heat and mass transfer in free convection;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1599;16. Mass transfer;16.8;16.8. Humidification;error;runtime; -617;Elements Of Heat Transfer(M. Jacob And G. A. Hawkins);1599;16. Mass transfer;16.9;16.9. Absortion over wetted surface;error;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1286;1. Introduction to Calculators Circuits and Meters;1.1;1.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1286;1. Introduction to Calculators Circuits and Meters;1.2;1.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1286;1. Introduction to Calculators Circuits and Meters;1.3;1.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1286;1. Introduction to Calculators Circuits and Meters;1.4;1.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1286;1. Introduction to Calculators Circuits and Meters;1.5;1.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1286;1. Introduction to Calculators Circuits and Meters;1.6;1.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1287;2. Basic Electrical Quantities;2.1;2.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1287;2. Basic Electrical Quantities;2.2;2.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1287;2. Basic Electrical Quantities;2.3;2.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1287;2. Basic Electrical Quantities;2.4;2.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1287;2. Basic Electrical Quantities;2.5;2.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1287;2. Basic Electrical Quantities;2.6;2.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1287;2. Basic Electrical Quantities;2.7;2.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1287;2. Basic Electrical Quantities;2.8;2.8. 8;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1326;3. Ohms law Power and Resistors;3.1;3.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1326;3. Ohms law Power and Resistors;3.10;3.10. 10;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1326;3. Ohms law Power and Resistors;3.11;3.11. 11;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1326;3. Ohms law Power and Resistors;3.12;3.12. 12;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1326;3. Ohms law Power and Resistors;3.13;3.13. 13;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1326;3. Ohms law Power and Resistors;3.14;3.14. 14;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1326;3. Ohms law Power and Resistors;3.15;3.15. 15;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1326;3. Ohms law Power and Resistors;3.16;3.16. 16;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1326;3. Ohms law Power and Resistors;3.17;3.17. 17;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1326;3. Ohms law Power and Resistors;3.18;3.18. 18;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1326;3. Ohms law Power and Resistors;3.2;3.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1326;3. Ohms law Power and Resistors;3.3;3.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1326;3. Ohms law Power and Resistors;3.4;3.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1326;3. Ohms law Power and Resistors;3.5;3.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1326;3. Ohms law Power and Resistors;3.6;3.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1326;3. Ohms law Power and Resistors;3.7;3.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1326;3. Ohms law Power and Resistors;3.8;3.8. 8;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1326;3. Ohms law Power and Resistors;3.9;3.9. 9;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1327;4. Resistance;4.1;4.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1327;4. Resistance;4.2;4.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1327;4. Resistance;4.3;4.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1327;4. Resistance;4.4;4.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1327;4. Resistance;4.5;4.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1327;4. Resistance;4.6;4.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1327;4. Resistance;4.7;4.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1328;5. series circuits;5.1;5.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1328;5. series circuits;5.10;5.10. 10;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1328;5. series circuits;5.2;5.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1328;5. series circuits;5.3;5.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1328;5. series circuits;5.4;5.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1328;5. series circuits;5.5;5.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1328;5. series circuits;5.6;5.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1328;5. series circuits;5.7;5.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1328;5. series circuits;5.8;5.8. 8;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1328;5. series circuits;5.9;5.9. 9;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1329;6. Parallel Circuits;6.1;6.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1329;6. Parallel Circuits;6.2;6.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1329;6. Parallel Circuits;6.3;6.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1329;6. Parallel Circuits;6.4;6.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1329;6. Parallel Circuits;6.5;6.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1329;6. Parallel Circuits;6.6;6.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1329;6. Parallel Circuits;6.7;6.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1329;6. Parallel Circuits;6.8;6.8. 8;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1404;7. Series Parallel and voltage divider circuits;7.1;7.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1404;7. Series Parallel and voltage divider circuits;7.10;7.10. 10;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1404;7. Series Parallel and voltage divider circuits;7.2;7.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1404;7. Series Parallel and voltage divider circuits;7.3;7.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1404;7. Series Parallel and voltage divider circuits;7.4;7.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1404;7. Series Parallel and voltage divider circuits;7.5;7.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1404;7. Series Parallel and voltage divider circuits;7.6;7.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1404;7. Series Parallel and voltage divider circuits;7.7;7.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1404;7. Series Parallel and voltage divider circuits;7.8;7.8. 8;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1404;7. Series Parallel and voltage divider circuits;7.9;7.9. 9;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1405;8. Voltage sources;8.1;8.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1405;8. Voltage sources;8.2;8.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1405;8. Voltage sources;8.3;8.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1405;8. Voltage sources;8.4;8.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1406;9. Internal resistance and maximum power transfer;9.1;9.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1406;9. Internal resistance and maximum power transfer;9.2;9.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1406;9. Internal resistance and maximum power transfer;9.3;9.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1406;9. Internal resistance and maximum power transfer;9.4;9.4. 4;error;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1406;9. Internal resistance and maximum power transfer;9.5;9.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1406;9. Internal resistance and maximum power transfer;9.6;9.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1406;9. Internal resistance and maximum power transfer;9.7;9.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1546;10. Network Analysis;10.1;10.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1546;10. Network Analysis;10.10.a;10.10.a. 10a;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1546;10. Network Analysis;10.10.b;10.10.b. 10b;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1546;10. Network Analysis;10.11;10.11. 11;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1546;10. Network Analysis;10.12;10.12. 12;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1546;10. Network Analysis;10.13;10.13. 13;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1546;10. Network Analysis;10.14;10.14. 14;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1546;10. Network Analysis;10.15;10.15. 15;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1546;10. Network Analysis;10.16;10.16. 16;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1546;10. Network Analysis;10.17;10.17. 17;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1546;10. Network Analysis;10.18;10.18. 18;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1546;10. Network Analysis;10.2;10.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1546;10. Network Analysis;10.3;10.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1546;10. Network Analysis;10.4;10.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1546;10. Network Analysis;10.5;10.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1546;10. Network Analysis;10.6;10.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1546;10. Network Analysis;10.7;10.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1546;10. Network Analysis;10.8.a;10.8.a. 8a;error;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1546;10. Network Analysis;10.8.b;10.8.b. 8b;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1546;10. Network Analysis;10.9;10.9. 9;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1407;11. Magnetism and its applications;11.1;11.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1407;11. Magnetism and its applications;11.2;11.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1407;11. Magnetism and its applications;11.3;11.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1407;11. Magnetism and its applications;11.4;11.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1407;11. Magnetism and its applications;11.5;11.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1407;11. Magnetism and its applications;11.6;11.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1407;11. Magnetism and its applications;11.7;11.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1408;12. Analogue DC ammeters and voltmeters;12.1;12.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1408;12. Analogue DC ammeters and voltmeters;12.2;12.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1408;12. Analogue DC ammeters and voltmeters;12.3;12.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1408;12. Analogue DC ammeters and voltmeters;12.4;12.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1408;12. Analogue DC ammeters and voltmeters;12.5;12.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1408;12. Analogue DC ammeters and voltmeters;12.6;12.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1408;12. Analogue DC ammeters and voltmeters;12.7;12.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1408;12. Analogue DC ammeters and voltmeters;12.8;12.8. 8;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1408;12. Analogue DC ammeters and voltmeters;12.9;12.9. 9;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1447;13. Other DC Measuring Instruments;13.1;13.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1447;13. Other DC Measuring Instruments;13.10;13.10. 10;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1447;13. Other DC Measuring Instruments;13.2;13.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1447;13. Other DC Measuring Instruments;13.3;13.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1447;13. Other DC Measuring Instruments;13.4;13.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1447;13. Other DC Measuring Instruments;13.5;13.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1447;13. Other DC Measuring Instruments;13.6;13.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1447;13. Other DC Measuring Instruments;13.7;13.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1447;13. Other DC Measuring Instruments;13.8;13.8. 8;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1447;13. Other DC Measuring Instruments;13.9;13.9. 9;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1449;14. Generating AC and DC;14.1;14.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1449;14. Generating AC and DC;14.2;14.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1449;14. Generating AC and DC;14.4;14.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1449;14. Generating AC and DC;14.5;14.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1449;14. Generating AC and DC;14.6;14.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1449;14. Generating AC and DC;14.7;14.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1449;14. Generating AC and DC;14.8;14.8. 8;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1449;14. Generating AC and DC;14.9;14.9. 9;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1451;15. Alternating Voltage and Current;15.1;15.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1451;15. Alternating Voltage and Current;15.2;15.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1451;15. Alternating Voltage and Current;15.3;15.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1451;15. Alternating Voltage and Current;15.4;15.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1451;15. Alternating Voltage and Current;15.5;15.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1451;15. Alternating Voltage and Current;15.6;15.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1451;15. Alternating Voltage and Current;15.7;15.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1451;15. Alternating Voltage and Current;15.8;15.8. 8;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1451;15. Alternating Voltage and Current;15.9;15.9. 9;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1452;16. AC Measuring Instruments;16.1;16.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1453;17. Inductance;17.1;17.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1453;17. Inductance;17.3;17.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1453;17. Inductance;17.4;17.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1453;17. Inductance;17.5;17.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1453;17. Inductance;17.6;17.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1453;17. Inductance;17.7;17.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1453;17. Inductance;17.8;17.8. 8;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1454;18. Transformers;18.1;18.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1454;18. Transformers;18.2;18.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1454;18. Transformers;18.3;18.3. 3;error;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1454;18. Transformers;18.4;18.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1454;18. Transformers;18.5;18.5. 5;error;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1455;19. Inductance in DC circuits;19.1;19.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1455;19. Inductance in DC circuits;19.10;19.10. 10;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1455;19. Inductance in DC circuits;19.11;19.11. 11;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1455;19. Inductance in DC circuits;19.2;19.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1455;19. Inductance in DC circuits;19.3;19.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1455;19. Inductance in DC circuits;19.4;19.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1455;19. Inductance in DC circuits;19.5;19.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1455;19. Inductance in DC circuits;19.6;19.6. 6;error;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1455;19. Inductance in DC circuits;19.7;19.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1455;19. Inductance in DC circuits;19.8;19.8. 8;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1455;19. Inductance in DC circuits;19.9;19.9. 9;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1456;20. Inductance in AC circuits;20.1;20.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1456;20. Inductance in AC circuits;20.10;20.10. 10;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1456;20. Inductance in AC circuits;20.11;20.11. 11;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1456;20. Inductance in AC circuits;20.12;20.12. 12;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1456;20. Inductance in AC circuits;20.2;20.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1456;20. Inductance in AC circuits;20.3;20.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1456;20. Inductance in AC circuits;20.4;20.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1456;20. Inductance in AC circuits;20.5;20.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1456;20. Inductance in AC circuits;20.6;20.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1456;20. Inductance in AC circuits;20.7;20.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1456;20. Inductance in AC circuits;20.8;20.8. 8;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1456;20. Inductance in AC circuits;20.9;20.9. 9;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1458;21. Capacitance;21.1;21.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1458;21. Capacitance;21.2;21.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1458;21. Capacitance;21.3;21.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1458;21. Capacitance;21.4;21.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1458;21. Capacitance;21.5;21.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1458;21. Capacitance;21.6;21.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1458;21. Capacitance;21.7;21.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1458;21. Capacitance;21.8;21.8. 8;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1467;22. Capacitance in DC Circuits;22.1;22.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1467;22. Capacitance in DC Circuits;22.3;22.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1467;22. Capacitance in DC Circuits;22.4;22.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1467;22. Capacitance in DC Circuits;22.5;22.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1467;22. Capacitance in DC Circuits;22.6;22.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1468;23. Capacitance in AC Circuits;23.1;23.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1468;23. Capacitance in AC Circuits;23.2;23.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1468;23. Capacitance in AC Circuits;23.3;23.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1468;23. Capacitance in AC Circuits;23.4;23.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1468;23. Capacitance in AC Circuits;23.5;23.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1468;23. Capacitance in AC Circuits;23.6;23.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1468;23. Capacitance in AC Circuits;23.7;23.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1473;24. Phasors in Alternating Current Circuits;24.1;24.1. 1;error;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1473;24. Phasors in Alternating Current Circuits;24.10;24.10. 10;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1473;24. Phasors in Alternating Current Circuits;24.11;24.11. 11;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1473;24. Phasors in Alternating Current Circuits;24.12;24.12. 12;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1473;24. Phasors in Alternating Current Circuits;24.2;24.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1473;24. Phasors in Alternating Current Circuits;24.3;24.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1473;24. Phasors in Alternating Current Circuits;24.4;24.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1473;24. Phasors in Alternating Current Circuits;24.5;24.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1473;24. Phasors in Alternating Current Circuits;24.7;24.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1473;24. Phasors in Alternating Current Circuits;24.8;24.8. 8;error;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.1;25.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.10;25.10. 10;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.11;25.11. 11;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.12;25.12. 12;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.14;25.14. 14;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.16;25.16. 16;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.17;25.17. 17;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.19;25.19. 19;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.2;25.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.20;25.20. 20;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.21;25.21. 21;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.22;25.22. 22;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.23;25.23. 23;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.24;25.24. 24;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.3;25.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.4;25.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.5;25.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.6;25.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.7;25.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.8;25.8. 8;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1487;25. Complex Numbers;25.9;25.9. 9;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1415;26. Power in AC circuits;26.1;26.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1415;26. Power in AC circuits;26.10;26.10. 10;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1415;26. Power in AC circuits;26.11;26.11. 11;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1415;26. Power in AC circuits;26.12;26.12. 12;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1415;26. Power in AC circuits;26.13;26.13. 13;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1415;26. Power in AC circuits;26.14;26.14. 14;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1415;26. Power in AC circuits;26.15;26.15. 15;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1415;26. Power in AC circuits;26.16;26.16. 16;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1415;26. Power in AC circuits;26.17;26.17. 17;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1415;26. Power in AC circuits;26.18;26.18. 18;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1415;26. Power in AC circuits;26.2;26.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1415;26. Power in AC circuits;26.3;26.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1415;26. Power in AC circuits;26.4;26.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1415;26. Power in AC circuits;26.5;26.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1415;26. Power in AC circuits;26.6;26.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1415;26. Power in AC circuits;26.7;26.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1415;26. Power in AC circuits;26.8;26.8. 8;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1415;26. Power in AC circuits;26.9;26.9. 9;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1418;27. Resonance;27.10;27.10. 10;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1418;27. Resonance;27.11;27.11. 11;error;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1418;27. Resonance;27.12;27.12. 12;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1418;27. Resonance;27.13;27.13. 13;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1418;27. Resonance;27.14;27.14. 14;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1418;27. Resonance;27.15;27.15. 15;error;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1418;27. Resonance;27.2;27.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1418;27. Resonance;27.3;27.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1418;27. Resonance;27.4;27.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1418;27. Resonance;27.5;27.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1418;27. Resonance;27.6;27.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1418;27. Resonance;27.7;27.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1418;27. Resonance;27.8;27.8. 8;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1418;27. Resonance;27.9;27.9. 9;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1417;28. Diodes rectification and filtering;28.1;28.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1417;28. Diodes rectification and filtering;28.2;28.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1417;28. Diodes rectification and filtering;28.3;28.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1417;28. Diodes rectification and filtering;28.4;28.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1417;28. Diodes rectification and filtering;28.5;28.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1417;28. Diodes rectification and filtering;28.6;28.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1417;28. Diodes rectification and filtering;28.7;28.7. 7;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1417;28. Diodes rectification and filtering;28.8;28.8. 8;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1417;28. Diodes rectification and filtering;28.9;28.9. 9;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1416;29. Introduction to transistors amplifiers and oscillators;29.1;29.1. 1;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1416;29. Introduction to transistors amplifiers and oscillators;29.2;29.2. 2;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1416;29. Introduction to transistors amplifiers and oscillators;29.3;29.3. 3;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1416;29. Introduction to transistors amplifiers and oscillators;29.4;29.4. 4;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1416;29. Introduction to transistors amplifiers and oscillators;29.5;29.5. 5;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1416;29. Introduction to transistors amplifiers and oscillators;29.6;29.6. 6;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1416;29. Introduction to transistors amplifiers and oscillators;29.7;29.7. 7;error;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1416;29. Introduction to transistors amplifiers and oscillators;29.8;29.8. 8;correct;runtime; -620;Introduction To Electricity And Electronics(A. Mottershead);1416;29. Introduction to transistors amplifiers and oscillators;29.9;29.9. 9;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.10;1.1.10. Ex 10;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.11;1.1.11. Ex 11;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.12;1.1.12. Ex 12;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.13;1.1.13. Ex 13;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.14;1.1.14. Ex 14;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.15;1.1.15. Ex 15;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.23;1.1.23. Ex 23;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.24;1.1.24. Ex 24;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.26;1.1.26. Ex 26;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.27;1.1.27. Ex 27;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.28;1.1.28. Ex 28;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.29;1.1.29. Ex 29;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.3;1.1.3. Ex 3;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.30;1.1.30. Ex 30;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.33;1.1.33. Ex 33;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.4;1.1.4. Ex 4;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.5;1.1.5. Ex 5;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.6;1.1.6. Ex 6;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.7;1.1.7. Ex 7;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.8;1.1.8. Ex 8;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1804;1. The Special Theory of Relativity;1.1.9;1.1.9. Ex 9;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1805;2. Origin of Quantum Concepts;2.1.1;2.1.1. Ex 1;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1805;2. Origin of Quantum Concepts;2.1.10;2.1.10. Ex 10;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1805;2. Origin of Quantum Concepts;2.1.11;2.1.11. Ex 11;error;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1805;2. Origin of Quantum Concepts;2.1.12;2.1.12. Ex 12;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1805;2. Origin of Quantum Concepts;2.1.13;2.1.13. Ex 13;error;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1805;2. Origin of Quantum Concepts;2.1.14;2.1.14. Ex 14;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1805;2. Origin of Quantum Concepts;2.1.15;2.1.15. Ex 15;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1805;2. Origin of Quantum Concepts;2.1.2;2.1.2. Ex 2;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1805;2. Origin of Quantum Concepts;2.1.3;2.1.3. Ex 3;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1805;2. Origin of Quantum Concepts;2.1.4;2.1.4. Ex 4;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1805;2. Origin of Quantum Concepts;2.1.5;2.1.5. Ex 5;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1805;2. Origin of Quantum Concepts;2.1.6;2.1.6. Ex 6;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1805;2. Origin of Quantum Concepts;2.1.7;2.1.7. Ex 7;error;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1805;2. Origin of Quantum Concepts;2.1.8;2.1.8. Ex 8;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1805;2. Origin of Quantum Concepts;2.1.9;2.1.9. Ex 9;correct;runtime; -623;Introduction To Modern Physics Volume 1(R. B. Singh);1806;3. Wave Nature of Material Particles;2.2.1;2.2.1. Ex 1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.2.1/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1806;3. Wave Nature of Material Particles;2.2.10;2.2.10. Ex 10;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.2.10/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1806;3. Wave Nature of Material Particles;2.2.12;2.2.12. Ex 12;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.2.12/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1806;3. Wave Nature of Material Particles;2.2.13;2.2.13. Ex 13;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.2.13/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1806;3. Wave Nature of Material Particles;2.2.14;2.2.14. Ex 14;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.2.14/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1806;3. Wave Nature of Material Particles;2.2.15;2.2.15. Ex 15;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.2.15/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1806;3. Wave Nature of Material Particles;2.2.17;2.2.17. Ex 17;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.2.17/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1806;3. Wave Nature of Material Particles;2.2.18;2.2.18. Ex 18;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.2.18/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1806;3. Wave Nature of Material Particles;2.2.19;2.2.19. Ex 19;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.2.19/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1806;3. Wave Nature of Material Particles;2.2.3;2.2.3. Ex 3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.2.3/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1806;3. Wave Nature of Material Particles;2.2.4;2.2.4. Ex 4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.2.4/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1806;3. Wave Nature of Material Particles;2.2.5;2.2.5. Ex 5;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.2.5/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1806;3. Wave Nature of Material Particles;2.2.6;2.2.6. Ex 6;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.2.6/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1806;3. Wave Nature of Material Particles;2.2.7;2.2.7. Ex 7;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.2.7/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1806;3. Wave Nature of Material Particles;2.2.8;2.2.8. Ex 8;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.2.8/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1806;3. Wave Nature of Material Particles;2.2.9;2.2.9. Ex 9;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.2.9/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1807;7. Particle in a Box;2.6.1;2.6.1. Ex 1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.6.1/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1807;7. Particle in a Box;2.6.2;2.6.2. Ex 2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.6.2/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1808;10. Particle in a Central Force Field;2.9.2;2.9.2. Ex 2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.9.2/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1808;10. Particle in a Central Force Field;2.9.3;2.9.3. Ex 3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.9.3/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1808;10. Particle in a Central Force Field;2.9.4;2.9.4. Ex 4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH2/EX2.9.4/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1809;11. Preliminary Concepts;3.1.1;3.1.1. Ex 1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH3/EX3.1.1/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1809;11. Preliminary Concepts;3.1.2;3.1.2. Ex 2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH3/EX3.1.2/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1809;11. Preliminary Concepts;3.1.3;3.1.3. Ex 3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH3/EX3.1.3/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1809;11. Preliminary Concepts;3.1.4;3.1.4. Ex 4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH3/EX3.1.4/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1809;11. Preliminary Concepts;3.1.5;3.1.5. Ex 5;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH3/EX3.1.5/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1809;11. Preliminary Concepts;3.1.6;3.1.6. Ex 6;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH3/EX3.1.6/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1810;18. Atomic Spectra I;4.1.1;4.1.1. Ex 1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.1.1/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1810;18. Atomic Spectra I;4.1.2;4.1.2. Ex 2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.1.2/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1810;18. Atomic Spectra I;4.1.3;4.1.3. Ex 3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.1.3/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1810;18. Atomic Spectra I;4.1.4;4.1.4. Ex 4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.1.4/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1810;18. Atomic Spectra I;4.1.5;4.1.5. Ex 5;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.1.5/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1810;18. Atomic Spectra I;4.1.6;4.1.6. Es 6;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.1.6/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1810;18. Atomic Spectra I;4.1.7;4.1.7. Ex 7;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.1.7/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1810;18. Atomic Spectra I;4.1.8;4.1.8. Ex 8;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.1.8/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1811;19. Atomic Spectra II;4.2.10;4.2.10. Ex 10;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.2.10/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1811;19. Atomic Spectra II;4.2.11;4.2.11. Ex 11;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.2.11/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1811;19. Atomic Spectra II;4.2.12;4.2.12. Ex 12;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.2.12/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1811;19. Atomic Spectra II;4.2.13;4.2.13. Ex 13;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.2.13/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1811;19. Atomic Spectra II;4.2.15;4.2.15. Ex 15;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.2.15/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1811;19. Atomic Spectra II;4.2.16;4.2.16. Ex 16;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.2.16/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1811;19. Atomic Spectra II;4.2.9;4.2.9. Ex 9;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.2.9/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1812;20. Atomic Spectra III;4.3.10;4.3.10. Ex 10;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.3.10/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1812;20. Atomic Spectra III;4.3.11;4.3.11. Ex 11;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.3.11/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1812;20. Atomic Spectra III;4.3.12;4.3.12. Ex 12;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.3.12/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1812;20. Atomic Spectra III;4.3.13;4.3.13. Ex 13;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.3.13/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1812;20. Atomic Spectra III;4.3.14;4.3.14. Ex 14;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.3.14/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1812;20. Atomic Spectra III;4.3.4;4.3.4. Ex 4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.3.4/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1812;20. Atomic Spectra III;4.3.5;4.3.5. Ex 5;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.3.5/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1812;20. Atomic Spectra III;4.3.6;4.3.6. Ex 6;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.3.6/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1812;20. Atomic Spectra III;4.3.7;4.3.7. Ex 7;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.3.7/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1812;20. Atomic Spectra III;4.3.8;4.3.8. Ex 8;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.3.8/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1812;20. Atomic Spectra III;4.3.9;4.3.9. Ex 9;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.3.9/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1813;21. Magneto Optic and Electro Optic Phenomena;4.4.1;4.4.1. Ex 1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.4.1/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1813;21. Magneto Optic and Electro Optic Phenomena;4.4.2;4.4.2. Ex 2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.4.2/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1813;21. Magneto Optic and Electro Optic Phenomena;4.4.3;4.4.3. Ex 3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.4.3/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1813;21. Magneto Optic and Electro Optic Phenomena;4.4.4;4.4.4. Ex 4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.4.4/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1813;21. Magneto Optic and Electro Optic Phenomena;4.4.5;4.4.5. Ex 5;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.4.5/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1813;21. Magneto Optic and Electro Optic Phenomena;4.4.7;4.4.7. Ex 7;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.4.7/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1813;21. Magneto Optic and Electro Optic Phenomena;4.4.8;4.4.8. Ex 8;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.4.8/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1813;21. Magneto Optic and Electro Optic Phenomena;4.4.9;4.4.9. Ex 9;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.4.9/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1814;22. X Rays and X Ray Spectra;4.5.1;4.5.1. Ex 1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.5.1/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1814;22. X Rays and X Ray Spectra;4.5.10;4.5.10. Ex 10;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.5.10/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1814;22. X Rays and X Ray Spectra;4.5.2;4.5.2. Ex 2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.5.2/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1814;22. X Rays and X Ray Spectra;4.5.3;4.5.3. Ex 3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.5.3/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1814;22. X Rays and X Ray Spectra;4.5.4;4.5.4. Ex 4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.5.4/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1814;22. X Rays and X Ray Spectra;4.5.5;4.5.5. Ex 5;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.5.5/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1814;22. X Rays and X Ray Spectra;4.5.6;4.5.6. Ex 6;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.5.6/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1814;22. X Rays and X Ray Spectra;4.5.7;4.5.7. Ex 7;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.5.7/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1814;22. X Rays and X Ray Spectra;4.5.8;4.5.8. Ex 8;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.5.8/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1814;22. X Rays and X Ray Spectra;4.5.9;4.5.9. Ex 9;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH4/EX4.5.9/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.1;5.5.1. Ex 1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.1/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.10;5.5.10. Ex 10;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.10/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.11;5.5.11. Ex 11;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.11/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.12;5.5.12. Ex 12;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.12/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.13;5.5.13. Ex 13;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.13/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.14;5.5.14. Ex 14;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.14/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.15;5.5.15. Ex 15;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.15/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.16;5.5.16. Ex 16;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.16/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.17;5.5.17. Ex 17;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.17/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.18;5.5.18. Ex 18;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.18/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.19;5.5.19. Ex 19;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.19/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.2;5.5.2. Ex 2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.2/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.20;5.5.20. Ex 20;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.20/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.21;5.5.21. Ex 21;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.21/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.3;5.5.3. Ex 3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.3/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.4;5.5.4. Ex 4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.4/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.5;5.5.5. Ex 5;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.5/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.6;5.5.6. Ex 6;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.6/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.7;5.5.7. Ex 7;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.7/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.8;5.5.8. Ex 8;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.8/: PATH DOES NOT EXIST -623;Introduction To Modern Physics Volume 1(R. B. Singh);1815;27. Raman Spectra;5.5.9;5.5.9. Ex 9;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/623/CH5/EX5.5.9/: PATH DOES NOT EXIST -626;Aircraft Propulsion(S. Farokhi);1600;2. Compressible flow with friction and heat A review;2.1;2.1. Brief review of thermodynamics;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1600;2. Compressible flow with friction and heat A review;2.10;2.10. Adiabatic flow of a calorically perfect gas in a constant area duct with friction;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1600;2. Compressible flow with friction and heat A review;2.12;2.12. Subsonic diffuser;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1600;2. Compressible flow with friction and heat A review;2.13;2.13. Supersonic nozzle;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1600;2. Compressible flow with friction and heat A review;2.14;2.14. Axial flow compressor;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1600;2. Compressible flow with friction and heat A review;2.15;2.15. Combustor;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1600;2. Compressible flow with friction and heat A review;2.16;2.16. Axial flow turbine;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1600;2. Compressible flow with friction and heat A review;2.2;2.2. Isentropic process and isentropic flow;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1600;2. Compressible flow with friction and heat A review;2.3;2.3. Conservation principle for systems and control volumes;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1600;2. Compressible flow with friction and heat A review;2.4;2.4. Conservation principle for systems and control volumes;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1600;2. Compressible flow with friction and heat A review;2.5;2.5. Conservation principle for systems and control volumes;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1600;2. Compressible flow with friction and heat A review;2.6;2.6. Flow through a constant area duct;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1600;2. Compressible flow with friction and heat A review;2.7;2.7. Flow through constant area combustion chamber;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1600;2. Compressible flow with friction and heat A review;2.8;2.8. Heat transfer in subsonic flow in constant area duct;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1600;2. Compressible flow with friction and heat A review;2.9;2.9. Adiabatic flow of a calorically perfect gas in a constant area duct with friction;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1617;3. Engine thrust and performance parameter;3.1;3.1. Ram drag;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1617;3. Engine thrust and performance parameter;3.2;3.2. Gross thrust of separate flow turbofan;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1617;3. Engine thrust and performance parameter;3.3;3.3. Rocket thrust;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1617;3. Engine thrust and performance parameter;3.4;3.4. Airbreathing engine performance parameters;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1617;3. Engine thrust and performance parameter;3.5;3.5. Propulsive efficiency;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1617;3. Engine thrust and performance parameter;3.6;3.6. Propulsive efficiency of turbofan engine;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1618;4. Gas turbine engine cycle analysis;4.1;4.1. The inlet parameters of the turbojet engine;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1618;4. Gas turbine engine cycle analysis;4.10;4.10. Propulsive efficiency of turbojet engine;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1618;4. Gas turbine engine cycle analysis;4.11;4.11. Turbojet engine with afterburner;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1618;4. Gas turbine engine cycle analysis;4.12;4.12. Effect of compressor pressure ratio on an afterburner turbojet engine;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -626;Aircraft Propulsion(S. Farokhi);1618;4. Gas turbine engine cycle analysis;4.13;4.13. High bypass ratio turbofan engine;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1618;4. Gas turbine engine cycle analysis;4.14;4.14. Graph of the performance of separate exhaust turbofan engine for a range of bypass ratios from 0 to 8;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -626;Aircraft Propulsion(S. Farokhi);1618;4. Gas turbine engine cycle analysis;4.15;4.15. Mixed exhaust turbofan engine with afterburner;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1618;4. Gas turbine engine cycle analysis;4.16;4.16. Engine performance of a mixed exhaust turbofan engine with afterburner having same parameters as in previous example for a range of compressor pressure ratios from 6 to 16;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1618;4. Gas turbine engine cycle analysis;4.17;4.17. The turboprop engine performance parameter;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1618;4. Gas turbine engine cycle analysis;4.18;4.18. Graph of the performance parameters of the engine in above example with power split varying over a range;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1618;4. Gas turbine engine cycle analysis;4.2;4.2. The multistage axial flow compressor parameters of the turbojet engine;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1618;4. Gas turbine engine cycle analysis;4.3;4.3. The combustor parameters of the turbojet engine;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1618;4. Gas turbine engine cycle analysis;4.4;4.4. The turbine parameters of the turbojet engine;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1618;4. Gas turbine engine cycle analysis;4.5;4.5. Mixed total enthalpy after the turbine nozzle blade;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1618;4. Gas turbine engine cycle analysis;4.6;4.6. The internally cooled turbine parameters of the turbojet engine;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1618;4. Gas turbine engine cycle analysis;4.7;4.7. The convergent divergent nozzle parameters of the turbojet engine;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1619;5. Aircraft engine inlet and nozzles;5.1;5.1. Overspeed Mach no;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1619;5. Aircraft engine inlet and nozzles;5.10;5.10. Graph of the ratio of nozzle throat area with the afterburner on and off for a range of turbine expansion parameter;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1619;5. Aircraft engine inlet and nozzles;5.12;5.12. Hypersonic nozzle;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1619;5. Aircraft engine inlet and nozzles;5.13;5.13. Graph of the ratio of mixed to separate flow turbofan engine for a range of hot to cold temperature ratio and a varying bypass ratio upto 8;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1619;5. Aircraft engine inlet and nozzles;5.2;5.2. Kantrowitz Donaldson inlet;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1619;5. Aircraft engine inlet and nozzles;5.3;5.3. Variable throat isentropic C D nozzle;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1619;5. Aircraft engine inlet and nozzles;5.4;5.4. Normal shock inlet;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1619;5. Aircraft engine inlet and nozzles;5.5;5.5. External compression inlets;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1619;5. Aircraft engine inlet and nozzles;5.6;5.6. Gross thrust by perfectly expanded C D nozzle;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1619;5. Aircraft engine inlet and nozzles;5.7;5.7. Effect of boundary layer formation on nozzle internal performance;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1619;5. Aircraft engine inlet and nozzles;5.8;5.8. Divergence correction factor Ca for a conical nozzle with exit flow angles varying over a range;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -626;Aircraft Propulsion(S. Farokhi);1619;5. Aircraft engine inlet and nozzles;5.9;5.9. Graph of divergence correction factor for a two dimensional nozzle with exit flow angles varying over a range;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1620;6. Combustion chambers and afterburners;6.1;6.1. Moles in a mixture;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1620;6. Combustion chambers and afterburners;6.3;6.3. Heating values of hydrogen;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1620;6. Combustion chambers and afterburners;6.5;6.5. Chemical reaction and flame temperature;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1620;6. Combustion chambers and afterburners;6.6;6.6. Mole fraction at equilibrium;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1621;7. Axial compressor aerodynamics;7.1;7.1. Specific work at pitchline and the rotor torque per unit mass flow rate;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1621;7. Axial compressor aerodynamics;7.2;7.2. Stage parameters;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1621;7. Axial compressor aerodynamics;7.3;7.3. Stage parameters;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1621;7. Axial compressor aerodynamics;7.4;7.4. de Haller criterion;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1621;7. Axial compressor aerodynamics;7.5;7.5. Stage parameters;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1621;7. Axial compressor aerodynamics;7.6;7.6. Stage parameters;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1621;7. Axial compressor aerodynamics;7.7;7.7. Comparison of the degree of reaction profile of a compressor stage with and without an IVG for a range of hub tip radii that result in a positive degree of reaction;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1622;8. Centrifugal compressor aerodynamics;8.1;8.1. Graph of the ratio of Mach index to the impeller tip tangential Mach no for a range of inlet Mach no;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1622;8. Centrifugal compressor aerodynamics;8.3;8.3. Radial diffuser;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1622;8. Centrifugal compressor aerodynamics;8.4;8.4. Graph of the inducer D factor for solidity of one and over a range of impeller tip Mach numbers and radius ratios;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1622;8. Centrifugal compressor aerodynamics;8.6;8.6. Performance parameters of a centrifugal compressor;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1624;9. Aerothermodynamics of Gas Turbines;9.1;9.1. Axial flow turbine;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1624;9. Aerothermodynamics of Gas Turbines;9.2;9.2. Axial flow turbine;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1624;9. Aerothermodynamics of Gas Turbines;9.3;9.3. Axial flow turbine;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1624;9. Aerothermodynamics of Gas Turbines;9.4;9.4. Loss of turbine efficiency;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1624;9. Aerothermodynamics of Gas Turbines;9.5;9.5. Turbine cooling;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1624;9. Aerothermodynamics of Gas Turbines;9.6;9.6. Convective cooling;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1633;10. Aircraft engine component matching and off design analysis;10.1;10.1. Graph of graph generator pumping characteristics verses percent Nc2 design;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1633;10. Aircraft engine component matching and off design analysis;10.2;10.2. Off design analysis of a turbojet engine;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1633;10. Aircraft engine component matching and off design analysis;10.3;10.3. Off design analysis of an afterburner turbojet engine;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1636;11. Chemical rocket and hypersonic propulsion;11.1;11.1. Space Shuttle Main Engine diameter from given thrust;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1636;11. Chemical rocket and hypersonic propulsion;11.10;11.10. Liquid propellant combustion chambers in rocket;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -626;Aircraft Propulsion(S. Farokhi);1636;11. Chemical rocket and hypersonic propulsion;11.11;11.11. Solid propellant combustion chamber in rockets;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1636;11. Chemical rocket and hypersonic propulsion;11.12;11.12. Regenerative cooling in liquid propellant rocket combustor in rocket;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1636;11. Chemical rocket and hypersonic propulsion;11.13;11.13. Multiphase flow in rocket nozzle;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1636;11. Chemical rocket and hypersonic propulsion;11.2;11.2. Rocket thrust and exhaust velocity;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1636;11. Chemical rocket and hypersonic propulsion;11.3;11.3. Thrust coefficient of a rocket engine;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1636;11. Chemical rocket and hypersonic propulsion;11.4;11.4. Characteristic velocity;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1636;11. Chemical rocket and hypersonic propulsion;11.5;11.5. Combustion of hydrogen and oxygen;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1636;11. Chemical rocket and hypersonic propulsion;11.6;11.6. Rocket in a zero gravity vaccum flight;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1636;11. Chemical rocket and hypersonic propulsion;11.7;11.7. Rocket performance including the effect of gravity;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1636;11. Chemical rocket and hypersonic propulsion;11.8;11.8. Rocket flight performance including the effects of gravity and aerodynamic drag;correct;runtime; -626;Aircraft Propulsion(S. Farokhi);1636;11. Chemical rocket and hypersonic propulsion;11.9;11.9. Propulsive and overall efficiencies;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1740;1. Introduction;1.4;1.4. GRID METHOD APPLIED TO A ROCKET;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1741;2. Fluid Properties;2.1;2.1. DENSITY OF AIR;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1741;2. Fluid Properties;2.2;2.2. CALCULATING VISCOSITY OF LIQUID AS A FUNCTION OF TEMPERATURE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1741;2. Fluid Properties;2.3;2.3. MODELING A BOARD SLIDING ON A LIQUID LAYER;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1741;2. Fluid Properties;2.4;2.4. CAPILLARY RISE IN A TUBE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1742;3. Fluid Statics;3.1;3.1. LOAD LIFTED BY A HYDRAULIC JACK;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1742;3. Fluid Statics;3.10;3.10. FORCE TO OPEN AN ELLIPTICAL GATE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1742;3. Fluid Statics;3.11;3.11. HYDROSTATIC FORCE ON A CURVED SURFACE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1742;3. Fluid Statics;3.12;3.12. BUOYANT FORCE ON A METAL PART;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1742;3. Fluid Statics;3.13;3.13. STABILITY OF A FLOATING BLOCK;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1742;3. Fluid Statics;3.2;3.2. WATER PRESSURE IN A TANK;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1742;3. Fluid Statics;3.3;3.3. PRESSURE IN TANK WITH TWO FLUIDS;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1742;3. Fluid Statics;3.4;3.4. PRESSURE IN THE TROPOSPHERE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1742;3. Fluid Statics;3.5;3.5. PRESSURE IN THE LOWER STRATOSPHERE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1742;3. Fluid Statics;3.6;3.6. PRESSURE MEASUREMENT;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1742;3. Fluid Statics;3.7;3.7. MANOMETER ANALYSIS;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1742;3. Fluid Statics;3.8;3.8. CHANGE IN PIEZOMETRIC HEAD FOR PIPE FLOW;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1742;3. Fluid Statics;3.9;3.9. HYDROSTATIC FORCE DUE TO CONCRETE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1743;4. Flowing Fluids and Pressure Variation;4.12;4.12. VELOCITY AND PRESSURE DISTRIBUTION IN A FREE VORTEX;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1743;4. Flowing Fluids and Pressure Variation;4.13;4.13. PRESSURE DIFFERENCE IN TORNADO;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1743;4. Flowing Fluids and Pressure Variation;4.2;4.2. APPLICATION OF EULERS EQUATION TO ACCELERATION OF A FLUID;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1743;4. Flowing Fluids and Pressure Variation;4.3;4.3. PRESSURE IN A DECELERATING TANK OF LIQUID;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1743;4. Flowing Fluids and Pressure Variation;4.4;4.4. SURFACE PROFILE OF ROTATING LIQUID;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1743;4. Flowing Fluids and Pressure Variation;4.5;4.5. ROTATING MANOMETER TUBE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1743;4. Flowing Fluids and Pressure Variation;4.6;4.6. VELOCITY IN A VENTURI SECTION;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1743;4. Flowing Fluids and Pressure Variation;4.7;4.7. OUTLET VELOCITY FROM DRAINING TANK;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1743;4. Flowing Fluids and Pressure Variation;4.8;4.8. APPLICATION OF PITOT EQUATION WITH MANOMETER;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1743;4. Flowing Fluids and Pressure Variation;4.9;4.9. PITOT TUBE APPLICATION WITH PRESSURE GAGE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1747;5. Control Volume Approach and Continuity Equation;5.1;5.1. VOLUME FLOW RATE AND MEAN VELOCITY;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1747;5. Control Volume Approach and Continuity Equation;5.2;5.2. FLOW IN SLOPING CHANNEL;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1747;5. Control Volume Approach and Continuity Equation;5.3;5.3. DISCHARGE IN CHANNEL WITH NON UNIFORM VELOCITY DISTRIBUTION;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1747;5. Control Volume Approach and Continuity Equation;5.4;5.4. MASS ACCUMULATION IN A TANK;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1747;5. Control Volume Approach and Continuity Equation;5.5;5.5. RATE OF WATER RISE IN RESERVOIR;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1747;5. Control Volume Approach and Continuity Equation;5.6;5.6. WATER LEVEL DROP RATE IN DRAINING TANK;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1747;5. Control Volume Approach and Continuity Equation;5.7;5.7. DEPRESSURIZATION OF GAS IN TANK;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1747;5. Control Volume Approach and Continuity Equation;5.8;5.8. VELOCITY IN A VARIABLE AREA PIPE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1747;5. Control Volume Approach and Continuity Equation;5.9;5.9. WATER FLOW THROUGH A VENTURIMETER;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1753;6. Momentum Equation;6.1;6.1. THRUST OF ROCKET;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1753;6. Momentum Equation;6.10;6.10. JET IMPINGING ON MOVING BLOCK;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1753;6. Momentum Equation;6.11;6.11. PROPELLANT MASS RATIO FOR ACHIEVING ORBITAL VELOCITY;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1753;6. Momentum Equation;6.12;6.12. PRESSURE RISE DUE TO WATER HAMMER EFFECT;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1753;6. Momentum Equation;6.13;6.13. RESISTING MOMENT ON REDUCING BEND;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1753;6. Momentum Equation;6.14;6.14. POWER DELIVERED BY A FRANCIS TURBINE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1753;6. Momentum Equation;6.2;6.2. CONCRETE FLOWING INTO CART;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1753;6. Momentum Equation;6.3;6.3. FORCE ON A NOZZLE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1753;6. Momentum Equation;6.4;6.4. WATER DEFLECTED BY A VANE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1753;6. Momentum Equation;6.6;6.6. FORCES ACTING ON A PIPE BEND;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1753;6. Momentum Equation;6.7;6.7. WATER FLOW THROUGH REDUCING BEND;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1753;6. Momentum Equation;6.8;6.8. DRAG FORCE ON WIND TUNNEL MODEL;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1753;6. Momentum Equation;6.9;6.9. FORCE ON A SLUICE GATE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1839;7. The Energy Equation;7.1;7.1. KINETIC ENERGY CORRECTION FACTOR FOR LAMINAR FLOW;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1839;7. The Energy Equation;7.2;7.2. PRESSURE IN A PIPE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1839;7. The Energy Equation;7.3;7.3. POWER NEEDED BY A PUMP;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1839;7. The Energy Equation;7.4;7.4. POWER PRODUCED BY A TURBINE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1839;7. The Energy Equation;7.5;7.5. FORCE ON A CONTRACTION IN A PIPE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1839;7. The Energy Equation;7.6;7.6. EGL AND HGL FOR A SYSTEM;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1757;8. Dimensional Analysis and Similitude;8.10;8.10. MODELING FLOOD DISCHARGE OVER A SPILLWAY;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1757;8. Dimensional Analysis and Similitude;8.4;8.4. REYNOLDS NUMBER SIMILITUDE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1757;8. Dimensional Analysis and Similitude;8.5;8.5. REYNOLDS NUMBER SIMILITUDE OF A VALVE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1757;8. Dimensional Analysis and Similitude;8.6;8.6. APPLICATION OF PRESSURE COEFFICIENT;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1757;8. Dimensional Analysis and Similitude;8.7;8.7. DRAG FORCE FROM WIND TUNNEL TESTING;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1757;8. Dimensional Analysis and Similitude;8.8;8.8. MEASURING HEAD LOSS IN NOZZLE IN REVERSE FLOW;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1757;8. Dimensional Analysis and Similitude;8.9;8.9. MODEL TESTS FOR DRAG FORCE ON AN AUTOMOBILE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1758;9. Surface Resistance;9.1;9.1. SHEAR STRESS IN COUETTE FLOW;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1758;9. Surface Resistance;9.2;9.2. PRESSURE GRADIENT FOR FLOW BETWEEN PARALLEL PLATES;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1758;9. Surface Resistance;9.3;9.3. LAMINAR BOUNDARY LAYER THICKNESS AND SHEAR STRESS;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1758;9. Surface Resistance;9.4;9.4. RESISTANCE CALCULATION FOR LAMINAR BOUNDARY LAYER ON A FLAT PLATE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1758;9. Surface Resistance;9.5;9.5. TURBULENT BOUNDARY LAYER PROPERTIES;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1758;9. Surface Resistance;9.6;9.6. LAMINAR TURBULENT BOUNDARY LAYER ON FLAT PLATE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1758;9. Surface Resistance;9.7;9.7. RESISTANCE FORCE WITH TRIPPED BOUNDARY LAYER;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1759;10. Flow in Conduits;10.1;10.1. CLASSIFYING FLOW IN CONDUITS;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1759;10. Flow in Conduits;10.2;10.2. HEAD LOSS FOR LAMINAR FLOW;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1759;10. Flow in Conduits;10.3;10.3. HEAD LOSS IN A PIPE 1;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1759;10. Flow in Conduits;10.4;10.4. FLOW RATE IN A PIPE 2;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1759;10. Flow in Conduits;10.7;10.7. PIPE SYSTEM WITH COMBINED HEAD LOSS;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1759;10. Flow in Conduits;10.8;10.8. PRESSURE DROP IN AN HVAC DUCT;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1760;11. Drag and Lift;11.1;11.1. DRAG FORCE ON A CYLINDER;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1760;11. Drag and Lift;11.2;11.2. DRAG ON A SPHERE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1760;11. Drag and Lift;11.3;11.3. SPEED OF A BICYCLE RIDER;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1760;11. Drag and Lift;11.4;11.4. TERMINAL VELOCITY OF A SPHERE IN WATER;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1760;11. Drag and Lift;11.5;11.5. COMPARING DRAG ON BLUFF AND STREAMLINED SHAPES;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1760;11. Drag and Lift;11.6;11.6. LIFT ON A ROTATING SPHERE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1760;11. Drag and Lift;11.7;11.7. WING AREA FOR AN AIRPLANE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1760;11. Drag and Lift;11.8;11.8. TAKEOFF CHARACTERISTICS OF AN AIRPLANE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1760;11. Drag and Lift;11.9;11.9. NEGATIVE LIFT ON A RACE CAR;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1761;12. Compressible Flow;12.1;12.1. SPEED OF SOUND CALCULATION;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1761;12. Compressible Flow;12.10;12.10. NOZZLE EXIT CONDITION;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1761;12. Compressible Flow;12.11;12.11. SHOCK WAVE IN LAVAL NOZZLE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1761;12. Compressible Flow;12.12;12.12. MASS FLOW IN TRUNCATED NOZZLE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1761;12. Compressible Flow;12.2;12.2. MACH NUMBER CALCULATION;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1761;12. Compressible Flow;12.3;12.3. TOTAL TEMPERATURE CALCULATION;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1761;12. Compressible Flow;12.4;12.4. DRAG FORCE ON A SPHERE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1761;12. Compressible Flow;12.5;12.5. PROPERTY CHANGES ACROSS NORMAL SHOCK WAVE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1761;12. Compressible Flow;12.6;12.6. ENTROPY INCREASE ACROSS SHOCK WAVE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1761;12. Compressible Flow;12.7;12.7. TEST SECTION SIZE IN SUPERSONIC WIND TUNNEL;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1761;12. Compressible Flow;12.8;12.8. FLOW PROPERTIES IN SUPERSONIC WIND TUNNEL;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1761;12. Compressible Flow;12.9;12.9. MASS FLOW RATE IN SUPERSONIC WIND TUNNEL;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1762;13. Flow Measurements;13.1;13.1. DISCHARGE FROM VELOCITY DATA;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1762;13. Flow Measurements;13.10;13.10. UNCERTAINTY ESTIMATE FOR AN ORIFICE METER;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1762;13. Flow Measurements;13.3;13.3. ANALYSIS OF AN ORIFICE METER;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1762;13. Flow Measurements;13.4;13.4. MANOMETER DEFLECTION FOR AN ORIFICE METER;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1762;13. Flow Measurements;13.5;13.5. MASS FLOW RATE OF NATURAL GAS;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1762;13. Flow Measurements;13.6;13.6. FLOW RATE USING A VENTURI METER;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1762;13. Flow Measurements;13.7;13.7. FLOW RATE FOR A RECTANGULAR WEIR;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1762;13. Flow Measurements;13.8;13.8. FLOW RATE FOR A TRIANGULAR WEIR;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1762;13. Flow Measurements;13.9;13.9. COMPRESSIBLE FLOW;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1763;14. Turbomachinery;14.10;14.10. IMPULSE TURBINE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1763;14. Turbomachinery;14.11;14.11. FRANCIS TURBINE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1763;14. Turbomachinery;14.12;14.12. CAPTURE AREA OF WIND TURBINE;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1763;14. Turbomachinery;14.2;14.2. DISCHARGE AND POWER FOR AXIAL FLOW PUMP;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1763;14. Turbomachinery;14.3;14.3. HEAD AND POWER FOR AXIAL FLOW PUMP;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1763;14. Turbomachinery;14.4;14.4. SPEED AND DISCHARGE OF CENTRIFUGAL PUMP;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1763;14. Turbomachinery;14.5;14.5. HEAD DISCHARGE AND POWER OF CENTRIFUGAL PUMP;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1763;14. Turbomachinery;14.6;14.6. PUMP SELECTION USING SPECIFIC SPEED;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1763;14. Turbomachinery;14.7;14.7. NET POSITIVE SUCTION HEAD;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1763;14. Turbomachinery;14.8;14.8. VISCOUS EFFECTS ON PUMP EFFICIENCY;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1763;14. Turbomachinery;14.9;14.9. CENTRIFUGAL COMPRESSOR;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1764;15. Flow in Open Channels;15.1;15.1. CONDITIONS FOR LAMINAR OPEN CHANNEL FLOW;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1764;15. Flow in Open Channels;15.2;15.2. ESTIMATING Q FOR UNIFORM FLOW USING DARCY WEISBACH EQUATION;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1764;15. Flow in Open Channels;15.3;15.3. RESISTANCE COEFFICIENT FOR BOULDERS;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1764;15. Flow in Open Channels;15.4;15.4. CALCULATING DISCHARGE AND MANNINGS n USING CHEZY EQUATION;correct;runtime; -629;Engineering Fluid Mechanics(C. T. Crowe, D. F. Elger, B. C. Williams And J. A. Roberson);1764;15. Flow in Open Channels;15.5;15.5. DISCHARGE USING CHEZY EQUATION;correct;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2285;2. Units and Dimensions;2.1;2.1. Mass flow rate;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2285;2. Units and Dimensions;2.2;2.2. Poundal to Newton;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2285;2. Units and Dimensions;2.3;2.3. Conversion of N per m2;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2285;2. Units and Dimensions;2.4;2.4. Thermal conductivity;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2285;2. Units and Dimensions;2.5;2.5. Mass and FPS system;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2285;2. Units and Dimensions;2.6;2.6. Kinetic energy calculation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2285;2. Units and Dimensions;2.7;2.7. Force and pressure for piston cylinder;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2285;2. Units and Dimensions;2.8;2.8. units conversion;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2285;2. Units and Dimensions;2.9;2.9. units conversion;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.1;3.1. pounds per minute to kmol per hour;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.10;3.10. Baume scale;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.11;3.11. Density using API scale;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.12;3.12. Drying Ammonium sulphate;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.13;3.13. Percentage of water removed;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.14;3.14. Amount and percentage water removed;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.15;3.15. NaCl solution;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.16;3.16. Molal absolute humidity;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.17;3.17. K2CO3 solution;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.18;3.18. Molarity and Molality of Alcohol solution;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.19;3.19. CO to phosgene;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.2;3.2. Number of molecules;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.20;3.20. Extent of reaction;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.21;3.21. ethylene to ethanol;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.3;3.3. Moles of sodium sulphate;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.4;3.4. Pyrites and oxygen moles;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.5;3.5. Volume of oxygen;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.6;3.6. Reaction of iron and steel;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.7;3.7. Equivalent weight;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.8;3.8. Specific gravity calculation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2286;3. Fundamental concepts of stoichiometry;3.9;3.9. Specific gravity of mixture;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2294;4. Ideal Gases and Gas Mixtures;4.1;4.1. gas constant R;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2294;4. Ideal Gases and Gas Mixtures;4.10;4.10. Absorption column for H2S;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2294;4. Ideal Gases and Gas Mixtures;4.11;4.11. Reaction stoichiometry for preparation of ammonia;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2294;4. Ideal Gases and Gas Mixtures;4.12;4.12. Reaction stoichiometry for preparation of producer gas;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2294;4. Ideal Gases and Gas Mixtures;4.13;4.13. Reaction stoichiometry for preparation of Chlorine from HCl;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2294;4. Ideal Gases and Gas Mixtures;4.14;4.14. Reaction stoichiometry for dissociation of Carbon Dioxide;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2294;4. Ideal Gases and Gas Mixtures;4.2;4.2. Molar volume of air;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2294;4. Ideal Gases and Gas Mixtures;4.3;4.3. Ideal gas equation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2294;4. Ideal Gases and Gas Mixtures;4.4;4.4. Maximum allowable temperature of tyre;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2294;4. Ideal Gases and Gas Mixtures;4.5;4.5. Pressure calculation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2294;4. Ideal Gases and Gas Mixtures;4.6;4.6. weight composition and density calculation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2294;4. Ideal Gases and Gas Mixtures;4.7;4.7. calculations for natural gas;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2294;4. Ideal Gases and Gas Mixtures;4.8;4.8. Volume of gas from absorption columnn;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2294;4. Ideal Gases and Gas Mixtures;4.9;4.9. dehumidification;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2295;5. Properties of Real Gases;5.1;5.1. Van der waals equation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2295;5. Properties of Real Gases;5.2;5.2. Van der waals equation for CO2 gas;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2295;5. Properties of Real Gases;5.3;5.3. Redlich Kwong equation for gaseous ammonia;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2295;5. Properties of Real Gases;5.4;5.4. Molar Volume calculation for gaseous ammonia;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2295;5. Properties of Real Gases;5.5;5.5. virial equation of state;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2295;5. Properties of Real Gases;5.6;5.6. Lyderson method for n butane;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2295;5. Properties of Real Gases;5.7;5.7. Pitzer correlation for n butane;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2295;5. Properties of Real Gases;5.8;5.8. Molar volume by different methods;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2295;5. Properties of Real Gases;5.9;5.9. Van der waals equation and Kays method;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2296;6. Vapour Pressure;6.1;6.1. Quality of steam;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2296;6. Vapour Pressure;6.2;6.2. Calculation of vapour pressure;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2296;6. Vapour Pressure;6.3;6.3. Clausius Clapeyron equation for acetone;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2296;6. Vapour Pressure;6.4;6.4. Antoine equation for n heptane;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2296;6. Vapour Pressure;6.5;6.5. Cox chart;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2296;6. Vapour Pressure;6.6;6.6. Duhring line;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2297;7. Solutions and Phase Behaviour;7.1;7.1. composition calculation of Liquid and vapour at equilibrium;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2297;7. Solutions and Phase Behaviour;7.10;7.10. Dew point temperature and pressure;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2297;7. Solutions and Phase Behaviour;7.11;7.11. bubble point and dew point;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2297;7. Solutions and Phase Behaviour;7.12;7.12. component calculations;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2297;7. Solutions and Phase Behaviour;7.13;7.13. equilibrium temperature and composition;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2297;7. Solutions and Phase Behaviour;7.14;7.14. Temperature composition diagram;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2297;7. Solutions and Phase Behaviour;7.15;7.15. Boiling point calculation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2297;7. Solutions and Phase Behaviour;7.2;7.2. Composition and total pressure calculation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2297;7. Solutions and Phase Behaviour;7.3;7.3. Mole fraction calculation for particular component in liquid vapour mixture;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2297;7. Solutions and Phase Behaviour;7.4;7.4. Flash vapourization of benzene toluene mixture;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2297;7. Solutions and Phase Behaviour;7.5.a;7.5.a. Boiling point diagram;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2297;7. Solutions and Phase Behaviour;7.5.b;7.5.b. Equilibrium Diagram;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2297;7. Solutions and Phase Behaviour;7.6;7.6. Bubble point temperature and vapour composition;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2297;7. Solutions and Phase Behaviour;7.7;7.7. Dew point temperature pressure and concentration;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2297;7. Solutions and Phase Behaviour;7.8;7.8. Partial pressure of acetaldehyde;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2297;7. Solutions and Phase Behaviour;7.9;7.9. Raults law application;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2298;8. Humidity and Humidity chart;8.1;8.1. Nitrogen and ammonia gas mixture;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2298;8. Humidity and Humidity chart;8.10;8.10. Saturation lines for hexane;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2298;8. Humidity and Humidity chart;8.11;8.11. Psychometric chart application;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2298;8. Humidity and Humidity chart;8.12;8.12. Humid heat calculation for a sample of air;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2298;8. Humidity and Humidity chart;8.14;8.14. wet bulb temperature and dry bulb temperature;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2298;8. Humidity and Humidity chart;8.15;8.15. Humidity calculation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2298;8. Humidity and Humidity chart;8.16;8.16. SAturation curve and adiabatic cooling line;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2298;8. Humidity and Humidity chart;8.17;8.17. Adiabatic drier;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2298;8. Humidity and Humidity chart;8.18;8.18. Psychometric chart application;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2298;8. Humidity and Humidity chart;8.19;8.19. Psychometric chart application and given wet bulb and dry bulb temperature;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2298;8. Humidity and Humidity chart;8.2;8.2. Benzene vapour air mixture;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2298;8. Humidity and Humidity chart;8.3;8.3. Evaporation of acetone using dry air;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2298;8. Humidity and Humidity chart;8.4;8.4. Humidity for acetone vapour and nitrogen gas mixture;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2298;8. Humidity and Humidity chart;8.5;8.5. Percent saturation and relative saturation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2298;8. Humidity and Humidity chart;8.6;8.6. Analysis of Moist air;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2298;8. Humidity and Humidity chart;8.7;8.7. Heating value calculation for a fuel gas;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2298;8. Humidity and Humidity chart;8.8;8.8. Analysis of nitrogen benzene mixture;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2298;8. Humidity and Humidity chart;8.9;8.9. Drying;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.1;9.1. Combustion of coal;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.10;9.10. Extraction;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.11;9.11. Leaching operation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.12;9.12. Dryer and oven;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.13;9.13. Adiabatic drier;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.14;9.14. Extraction of isopropyl alcohol;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.15;9.15. Absorption of acetone;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.16;9.16. Absorption of SO3;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.17;9.17. Continuous distillation column;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.18;9.18. Distillation operation for methanol solution;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.19;9.19. Bypass operation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.2;9.2. Drying of wood;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.20;9.20. Recycle operation centrifuge plus filter;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.21;9.21. Recycle operation granulator and drier;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.22;9.22. Blowdown operation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.3;9.3. Effluent discharge;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.4;9.4. benzene requirement calculation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.5;9.5. Fortification of waste acid;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.6;9.6. Triple effect evaporator;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.7;9.7. Crystallization operation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.8;9.8. Evaporation of Na2CO3;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2299;9. Material Balance in Unit Operations;9.9;9.9. Crystallization;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.1;10.1. Combustion of propane;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.10;10.10. Burning of limestone mixed with coke;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.11;10.11. treating limestone with aqueous H2SO4;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.12;10.12. Production of TSP;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.13;10.13. Production of sodium phosphate;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.14;10.14. Production of pig iron;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.15;10.15. Production of nitric acid;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.16;10.16. Material balance in nitric acid production;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.17;10.17. Electrolysis of brine;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.18;10.18. Preparation of Formaldehyde;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.19;10.19. Recycle operation reactor and separator;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.2;10.2. Combustion of hydrogen free coke;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.20;10.20. Conversion of sugar to glucose and fructose;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.21;10.21. Purging operation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.22;10.22. Purging operation for production of methanol;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.3;10.3. Combustion of fuel oil;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.4;10.4. Combustion of producer gas;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.5;10.5. Combustion of coal;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.6;10.6. Stoichiometric analysis of combustion of coal;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.7;10.7. Orsat analysis;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.8;10.8. Burning of pyrites;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2300;10. Material Balance with Chemical Reaction;10.9;10.9. Production of sulphuric acid;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.1;11.1. Power calculation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.10;11.10. Heat capacity;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.11;11.11. Enthalpy change when chlorine gas is heated;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.12;11.12. Molal heat capacity;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.13;11.13. Enthalpy change of a gas;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.14;11.14. Combustion of solid waste;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.15;11.15. Heat capacity calculation for Na2SO4 10H2O;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.16;11.16. Heat of vaporization calculation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.17;11.17. Heat requirement;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.18;11.18. Equilibrium temperature of mixture;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.19;11.19. Estimation of mean heat of vaporisation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.2;11.2. Kinetic energy calculation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.20;11.20. Heat of vaporization of methyl chloride;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.21;11.21. Watson equation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.22;11.22. Kistyakowsky equation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.23;11.23. Quality of steam;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.24;11.24. Heat calculation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.25;11.25. Enthalpy balance for evaporation process;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.26;11.26. Mean heat capacity of ethanol water solution;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.27;11.27. Evaporation of NaOH solution;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.28;11.28. Heat transfer to air;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.29;11.29. change in internal energy;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.3;11.3. Work done calculation for a gas confined in a cylinder;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.30;11.30. Heat liberation in oxidation of iron fillings;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.31;11.31. Saturated steam and saturated water;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.32;11.32. constant volume and constant pressure process;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.33;11.33. series of operations;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.34;11.34. change in internal energy and enthalpy and heat supplied and work done;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.35;11.35. Heat removed in condenser;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.36;11.36. Throttling process;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.37;11.37. water pumping and energy balances;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.38;11.38. Energy balance on rotary drier;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.39;11.39. Energy balance on the fractionator;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.4;11.4. Power requirement of the pump;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.5;11.5. Specific enthalpy of the fluid in the tank;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.6;11.6. internal energy and enthalpy change calculation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.7;11.7. change in internal energy;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.8;11.8. reaction of iron with HCl;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2301;11. Energy Balance Thermophysics;11.9;11.9. Thermic fluid;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2302;12. Energy Balance Thermochemistry;12.1;12.1. Heat liberated calculation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2302;12. Energy Balance Thermochemistry;12.10;12.10. Standard heat of reaction calculation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2302;12. Energy Balance Thermochemistry;12.11;12.11. Constant pressure heat of combustion;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2302;12. Energy Balance Thermochemistry;12.12;12.12. Heat of reaction for ammonia synthesis;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2302;12. Energy Balance Thermochemistry;12.13;12.13. Standard heat of reaction of methanol synthesis;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2302;12. Energy Balance Thermochemistry;12.14;12.14. Combustion of CO;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2302;12. Energy Balance Thermochemistry;12.15;12.15. Heat added or removed calculation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2302;12. Energy Balance Thermochemistry;12.16;12.16. CO2 O2 and N2 passed through a bed of C;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2302;12. Energy Balance Thermochemistry;12.17;12.17. Partial oxidation of natural gas;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2302;12. Energy Balance Thermochemistry;12.18;12.18. Maximum allowable conversion calculation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2302;12. Energy Balance Thermochemistry;12.19;12.19. Theoretical flame temperature calculation;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2302;12. Energy Balance Thermochemistry;12.2;12.2. Heat of formation of methane;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2302;12. Energy Balance Thermochemistry;12.20;12.20. Temperature of products on burning of hydrogen gas;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2302;12. Energy Balance Thermochemistry;12.3;12.3. Net heating value of coal;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2302;12. Energy Balance Thermochemistry;12.4;12.4. Heat of reaction for esterification of ethyl alcohol;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2302;12. Energy Balance Thermochemistry;12.5;12.5. Vapour phase hydration of ethylene to ethanol;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2302;12. Energy Balance Thermochemistry;12.6;12.6. Standard heat of formation of acetylene;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2302;12. Energy Balance Thermochemistry;12.7;12.7. Standard heat of roasting of iron pyrites;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2302;12. Energy Balance Thermochemistry;12.8;12.8. Standard heat of formation of liquid methanol;error;runtime; -632;Stoichiometry And Process Calculations(K. V. Narayanan And B. Lakshmikutty);2302;12. Energy Balance Thermochemistry;12.9;12.9. Gross heating value and Net heating value calculation;error;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2311;1. Atoms in Crystals;1.1;1.1. Relationship among cyrstal elements;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2311;1. Atoms in Crystals;1.17;1.17. Angle between two crystal directions;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2311;1. Atoms in Crystals;1.18;1.18. Angle between two directions of cubic crystal;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2311;1. Atoms in Crystals;1.19;1.19. Miller indices of the crystal plane;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2311;1. Atoms in Crystals;1.2;1.2. Primitive unit cell;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2311;1. Atoms in Crystals;1.20;1.20. Indices of lattice plane;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2311;1. Atoms in Crystals;1.21;1.21. Length of the intercepts;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2311;1. Atoms in Crystals;1.22;1.22. Miller indices of lattice planes;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2311;1. Atoms in Crystals;1.23;1.23. Indices of tetragonal lattice;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2311;1. Atoms in Crystals;1.24;1.24. Miller Bravias indices for Miller indices;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2311;1. Atoms in Crystals;1.25;1.25. Miller Bravias indices of lattice plane;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2311;1. Atoms in Crystals;1.26;1.26. Lattice parameter of a cubic crystal;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2311;1. Atoms in Crystals;1.27;1.27. Interplanar spacing in tetragonal crystal;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2311;1. Atoms in Crystals;1.28;1.28. Interplanar spacing in cubic crystal;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2311;1. Atoms in Crystals;1.3;1.3. Number of Lattice points per unit cell;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2311;1. Atoms in Crystals;1.4;1.4. Lattice constant of a unit cell;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2311;1. Atoms in Crystals;1.5;1.5. Density of diamond;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2311;1. Atoms in Crystals;1.6;1.6. Calculating Unit cell dimensions;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2312;2. Atomic Bonding;2.1;2.1. Molecular stability based on bond dissociation energy;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2312;2. Atomic Bonding;2.2;2.2. Conversion of eV into kcal per mol;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2312;2. Atomic Bonding;2.3;2.3. Potential energy of the ionic solids;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2312;2. Atomic Bonding;2.4;2.4. Compressibility and energy of ionic crystal;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2312;2. Atomic Bonding;2.5;2.5. Potential energy and dissociation energy of a diatomic molecule;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2312;2. Atomic Bonding;2.6;2.6. Binding force and critical separation of a diatomic molecule;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2312;2. Atomic Bonding;2.7;2.7. Bond formation energy of ionic solid;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2312;2. Atomic Bonding;2.8;2.8. Energy liberation during electron transfer;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2313;3. Atomic Packing;3.1;3.1. Packing of spheres in 2D square lattice;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2313;3. Atomic Packing;3.2;3.2. Packing efficiency in diamond structure;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2313;3. Atomic Packing;3.3;3.3. Radius of largest sphere at octahedral void;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2313;3. Atomic Packing;3.4;3.4. Radius of largest sphere at tetrahedral void;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2313;3. Atomic Packing;3.5;3.5. Diameter of the largest atom at tetrahedral void;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2313;3. Atomic Packing;3.6;3.6. Void space in cubic close packing;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2313;3. Atomic Packing;3.7;3.7. The Minimum value of radius ratio in a compound;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2314;4. Atomic Shape and Size;4.1;4.1. Bohr orbit for the hydrogen atom;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2314;4. Atomic Shape and Size;4.2;4.2. Ionization potentials of hydrogen atom;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2314;4. Atomic Shape and Size;4.3;4.3. Univalent radii of ions;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2314;4. Atomic Shape and Size;4.4;4.4. Ionic Radius of Si ions in silicon dioxide;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2314;4. Atomic Shape and Size;4.5;4.5. Ionic Radius occupying an octahedral position;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2314;4. Atomic Shape and Size;4.6;4.6. Percentage ionic character of a covalent molecule;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2314;4. Atomic Shape and Size;4.7;4.7. Metallic radius from unit cell dimension;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2314;4. Atomic Shape and Size;4.8;4.8. Metallic radii from unit cell dimension;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2314;4. Atomic Shape and Size;4.9;4.9. Metallic diameter and unit cell dimension of aluminium;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.1;5.1. Variation of atomic fraction with temperature;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.10;5.10. Resolved componet of shearing force in a given direction;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.11;5.11. Dependence of applied stress on the slip direction;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.12;5.12. Resolved stress in a direction from applied stress in other direction;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.13;5.13. Critical resolved shear stress from applied stress in a given direction;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.14;5.14. Initiation of slip by the applied stress;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.15;5.15. Applied tensile stress in a direction to initiate plastic deformation;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.16;5.16. Dislocation width in copper;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.17;5.17. Change in number of vacancies due to disloaction motion;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.18;5.18. Minimum number of dislocations in motion from shearing rate;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.19;5.19. Elastic energy of line imperfection;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.2;5.2. Vacancy formation in copper;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.20;5.20. Spacing between dislocations in a tilt boundary;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.21;5.21. Tilt angle from dislocation spacing in the boundary;error;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.22;5.22. Tilt angle from dislocation spacing;error;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.3;5.3. Concentration of Schottky imperfections;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.4;5.4. Number of Schottky imperfections in NaCl crystal;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.5;5.5. Average energy required to create one Schottky defect;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.6;5.6. Ratio of Frenkel defects at two different temperatures;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.7;5.7. Dislocation density of bcc structure of iron;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.8;5.8. Minimum dislocation density in aluminium;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2315;5. Crystal Imperfections;5.9;5.9. Total force from its resolved component in a given direction;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2316;6. Atomic Diffusion;6.1;6.1. Rate of diffusion of nitrogen through steel wall;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2316;6. Atomic Diffusion;6.10;6.10. Activation energy for diffusion rates at different temperatures;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2316;6. Atomic Diffusion;6.11;6.11. Time required for carburizing of steel;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2316;6. Atomic Diffusion;6.12;6.12. Carbon concentration of carburized steel at certain depth;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2316;6. Atomic Diffusion;6.13;6.13. Depth of decarburization below the surface of steel;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2316;6. Atomic Diffusion;6.14;6.14. Diffusion depth of P type semiconductor;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2316;6. Atomic Diffusion;6.2;6.2. Rate of diffusion of copper through pure Al sheet;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2316;6. Atomic Diffusion;6.3;6.3. Rate of diffusion of carbon through steel bar;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2316;6. Atomic Diffusion;6.4;6.4. Diffusion through a cylinder;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2316;6. Atomic Diffusion;6.5;6.5. Diffusion length of Li in Ge;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2316;6. Atomic Diffusion;6.6;6.6. Diffusion time of Li in Ge;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2316;6. Atomic Diffusion;6.7;6.7. Diffusion coefficent of Cu in Al;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2316;6. Atomic Diffusion;6.8;6.8. Activation energy for diffusion of Ag in Si;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2316;6. Atomic Diffusion;6.9;6.9. Arrhenius rate law;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2317;7. Lattice or Atomic Vibrations;7.1;7.1. Cut off frequency of the linear lattice of a solid;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2317;7. Lattice or Atomic Vibrations;7.2;7.2. Comparison of frequency of waves in a monoatomic and diatomic linear systems;error;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2317;7. Lattice or Atomic Vibrations;7.3;7.3. Reflection of electromagentic radiation from a crystal;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2318;8. Diffraction of Waves and Particles by Crystals;8.1;8.1. Shortest wavelength and frequency of X rays from accelerating potential;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2318;8. Diffraction of Waves and Particles by Crystals;8.10;8.10. Angle of reflection by using wavelength of X rays;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2318;8. Diffraction of Waves and Particles by Crystals;8.11;8.11. Wavelength of diffracted X rays;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2318;8. Diffraction of Waves and Particles by Crystals;8.12;8.12. Reciprocal lattice parameters from 2D direct lattice parameters;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2318;8. Diffraction of Waves and Particles by Crystals;8.13;8.13. Bragg angle and the indices of diffraction of Powder Lines;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2318;8. Diffraction of Waves and Particles by Crystals;8.14;8.14. Minimum distance from the centre of the Laue pattern;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2318;8. Diffraction of Waves and Particles by Crystals;8.15;8.15. Unit cell height along the axis of a rotation photograph;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2318;8. Diffraction of Waves and Particles by Crystals;8.16;8.16. Diffraction of thermal neutrons from planes of Ni crystal;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2318;8. Diffraction of Waves and Particles by Crystals;8.17;8.17. Diffraction of electrons from fcc crystal planes;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2318;8. Diffraction of Waves and Particles by Crystals;8.2;8.2. Impinging electrons on the target and characteristics of X rays;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2318;8. Diffraction of Waves and Particles by Crystals;8.3;8.3. Wavelength of characteristic X rays;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2318;8. Diffraction of Waves and Particles by Crystals;8.4;8.4. Atomic number of an unknown element;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2318;8. Diffraction of Waves and Particles by Crystals;8.5;8.5. Wavelength of copper using Moseley law;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2318;8. Diffraction of Waves and Particles by Crystals;8.6;8.6. Atomic number from wavelength using Moseley law;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2318;8. Diffraction of Waves and Particles by Crystals;8.7;8.7. Wavelengths of tin and barium using Moseley law;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2318;8. Diffraction of Waves and Particles by Crystals;8.8;8.8. Percentage transmitted energy of X rays;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2318;8. Diffraction of Waves and Particles by Crystals;8.9;8.9. Thickness of lead piece by using two equal intensity X ray wavelengths;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2319;9. Thermal Properties of Materials;9.1;9.1. Exception of Dulong Petit law at room temperature;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2319;9. Thermal Properties of Materials;9.2;9.2. Specific heat of copper from Debye temperature;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2319;9. Thermal Properties of Materials;9.3;9.3. Vibrational frequency and molar heat capacity of diamond;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2319;9. Thermal Properties of Materials;9.4;9.4. Debye temperature of copper at low temperature;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2319;9. Thermal Properties of Materials;9.5;9.5. Debye temperature for gold;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2319;9. Thermal Properties of Materials;9.6;9.6. Heat transference into rock salt at low temperature;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2320;10. Free Electrons in Crystals;10.1;10.1. Particle moving in one dimensional potential well;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2320;10. Free Electrons in Crystals;10.10;10.10. Electron mobility inside conductors;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2320;10. Free Electrons in Crystals;10.11;10.11. Lorentz number calculation of a solid;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2320;10. Free Electrons in Crystals;10.12;10.12. Increase in electrical resistivity of a metal with temperature;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2320;10. Free Electrons in Crystals;10.13;10.13. Thermionic emission of a filament;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2320;10. Free Electrons in Crystals;10.14;10.14. Hall coefficient of sodium based on free electron model;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2320;10. Free Electrons in Crystals;10.2;10.2. Motion of a ground state electron in a 3D potential well;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2320;10. Free Electrons in Crystals;10.3;10.3. Motion of an electron excited next to the ground state in a 3D potential well;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2320;10. Free Electrons in Crystals;10.4;10.4. Degeneracy of energy level;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2320;10. Free Electrons in Crystals;10.5;10.5. Fermi energy of zinc at absolute zero;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2320;10. Free Electrons in Crystals;10.6;10.6. Electron probability above Fermi energy;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2320;10. Free Electrons in Crystals;10.7;10.7. The electroic specific heat of Cu;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2320;10. Free Electrons in Crystals;10.8;10.8. Electrical resitivity of sodium metal;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2320;10. Free Electrons in Crystals;10.9;10.9. Electrical conductivity of Cu;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2321;11. Band Theory;11.2;11.2. Ratio between kinetic energy of an electron in 2D square lattice;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2322;13. Semiconducting Properties of Materials;13.10;13.10. Forward current of a pn diode using diode equation;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2322;13. Semiconducting Properties of Materials;13.11;13.11. Voltage from net forward current using Diode Equation;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2322;13. Semiconducting Properties of Materials;13.3;13.3. Intrinsic concentration of charge carriers in semiconductors;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2322;13. Semiconducting Properties of Materials;13.4;13.4. Comparison of intrinsic carrier densities of two semiconductors;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2322;13. Semiconducting Properties of Materials;13.5;13.5. Shift in fermi level with change in concentration of impurities;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2322;13. Semiconducting Properties of Materials;13.6;13.6. Electrical resistivity of Ge;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2322;13. Semiconducting Properties of Materials;13.7;13.7. Electrical conductivity of intrinsic and extrinsic Si;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2322;13. Semiconducting Properties of Materials;13.8;13.8. Resistance of intrinsic Ge Rod;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2322;13. Semiconducting Properties of Materials;13.9;13.9. Hall effect in Si semiconductor;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2323;14. Dielectric Properties of Materials;14.1;14.1. Polarization of water molecule;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2323;14. Dielectric Properties of Materials;14.2;14.2. Dielectric constant from electric polarizability of the atom;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2323;14. Dielectric Properties of Materials;14.3;14.3. Electric polarizability of a molecule from its susceptibility;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2323;14. Dielectric Properties of Materials;14.4;14.4. Electric polarizability of oxygen atom;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2323;14. Dielectric Properties of Materials;14.5;14.5. Dipolar polarization of HCl molecule;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2323;14. Dielectric Properties of Materials;14.6;14.6. Effect of molecular deformation on polarizability;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2324;15. Optical Properties of Materials;15.1;15.1. Photon count from Planck quantum law;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2324;15. Optical Properties of Materials;15.2;15.2. Inicient energy of photon in photoelectric effect;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2324;15. Optical Properties of Materials;15.3;15.3. photon count for green wavelength of Hg;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2324;15. Optical Properties of Materials;15.4;15.4. Photoelectric effect in a photocell;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2324;15. Optical Properties of Materials;15.5;15.5. Energy required to stimulate the emission of Na doublets;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2325;16. Magnetic Properties of Materials;16.1;16.1. Response of copper to magnetic field;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2325;16. Magnetic Properties of Materials;16.2;16.2. Diamagnetic susceptibility of copper;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2325;16. Magnetic Properties of Materials;16.3;16.3. Magnetic induction from orientational energy equivalent of thermal energy;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2325;16. Magnetic Properties of Materials;16.4;16.4. Behaviour of paramagnetic salt when placed in uniform magnetic field;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2326;17. Superconductivity;17.1;17.1. Variation of critical magnetic field with temperature;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2326;17. Superconductivity;17.2;17.2. Temperature variation of critical magnetic field for tin;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2326;17. Superconductivity;17.3;17.3. Critical current for a lead wire from its critical temperature;correct;runtime; -635;Solid State Physics: Structure And Properties Of Materials(M. A. Wahab);2326;17. Superconductivity;17.4;17.4. Dependence of London penetration depth on temperature;correct;runtime; -644;A Textbook Of Electrical Technology: Volume I - Basic Electrical Engineering(B. L. Theraja And A. K. Theraja);1529;1. Electric Current and Ohms Law;1.1;1.1. complete chapter;correct;runtime; -644;A Textbook Of Electrical Technology: Volume I - Basic Electrical Engineering(B. L. Theraja And A. K. Theraja);1529;1. Electric Current and Ohms Law;1.2;1.2. complete chapter;error;runtime; -644;A Textbook Of Electrical Technology: Volume I - Basic Electrical Engineering(B. L. Theraja And A. K. Theraja);1529;1. Electric Current and Ohms Law;1.3;1.3. complete chapter;correct;runtime; -644;A Textbook Of Electrical Technology: Volume I - Basic Electrical Engineering(B. L. Theraja And A. K. Theraja);1529;1. Electric Current and Ohms Law;1.4;1.4. complete chapter;correct;runtime; -644;A Textbook Of Electrical Technology: Volume I - Basic Electrical Engineering(B. L. Theraja And A. K. Theraja);1529;1. Electric Current and Ohms Law;1.5;1.5. complete chapter;error;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1932;1. Introduction and Basic Concepts;1.1;1.1. Importance of Units and Dimensions;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1932;1. Introduction and Basic Concepts;1.10;1.10. Power;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1932;1. Introduction and Basic Concepts;1.11;1.11. Power;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1932;1. Introduction and Basic Concepts;1.12;1.12. Temperature and Ideal Gas Temperature Scale;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1932;1. Introduction and Basic Concepts;1.13;1.13. Temperature and Ideal Gas Temperature Scale;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1932;1. Introduction and Basic Concepts;1.2;1.2. Importance of Units and Dimensions;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1932;1. Introduction and Basic Concepts;1.3;1.3. Importance of Units and Dimensions;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1932;1. Introduction and Basic Concepts;1.4;1.4. Importance of Units and Dimensions;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1932;1. Introduction and Basic Concepts;1.5;1.5. Pressure;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1932;1. Introduction and Basic Concepts;1.6;1.6. Work;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1932;1. Introduction and Basic Concepts;1.7;1.7. Work;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1932;1. Introduction and Basic Concepts;1.8;1.8. Energy;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1932;1. Introduction and Basic Concepts;1.9;1.9. Energy;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1933;2. First Law of Thermodynamics;2.1;2.1. First Law of thermodynamics for closed system;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1933;2. First Law of Thermodynamics;2.10;2.10. Reversible Adiabatic Expansion of Real Gas;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1933;2. First Law of Thermodynamics;2.11;2.11. Reversible Adiabatic Expansion of Real Gas;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1933;2. First Law of Thermodynamics;2.12;2.12. Adiabatic and Isothermal Process;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1933;2. First Law of Thermodynamics;2.13;2.13. Isochoric and Isobaric Process;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1933;2. First Law of Thermodynamics;2.14;2.14. Adiabatic and Isothermal Process;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1933;2. First Law of Thermodynamics;2.15;2.15. Reversible Isothermal Expansion;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1933;2. First Law of Thermodynamics;2.16;2.16. Compression of ideal gas;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1933;2. First Law of Thermodynamics;2.17;2.17. Work done by gas;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1933;2. First Law of Thermodynamics;2.18;2.18. Work Requirement;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1933;2. First Law of Thermodynamics;2.19;2.19. Energy balance for open system;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1933;2. First Law of Thermodynamics;2.2;2.2. First Law of Thermodynamics for Closed System;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1933;2. First Law of Thermodynamics;2.3;2.3. First Law of Thermodynamics for Closed System;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1933;2. First Law of Thermodynamics;2.4;2.4. First Law of Thermodynamics for Closed System;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1933;2. First Law of Thermodynamics;2.5;2.5. First Law of Thermodynamics for Closed System;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1933;2. First Law of Thermodynamics;2.6;2.6. Enthalpy;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1933;2. First Law of Thermodynamics;2.7;2.7. Enthalpy;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1933;2. First Law of Thermodynamics;2.8;2.8. Enthalpy;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);1933;2. First Law of Thermodynamics;2.9;2.9. Heat Capacity;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2008;3. Properties Of Pure Substances;3.1;3.1. Ideal Gas Equation of State;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2008;3. Properties Of Pure Substances;3.10;3.10. Isothermal Process;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2008;3. Properties Of Pure Substances;3.11;3.11. Acentric Factor;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2008;3. Properties Of Pure Substances;3.2;3.2. Ideal Gas Equation of State;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2008;3. Properties Of Pure Substances;3.3;3.3. Ideal Gas Equation of State;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2008;3. Properties Of Pure Substances;3.4;3.4. Ideal Gas Equation of State;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2008;3. Properties Of Pure Substances;3.5;3.5. Van der waal equation of state;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2008;3. Properties Of Pure Substances;3.6;3.6. Cubic Equation of State;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2008;3. Properties Of Pure Substances;3.7;3.7. Van der waal equation of state;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2008;3. Properties Of Pure Substances;3.8;3.8. Virial Equation of state;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2008;3. Properties Of Pure Substances;3.9;3.9. Isothermal Process;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2009;4. Heat Effects;4.1;4.1. Relation between Qp and Qv;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2009;4. Heat Effects;4.10;4.10. Effect of Temperature on Heat of Reaction;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2009;4. Heat Effects;4.11;4.11. Effect of Temperature on Heat of Reaction;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2009;4. Heat Effects;4.2;4.2. Standard Heat of Reaction;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2009;4. Heat Effects;4.3;4.3. Standard Heat of Formation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2009;4. Heat Effects;4.4;4.4. Standard Heat of Formation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2009;4. Heat Effects;4.5;4.5. Standard Heat of Formation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2009;4. Heat Effects;4.6;4.6. Standard Heat of Combustion;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2009;4. Heat Effects;4.7;4.7. Adiabatic Flame Temperature;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2009;4. Heat Effects;4.8;4.8. Adiabatic Flame Temperature;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2009;4. Heat Effects;4.9;4.9. Effect of Temperature on Heat of Reaction;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.1;5.1. Efficiency of Carnot Cycle;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.10;5.10. Calculation of Entropy Changes;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.11;5.11. Entropy Change in a mixture of Non Identical Ideal Gas;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.12;5.12. Entropy Change in a mixture of Non Identical Ideal Gas;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.13;5.13. Entropy Changes with Temperature;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.14;5.14. Entropy Changes with Temperature;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.15;5.15. Entropy Changes with Temperature;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.16;5.16. Entropy Changes with Temperature;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.17;5.17. Entropy Changes with Temperature;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.18;5.18. Entropy Changes with Temperature;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.19;5.19. Mathematical Statement of Second Law of Thermodynamics;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.2;5.2. Efficiency of Carnot Cycle;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.20;5.20. Mathematical Statement of Second Law of Thermodynamics;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.21;5.21. Mathematical Statement of Second Law of Thermodynamics;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.22;5.22. Mathematical Statement of Second Law of Thermodynamics;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.23;5.23. Mathematical Statement of Second Law of Thermodynamics;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.24;5.24. Irreversibility and Lost Work;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.25;5.25. Irreversibility and Lost Work;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.3;5.3. Efficiency of Carnot Cycle;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.4;5.4. Efficiency of Carnot Cycle;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.5;5.5. Efficiency of Carnot Cycle;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.6;5.6. Efficiency of Carnot Cycle;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.7;5.7. Calculation of Entropy Changes;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.8;5.8. Calculation of Entropy Changes;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2248;5. Second Law of Thermodynamics;5.9;5.9. Calculation of Entropy Changes;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.1;6.1. Thermodynamic Properties;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.10;6.10. Isothermal Compressibility and Volume Expansivity;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.11;6.11. Isothermal Compressibility and Volume Expansivity;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.12;6.12. Isothermal Compressibility and Volume Expansivity;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.13;6.13. Isothermal Compressibility and Volume Expansivity;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.14;6.14. Isothermal Compressibility and Volume Expansivity;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.15;6.15. Isothermal Compressibility and Volume Expansivity;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.16;6.16. Isothermal Compressibility and Volume Expansivity;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.17;6.17. Isothermal Compressibility and Volume Expansivity;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.18;6.18. Isothermal Compressibility and Volume Expansivity;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.19;6.19. Joule Thomson Effect;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.2;6.2. Clapeyron Equation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.20;6.20. Joule Thomson Effect;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.21;6.21. Joule Thomson Effect;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.22;6.22. Residual Properties from Virial Equation of State;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.23;6.23. Residual Properties from Cubic Equation of State;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.24;6.24. Fugacity and Fugacity Coeffecient;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.3;6.3. Clapeyron Equation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.4;6.4. Clapeyron Equation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.5;6.5. Clapeyron Equation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.6;6.6. Heat Capacity Relations;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.7;6.7. Heat Capacity Relations;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.8;6.8. Isothermal Compressibility and Volume Expansivity;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2251;6. Thermodynamic Property Relations;6.9;6.9. Isothermal Compressibility and Volume Expansivity;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2253;7. Thermodynamics to Flow Processes;7.1;7.1. Steady Flow Process and Devices;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2253;7. Thermodynamics to Flow Processes;7.10;7.10. Nozzles and Diffusers;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2253;7. Thermodynamics to Flow Processes;7.11;7.11. Nozzles and Diffusers;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2253;7. Thermodynamics to Flow Processes;7.2;7.2. Steady Flow Processes and Devices;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2253;7. Thermodynamics to Flow Processes;7.3;7.3. Energy Analysis of Control Volume;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2253;7. Thermodynamics to Flow Processes;7.4;7.4. Compressor;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2253;7. Thermodynamics to Flow Processes;7.5;7.5. Compressor;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2253;7. Thermodynamics to Flow Processes;7.6;7.6. Heat Exchangers;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2253;7. Thermodynamics to Flow Processes;7.7;7.7. Heat Exchangers;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2253;7. Thermodynamics to Flow Processes;7.8;7.8. Nozzles and Diffusers;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2253;7. Thermodynamics to Flow Processes;7.9;7.9. Nozzles and Diffusers;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2254;8. Refrigeration and Liquefaction Processes;8.1;8.1. Carnot Refrigeration Cycle;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2254;8. Refrigeration and Liquefaction Processes;8.10;8.10. Air Refrigeration Cycle;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2254;8. Refrigeration and Liquefaction Processes;8.2;8.2. Carnot Refrigeration Cycle;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2254;8. Refrigeration and Liquefaction Processes;8.3;8.3. Carnot Refrigeration Cycle;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2254;8. Refrigeration and Liquefaction Processes;8.4;8.4. Carnot Refrigeration Cycle;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2254;8. Refrigeration and Liquefaction Processes;8.5;8.5. Carnot Refrigeration Cycle;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2254;8. Refrigeration and Liquefaction Processes;8.6;8.6. Vapour Compression Refrigeration Cycle;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2254;8. Refrigeration and Liquefaction Processes;8.7;8.7. Vapour Compression Refrigeration Cycle;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2254;8. Refrigeration and Liquefaction Processes;8.8;8.8. Vapour Compression Refrigeration Cycle;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2254;8. Refrigeration and Liquefaction Processes;8.9;8.9. Absorption Refrigeration Cycle;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.1;9.1. Partial Molar Properties;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.10;9.10. Fugacity of Component in Mixture;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.11;9.11. Fugacity of Component in Mixture;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.12;9.12. Fugacity of Solids and Liquids;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.13;9.13. Fugacity of Solids and Liquids;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.14;9.14. Fugacity of Solids and Liquids;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.15;9.15. Fugacity of Solids and Liquids;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.16;9.16. Gibbs Theorem;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.17;9.17. Gibbs Theorem;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.18;9.18. Gibbs Theorem;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.19;9.19. Gibbs Theorem;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.2;9.2. Partial Molar Properties;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.20;9.20. Excess Property Of Mixture;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.21;9.21. Henry Law;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.3;9.3. Partial Molar Properties;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.4;9.4. Partial Molar Properties;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.5;9.5. Partial Molar Properties;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.6;9.6. Partial Molar Properties;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.7;9.7. Partial Molar Properties;error;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.8;9.8. Gibbs Duhem Equation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2257;9. Solution Thermodynamics Properties;9.9;9.9. Gibbs Duhem Equation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2263;10. Vapour Liquid Equilibrium;10.1;10.1. Clausius Clapeyron Equation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2263;10. Vapour Liquid Equilibrium;10.10;10.10. van Laar Equation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2263;10. Vapour Liquid Equilibrium;10.11;10.11. van Laar Equation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2263;10. Vapour Liquid Equilibrium;10.12;10.12. van Laar Equation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2263;10. Vapour Liquid Equilibrium;10.13;10.13. Wilson and NTRL Equation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2263;10. Vapour Liquid Equilibrium;10.14;10.14. Bubble Point Calculation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2263;10. Vapour Liquid Equilibrium;10.15;10.15. Dew Point Calculation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2263;10. Vapour Liquid Equilibrium;10.16;10.16. Dew Point Calculation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2263;10. Vapour Liquid Equilibrium;10.17;10.17. Flash Calculation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2263;10. Vapour Liquid Equilibrium;10.18;10.18. Flash Calculation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2263;10. Vapour Liquid Equilibrium;10.19;10.19. Thermodynamic Consistency of VLE Data;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2263;10. Vapour Liquid Equilibrium;10.2;10.2. Raoults Law;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2263;10. Vapour Liquid Equilibrium;10.3;10.3. Raoults Law;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2263;10. Vapour Liquid Equilibrium;10.4;10.4. Raoults Law;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2263;10. Vapour Liquid Equilibrium;10.5;10.5. Raoults Law;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2263;10. Vapour Liquid Equilibrium;10.6;10.6. Raoults Law;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2263;10. Vapour Liquid Equilibrium;10.7;10.7. Azeotropes;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2263;10. Vapour Liquid Equilibrium;10.8;10.8. Margules Equation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2263;10. Vapour Liquid Equilibrium;10.9;10.9. van Laar Equation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2264;11. Additional Topics in Phase Equilibrium;11.1;11.1. Depression of Freezing Point of Solution;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2264;11. Additional Topics in Phase Equilibrium;11.2;11.2. Depression of Freezing Point of Solution;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2264;11. Additional Topics in Phase Equilibrium;11.3;11.3. Depression of Freezing Point of Solution;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2264;11. Additional Topics in Phase Equilibrium;11.4;11.4. Elevation Of Boiling Point Of Solution;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2264;11. Additional Topics in Phase Equilibrium;11.5;11.5. Elevation Of Boiling Point Of Solution;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2264;11. Additional Topics in Phase Equilibrium;11.6;11.6. Osmotic Pressure and Equilibria;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2264;11. Additional Topics in Phase Equilibrium;11.7;11.7. Osmotic Pressure and Equilibria;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.1;12.1. Reaction Coordinate;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.10;12.10. Homogeneous Gas Phase Reaction Equilibrium;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.11;12.11. Homogeneous Gas Phase Reaction Equilibrium;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.12;12.12. Homogeneous Gas Phase Reaction Equilibrium;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.13;12.13. Effect of Pressure on Chemical Equilibrium;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.14;12.14. Effect of Pressure of Inert Gas on Chemical Equilibrium;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.15;12.15. Homogeneous Liquid Phase Reaction Equilibrium;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.16;12.16. Solid Gas Reaction Equilibria;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.17;12.17. Solid Gas Reaction Equilibria;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.18;12.18. Solid Gas Reaction Equilibria;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.19;12.19. Solid Gas Reaction Equilibria;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.2;12.2. Multireaction Stoichometry;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.20;12.20. Phase Rule for Reacting System;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.21;12.21. Phase Rule for Reacting System;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.22;12.22. Chemical Equilibrium for Simultaneous Equation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.3;12.3. Feasibility of Chemical Reaction;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.4;12.4. Feasibility of Chemical Reaction;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.5;12.5. Relation between Equilibrium Constant And Standard Gibbs Free Energy Change;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.6;12.6. Relation between Equilibrium Constant And Standard Gibbs Free Energy Change;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.7;12.7. Vant Hoff Equation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.8;12.8. Vant Hoff Equation;correct;runtime; -647;Introduction To Chemical Engineering Thermodynamics(G. Halder);2265;12. Chemical Reaction Equilibria;12.9;12.9. Vant Hoff Equation;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2035;1. Fluid Statics;1.1;1.1. 1;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2035;1. Fluid Statics;1.10;1.10. 10;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2035;1. Fluid Statics;1.11;1.11. 11;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2035;1. Fluid Statics;1.12;1.12. 12;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2035;1. Fluid Statics;1.13;1.13. 13;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2035;1. Fluid Statics;1.14;1.14. 14;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2035;1. Fluid Statics;1.2;1.2. 2;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2035;1. Fluid Statics;1.3;1.3. 3;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2035;1. Fluid Statics;1.4;1.4. 4;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2035;1. Fluid Statics;1.5;1.5. 5;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2035;1. Fluid Statics;1.6;1.6. 6;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2035;1. Fluid Statics;1.7;1.7. 7;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2035;1. Fluid Statics;1.8;1.8. 8;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2035;1. Fluid Statics;1.9;1.9. 9;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2043;2. Continuity Momentum and Energy;2.1;2.1. 1;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2043;2. Continuity Momentum and Energy;2.2;2.2. 2;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2043;2. Continuity Momentum and Energy;2.3;2.3. 3;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2043;2. Continuity Momentum and Energy;2.4;2.4. 4;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2043;2. Continuity Momentum and Energy;2.5;2.5. 5;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2043;2. Continuity Momentum and Energy;2.7;2.7. 7;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2043;2. Continuity Momentum and Energy;2.9;2.9. 9;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2044;3. Laminar Flow and Lubrication;3.10;3.10. 10;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2044;3. Laminar Flow and Lubrication;3.12;3.12. 12;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2044;3. Laminar Flow and Lubrication;3.17;3.17. 17;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2044;3. Laminar Flow and Lubrication;3.18;3.18. 18;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2044;3. Laminar Flow and Lubrication;3.19;3.19. 19;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2044;3. Laminar Flow and Lubrication;3.2;3.2. 2;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2044;3. Laminar Flow and Lubrication;3.20;3.20. 20;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2044;3. Laminar Flow and Lubrication;3.4;3.4. 4;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2044;3. Laminar Flow and Lubrication;3.5;3.5. 5;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2044;3. Laminar Flow and Lubrication;3.6;3.6. 6;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2044;3. Laminar Flow and Lubrication;3.8;3.8. 8;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2044;3. Laminar Flow and Lubrication;3.9;3.9. 9;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2045;4. Dimensional Analysis;4.5;4.5. 5;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2049;5. Flow measurement by differential head;5.1;5.1. 1;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2049;5. Flow measurement by differential head;5.2;5.2. 2;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2049;5. Flow measurement by differential head;5.3;5.3. 3;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2049;5. Flow measurement by differential head;5.4;5.4. 4;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2049;5. Flow measurement by differential head;5.5;5.5. 5;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2049;5. Flow measurement by differential head;5.6;5.6. 6;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2049;5. Flow measurement by differential head;5.7;5.7. 7;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2049;5. Flow measurement by differential head;5.8;5.8. 8;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2049;5. Flow measurement by differential head;5.9;5.9. 9;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2046;6. Tank drainage and variable head flow;6.1;6.1. 1;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2046;6. Tank drainage and variable head flow;6.10;6.10. 10;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2046;6. Tank drainage and variable head flow;6.2;6.2. 2;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2046;6. Tank drainage and variable head flow;6.3;6.3. 3;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2046;6. Tank drainage and variable head flow;6.4;6.4. 4;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2046;6. Tank drainage and variable head flow;6.6;6.6. 6;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2046;6. Tank drainage and variable head flow;6.8;6.8. 8;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2046;6. Tank drainage and variable head flow;6.9;6.9. 9;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2047;7. Open channels notches and weirs;7.10;7.10. 10;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2047;7. Open channels notches and weirs;7.11;7.11. 11;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2047;7. Open channels notches and weirs;7.2;7.2. 2;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2047;7. Open channels notches and weirs;7.3;7.3. 3;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2047;7. Open channels notches and weirs;7.4;7.4. 4;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2047;7. Open channels notches and weirs;7.5;7.5. 5;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2047;7. Open channels notches and weirs;7.7;7.7. 7;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2047;7. Open channels notches and weirs;7.8;7.8. 8;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2047;7. Open channels notches and weirs;7.9;7.9. 9;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2050;8. Pipe friction and turbulent flow;8.10;8.10. 10;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2050;8. Pipe friction and turbulent flow;8.11;8.11. 11;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2050;8. Pipe friction and turbulent flow;8.12;8.12. 12;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2050;8. Pipe friction and turbulent flow;8.13;8.13. 13;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2050;8. Pipe friction and turbulent flow;8.14;8.14. 14;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2050;8. Pipe friction and turbulent flow;8.15;8.15. 15;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2050;8. Pipe friction and turbulent flow;8.16;8.16. 16;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2050;8. Pipe friction and turbulent flow;8.4;8.4. 4;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2050;8. Pipe friction and turbulent flow;8.5;8.5. 5;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2050;8. Pipe friction and turbulent flow;8.6;8.6. 6;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2050;8. Pipe friction and turbulent flow;8.7;8.7. 7;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2050;8. Pipe friction and turbulent flow;8.8;8.8. 8;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2050;8. Pipe friction and turbulent flow;8.9;8.9. 9;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2048;9. Pumps;9.10;9.10. 10;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2048;9. Pumps;9.11;9.11. 11;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2048;9. Pumps;9.12;9.12. 12;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2048;9. Pumps;9.14;9.14. 14;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2048;9. Pumps;9.15;9.15. 15;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2048;9. Pumps;9.2;9.2. 2;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2048;9. Pumps;9.6;9.6. 6;correct;runtime; -650;Fluid Mechanics - Worked Examples For Engineers(C. Schaschke);2048;9. Pumps;9.8;9.8. 8;correct;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1716;2. preliminariese;2.1;2.1. largest element in array;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1716;2. preliminariese;2.2;2.2. quadratic equation;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1716;2. preliminariese;2.3;2.3. largest element in array;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1716;2. preliminariese;2.4;2.4. linear search;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1716;2. preliminariese;2.5;2.5. Function AVE find average of A B C;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1716;2. preliminariese;2.6;2.6. procedure SWITCH interchange values of AAA and BBB;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1716;2. preliminariese;2.8.p;2.8.p. find largest and second largest element;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1716;2. preliminariese;2.9.a.b;2.9.a.b. sieve method for prime no;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1821;3. strings;3.1;3.1. delete every occurence of P in T;correct;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1821;3. strings;3.14;3.14. this procedure counts the number of paragraphs in story;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1821;3. strings;3.2;3.2. this algo replace every occurance of p in t;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1709;4. array records and pointer;4.1;4.1. traversing a linear array;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1709;4. array records and pointer;4.12.a;4.12.a. finds number NUM of nonzero elements in matrix A;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1709;4. array records and pointer;4.12.b;4.12.b. Find the SUM of elements above the diagonal of matrix A;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1709;4. array records and pointer;4.12.c;4.12.c. finds the product PROD of the diagonal element of matrix A;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1709;4. array records and pointer;4.1bar;4.1bar. traversing linear array;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1709;4. array records and pointer;4.2;4.2. inserting in to linear array;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1709;4. array records and pointer;4.2.a;4.2.a. print each of the year in which no employee was born;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1709;4. array records and pointer;4.2.b;4.2.b. find the number NNN of years in which no employee was born;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1709;4. array records and pointer;4.2.c;4.2.c. find the number N50 of employees who will at least 50 years old;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1709;4. array records and pointer;4.2.d;4.2.d. find the number NL of employees who will be at least L years old;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1709;4. array records and pointer;4.3;4.3. deleting from a linear array;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1709;4. array records and pointer;4.3.a;4.3.a. Find the value of each element of A after loop;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1709;4. array records and pointer;4.3.b;4.3.b. Find the value of each element of A after loop;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1709;4. array records and pointer;4.4;4.4. bubble sort;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1709;4. array records and pointer;4.5;4.5. linear array;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1709;4. array records and pointer;4.6;4.6. binary search;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1709;4. array records and pointer;4.7;4.7. matrix multiplication;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1709;4. array records and pointer;4.7.P;4.7.P. Binary search and insertion;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1781;5. linked list;5.1;5.1. This algo traverse the list;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1781;5. linked list;5.10;5.10. This algorithms deletes from a linked list the first node N which contains the given item of information;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1781;5. linked list;5.2;5.2. This algo finds the location LOC of the node where item first appears;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1781;5. linked list;5.3;5.3. this algo finds the location LOC of the node in sorted LIST;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1781;5. linked list;5.3.A;5.3.A. finds the number NUM of times a given ITEM occurs in a LIST;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1781;5. linked list;5.3.B;5.3.B. finds the number NUM of nunzero elements in a LIST;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1781;5. linked list;5.3.C;5.3.C. adds a given value K to each element in a LIST;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1781;5. linked list;5.4;5.4. This algo insert ITEM as the first node in the List;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1781;5. linked list;5.5;5.5. This algo inserts item so that item follows the node with location LOC or inserts item as the first node;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1781;5. linked list;5.5.P;5.5.P. This algo deletes the last node from the LIST;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1781;5. linked list;5.6;5.6. This procedure finds the location LOC of the Last node In a Sorted List;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1781;5. linked list;5.7;5.7. This algo insert item in sorted Linked List;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1781;5. linked list;5.7.p;5.7.p. this procedure finds the number num of elements in a linked list;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1781;5. linked list;5.8;5.8. this algorithm deletes the node N with location loc locpis the location of the node which precedes N or wen N is the first node;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1781;5. linked list;5.9;5.9. This procedure finds the LOC of the first node N which Contains Item and the location LOCP of the node preceding N;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1803;6. stack queue and recursion;6.1;6.1. This procedure pushes an item into stack;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1803;6. stack queue and recursion;6.1.6.2;6.1.6.2. push pop traverse array stack;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -653;Schaum's Outlines's Data Structure(S. Lipschutz);1803;6. stack queue and recursion;6.10;6.10. this procedure calculates Fn and returns the value in the first parameter FIB;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1803;6. stack queue and recursion;6.11;6.11. Tower of Hanoi Recursive Solution;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1803;6. stack queue and recursion;6.13;6.13. This procedure inserts an element ITEM into queue;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1803;6. stack queue and recursion;6.13.6.14;6.13.6.14. INSERT DELETE TRAVERSE IN ARRAY QUEUE;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -653;Schaum's Outlines's Data Structure(S. Lipschutz);1803;6. stack queue and recursion;6.14;6.14. This procedure deletes an ITEM from the queue;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1803;6. stack queue and recursion;6.17.P;6.17.P. This procedure finds the first N Fibonacci numbers and assigns them to an array F;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1803;6. stack queue and recursion;6.2;6.2. this procedure deletes the top element of stack;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1803;6. stack queue and recursion;6.20.P;6.20.P. Rewrite the solution of the Towers of hanoi so it uses only one recursive call insted of two;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1803;6. stack queue and recursion;6.3;6.3. This procedure pushes an item into linked stack;correct;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1803;6. stack queue and recursion;6.3.6.4;6.3.6.4. push pop traverse in linked stack;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -653;Schaum's Outlines's Data Structure(S. Lipschutz);1803;6. stack queue and recursion;6.4;6.4. this procedure deletes the top element of the Linked stack;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1803;6. stack queue and recursion;6.9.A;6.9.A. Calculate N factorial;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1803;6. stack queue and recursion;6.9.B;6.9.B. This procedure calculates N fact and returns the value in variable fact;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1793;7. trees;7.1;7.1. preorder traversal;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1793;7. trees;7.10;7.10. delete heap;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1793;7. trees;7.11;7.11. heap sort;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1793;7. trees;7.2;7.2. inorder;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1793;7. trees;7.3;7.3. postorder;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1793;7. trees;7.4;7.4. find location loc of node N;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1793;7. trees;7.4.P;7.4.P. this procedure finds the number NUM of nodes in a binary tree T in memory;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1793;7. trees;7.5;7.5. insert item in BST;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1793;7. trees;7.6;7.6. Delete node N from location LOC where N does not have two childs;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1793;7. trees;7.7;7.7. delete node N at location LOC where N has two childs;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1793;7. trees;7.8;7.8. this algo deletes item from the tree;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1793;7. trees;7.9;7.9. insert heap;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1802;8. graphs and their applications;8.1;8.1. warshalls algorithm;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1802;8. graphs and their applications;8.2;8.2. shortest path algorithm;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1802;8. graphs and their applications;8.3;8.3. find location location LOC;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1802;8. graphs and their applications;8.4;8.4. delete node N at location LOC;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1802;8. graphs and their applications;8.6;8.6. insert the node N;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1802;8. graphs and their applications;8.7;8.7. insert edge;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1792;9. sorting and searching;9.1;9.1. insertion sort;correct;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1792;9. sorting and searching;9.3;9.3. selection sort;error;runtime; -653;Schaum's Outlines's Data Structure(S. Lipschutz);1792;9. sorting and searching;9.4;9.4. merging;correct;runtime; -656;Fundamentals Of Electrical Circuits(C. K. Alexander And M. N. O. Sadiku);1789;1. Basic Concepts;1.1;1.1. Charge represented by 4600 electrons;correct;runtime; -656;Fundamentals Of Electrical Circuits(C. K. Alexander And M. N. O. Sadiku);1789;1. Basic Concepts;1.2;1.2. Calculate Current at a particular time t given charge entering a terminal;correct;runtime; -656;Fundamentals Of Electrical Circuits(C. K. Alexander And M. N. O. Sadiku);1789;1. Basic Concepts;1.3;1.3. Calculate charge between 1sec and 2sec given Current;correct;runtime; -656;Fundamentals Of Electrical Circuits(C. K. Alexander And M. N. O. Sadiku);1789;1. Basic Concepts;1.4;1.4. Energy sources forces a current to flow for a time across a bulb energy is released in the form of light Calculate the voltage drop across the bulb;correct;runtime; -656;Fundamentals Of Electrical Circuits(C. K. Alexander And M. N. O. Sadiku);1789;1. Basic Concepts;1.6;1.6. Energy consumed by 100W bulb in 2 Hrs;correct;runtime; -656;Fundamentals Of Electrical Circuits(C. K. Alexander And M. N. O. Sadiku);1789;1. Basic Concepts;1.7;1.7. Calculate power absorbed by each element;correct;runtime; -656;Fundamentals Of Electrical Circuits(C. K. Alexander And M. N. O. Sadiku);1789;1. Basic Concepts;1.8;1.8. Electron beam carries n electron per second calculate voltage to accelerate electron beam to achieve 4W;error;runtime; -656;Fundamentals Of Electrical Circuits(C. K. Alexander And M. N. O. Sadiku);1789;1. Basic Concepts;1.9;1.9. Determine electricity bill;correct;runtime; -656;Fundamentals Of Electrical Circuits(C. K. Alexander And M. N. O. Sadiku);1791;2. Basic Laws;2.1;2.1. An electric iron draws 2 A at 120 V Find its resistance;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1782;1. Overview of C;1.3;1.3. Printing a mesage;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1782;1. Overview of C;1.4;1.4. Adding two numbers;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1782;1. Overview of C;1.5;1.5. Interest Calculation;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1782;1. Overview of C;1.6;1.6. Use of subroutines;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1782;1. Overview of C;1.7;1.7. Use of math functions;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1784;2. Constants Variables and Data Types;2.1;2.1. Representation of integer constants on a 16 bit computer;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1784;2. Constants Variables and Data Types;2.1cs;2.1cs. Case study 1 avg of numbers;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1784;2. Constants Variables and Data Types;2.2;2.2. typical declarations assignments and values stored in various types of variables;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1784;2. Constants Variables and Data Types;2.2cs;2.2cs. Case study temprature in Farenheit and Celsius;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1784;2. Constants Variables and Data Types;2.3;2.3. use of scanf function;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1784;2. Constants Variables and Data Types;2.4;2.4. Interest calculation using scanf;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1819;3. Operators and Expressions;3.1;3.1. Use of integer arithmetic;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1819;3. Operators and Expressions;3.1cs;3.1cs. case study 1 salesmans salary;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1819;3. Operators and Expressions;3.2;3.2. Sequence of squares of numbers;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1819;3. Operators and Expressions;3.2cs;3.2cs. case study 2 solution of the quadratic equation;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1819;3. Operators and Expressions;3.3;3.3. Different kind of operators;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1819;3. Operators and Expressions;3.4;3.4. Use of variables in expressions;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1819;3. Operators and Expressions;3.5;3.5. Round off errors;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1819;3. Operators and Expressions;3.6;3.6. Cast to evaluate the equation;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1820;4. Managing Input and Output Operations;4.1;4.1. Use of getchar function;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1820;4. Managing Input and Output Operations;4.10;4.10. Printing a real number;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1820;4. Managing Input and Output Operations;4.11;4.11. Printing of character and strings;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1820;4. Managing Input and Output Operations;4.1cs;4.1cs. Case study 1 Inventory report;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1820;4. Managing Input and Output Operations;4.2;4.2. Whether character is alphabet or digit or special character;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1820;4. Managing Input and Output Operations;4.2cs;4.2cs. Case study 2 Reliability graph;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1820;4. Managing Input and Output Operations;4.3;4.3. Print character in reverse case;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1820;4. Managing Input and Output Operations;4.4;4.4. Input formatting options;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1820;4. Managing Input and Output Operations;4.5;4.5. Reading of real numbers;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1820;4. Managing Input and Output Operations;4.6;4.6. Reading of strings;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1820;4. Managing Input and Output Operations;4.8;4.8. Testing for correctness;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1820;4. Managing Input and Output Operations;4.9;4.9. Output of integer numbers;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1822;5. Decision Making and Branching;5.1;5.1. Ratio;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1822;5. Decision Making and Branching;5.1cs;5.1cs. Case study 1 range of numbers;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1822;5. Decision Making and Branching;5.2;5.2. counts the number of boys;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1822;5. Decision Making and Branching;5.2cs;5.2cs. Case study 2 Pay Bill Calculations;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1822;5. Decision Making and Branching;5.3;5.3. Evaluate the power series;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1822;5. Decision Making and Branching;5.4;5.4. Largest of the three numbers;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1822;5. Decision Making and Branching;5.5;5.5. Reads the customer number and power consumed;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1822;5. Decision Making and Branching;5.6;5.6. Loan applications and to sanction loans;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1822;5. Decision Making and Branching;5.7;5.7. square root for five numbers;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1823;6. Decision Making and Looping;6.1;6.1. evaluate the equation;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1823;6. Decision Making and Looping;6.1cs;6.1cs. Case study 1 Table of Binomial Coefficients;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1823;6. Decision Making and Looping;6.2;6.2. Multiplication table;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1823;6. Decision Making and Looping;6.2cs;6.2cs. Case study 2 Histogram;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1823;6. Decision Making and Looping;6.3;6.3. Uses a for loop;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1823;6. Decision Making and Looping;6.3cs;6.3cs. Case study 3 Minimum Cost;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1823;6. Decision Making and Looping;6.4;6.4. Read the marks and print total marks;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1823;6. Decision Making and Looping;6.4cs;6.4cs. Case study 4 Plotting of two Functions;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1823;6. Decision Making and Looping;6.5;6.5. Use of the break statement;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1823;6. Decision Making and Looping;6.6;6.6. Evaluate the series;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1823;6. Decision Making and Looping;6.7;6.7. Use of continue statement;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1828;7. Arrays;1.cs;1.cs. Case study 1 Median of list of numbers;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/659/CH1/EX1.cs/: PATH DOES NOT EXIST -659;Programming In Ansi C(E. Balagurusamy);1828;7. Arrays;2.cs;2.cs. Case study 2 Calculation of standard deviation;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/659/CH2/EX2.cs/: PATH DOES NOT EXIST -659;Programming In Ansi C(E. Balagurusamy);1828;7. Arrays;3.cs;3.cs. Case study 3 Evaluating a Test;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/659/CH3/EX3.cs/: PATH DOES NOT EXIST -659;Programming In Ansi C(E. Balagurusamy);1828;7. Arrays;4.cs;4.cs. Case study 4 Production and sales analysis;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/659/CH4/EX4.cs/: PATH DOES NOT EXIST -659;Programming In Ansi C(E. Balagurusamy);1828;7. Arrays;7.1;7.1. Sum of squares of 10 numbers;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1828;7. Arrays;7.2;7.2. Count the number of students;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1828;7. Arrays;7.3;7.3. Compute and print;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1828;7. Arrays;7.4;7.4. Multiplication table;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1828;7. Arrays;7.5;7.5. Popularity of various cars;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1829;8. Character Arrays and Strings;1.cs;1.cs. Case study 1 Counting words in a text;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/659/CH1/EX1.cs/: PATH DOES NOT EXIST -659;Programming In Ansi C(E. Balagurusamy);1829;8. Character Arrays and Strings;2.cs;2.cs. Case study 2 Processing of a customer list;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/659/CH2/EX2.cs/: PATH DOES NOT EXIST -659;Programming In Ansi C(E. Balagurusamy);1829;8. Character Arrays and Strings;8.1;8.1. Read a series of words;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1829;8. Character Arrays and Strings;8.2;8.2. Read a line of text;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1829;8. Character Arrays and Strings;8.3;8.3. Copy one string into another;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1829;8. Character Arrays and Strings;8.4;8.4. Display the string under various format specifications;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1829;8. Character Arrays and Strings;8.5;8.5. Program using for loop;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1829;8. Character Arrays and Strings;8.6;8.6. Print the alphabet set a to z and A to Z;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1829;8. Character Arrays and Strings;8.7;8.7. Concatinate the three parts into one string;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1829;8. Character Arrays and Strings;8.8;8.8. Compare whether strings are equal;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1829;8. Character Arrays and Strings;8.9;8.9. Sort a list of names in alphabetical order;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1830;9. User Defined Functions;1.cs;1.cs. Case study 1 Calculation of Area under a Curve;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/659/CH1/EX1.cs/: PATH DOES NOT EXIST -659;Programming In Ansi C(E. Balagurusamy);1830;9. User Defined Functions;9.1;9.1. Multiple functions;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1830;9. User Defined Functions;9.16;9.16. Factorial of a number using recursion;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1830;9. User Defined Functions;9.2;9.2. Include arguments in function calls;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1830;9. User Defined Functions;9.3;9.3. Return result;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1830;9. User Defined Functions;9.4;9.4. Computes x raised to the power y;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1830;9. User Defined Functions;9.5;9.5. Calculate standard deviation of an array values;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1830;9. User Defined Functions;9.6;9.6. Sort an array;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1830;9. User Defined Functions;9.7;9.7. Autometic variables;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1830;9. User Defined Functions;9.8;9.8. Global variables;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1859;10. Structures and Unions;1.cs;1.cs. Case study 1 Book Shop Inventory;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/659/CH1/EX1.cs/: PATH DOES NOT EXIST -659;Programming In Ansi C(E. Balagurusamy);1859;10. Structures and Unions;10.1;10.1. Define a structure type;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1859;10. Structures and Unions;10.2;10.2. Comparison of structure variables;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1859;10. Structures and Unions;10.3;10.3. Calculate the subject wise and student wise totals;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1859;10. Structures and Unions;10.4;10.4. Array member to represent the three subjects;correct;runtime; -659;Programming In Ansi C(E. Balagurusamy);1859;10. Structures and Unions;10.5;10.5. structure as a parameter to a function;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1860;12. File Management in C;12.1;12.1. Read data from keyboard and write it to a file;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1860;12. File Management in C;12.2;12.2. Read and write odd and even numbers;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1860;12. File Management in C;12.3;12.3. Read and write data to and from the file INVENTORY;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1860;12. File Management in C;12.4;12.4. Error handling in file operations;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1860;12. File Management in C;12.5;12.5. use of function ftell or mtell and fseek or mseek;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1860;12. File Management in C;12.6;12.6. Append additional items to the file INVENTORY;error;runtime; -659;Programming In Ansi C(E. Balagurusamy);1861;13. Dynamic Memory Allocation and linked Lists;1.cs;1.cs. Case study 1 Insertion in a sorted list;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/659/CH1/EX1.cs/: PATH DOES NOT EXIST -659;Programming In Ansi C(E. Balagurusamy);1861;13. Dynamic Memory Allocation and linked Lists;13.3;13.3. Create a linear linked list;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -659;Programming In Ansi C(E. Balagurusamy);1861;13. Dynamic Memory Allocation and linked Lists;13.4;13.4. Insert the item before the specified key node;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -659;Programming In Ansi C(E. Balagurusamy);1861;13. Dynamic Memory Allocation and linked Lists;13.5;13.5. Delete a specified node in the list;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -659;Programming In Ansi C(E. Balagurusamy);1861;13. Dynamic Memory Allocation and linked Lists;2.cs;2.cs. Case study 2 Building a Sorted List;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/659/CH2/EX2.cs/: PATH DOES NOT EXIST -662;Programming With C(B. Gottfried);1785;1. Introductory Concepts;1.5;1.5. Intractive Computing;error;runtime; -662;Programming With C(B. Gottfried);1785;1. Introductory Concepts;1.6;1.6. Area of circle;error;runtime; -662;Programming With C(B. Gottfried);1786;2. Introduction to c Programming;2.1;2.1. Writing first program;correct;runtime; -662;Programming With C(B. Gottfried);1786;2. Introduction to c Programming;2.25;2.25. 1dimensional character array;correct;runtime; -662;Programming With C(B. Gottfried);1786;2. Introduction to c Programming;2.30;2.30. type declaration;correct;runtime; -662;Programming With C(B. Gottfried);1786;2. Introduction to c Programming;2.5;2.5. A More Useful c program;correct;runtime; -662;Programming With C(B. Gottfried);1786;2. Introduction to c Programming;2.6;2.6. Add two given integer numbers;error;runtime; -662;Programming With C(B. Gottfried);1787;3. Operators and Expressions;3.1;3.1. arithmetic operators with unsigned integer operands;correct;runtime; -662;Programming With C(B. Gottfried);1787;3. Operators and Expressions;3.14;3.14. operator precedences;correct;runtime; -662;Programming With C(B. Gottfried);1787;3. Operators and Expressions;3.15;3.15. Use of Relational operators with simple integer variables;correct;runtime; -662;Programming With C(B. Gottfried);1787;3. Operators and Expressions;3.16;3.16. Use of Relations operators with different type oprands;correct;runtime; -662;Programming With C(B. Gottfried);1787;3. Operators and Expressions;3.17;3.17. Use of logical operators;correct;runtime; -662;Programming With C(B. Gottfried);1787;3. Operators and Expressions;3.18;3.18. Use of Logical negation operator;correct;runtime; -662;Programming With C(B. Gottfried);1787;3. Operators and Expressions;3.19;3.19. logical expressions;correct;runtime; -662;Programming With C(B. Gottfried);1787;3. Operators and Expressions;3.2;3.2. arithmetic operators with signed integer operands;correct;runtime; -662;Programming With C(B. Gottfried);1787;3. Operators and Expressions;3.20;3.20. complex logical operation;error;runtime; -662;Programming With C(B. Gottfried);1787;3. Operators and Expressions;3.22;3.22. assignment operator;correct;runtime; -662;Programming With C(B. Gottfried);1787;3. Operators and Expressions;3.3;3.3. arithmetic operators with floating point operands;correct;runtime; -662;Programming With C(B. Gottfried);1787;3. Operators and Expressions;3.30;3.30. quadratic equation;error;runtime; -662;Programming With C(B. Gottfried);1787;3. Operators and Expressions;3.31;3.31. lowercase to uppercase character conversion;correct;runtime; -662;Programming With C(B. Gottfried);1787;3. Operators and Expressions;3.9;3.9. arithmetic expression evaluation;correct;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.1;4.1. use of several input output library functions;error;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.10;4.10. scanf function;correct;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.11;4.11. scanf function;error;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.12;4.12. scanf functions;error;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.13;4.13. variation of scanf features;correct;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.14;4.14. example 4 14;error;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.15;4.15. scanf function;correct;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.16;4.16. use of printf function;correct;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.17;4.17. disply different types of data using printf function;error;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.18;4.18. Generate same floating point output in two different forms;correct;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.19;4.19. reading and writing a line of text;correct;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.20;4.20. use of the minimum field width feature;correct;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.21;4.21. use of the minimum field width feature using g type conversion;correct;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.22;4.22. use of precision featurewith floating point numbers;correct;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.23;4.23. use of precision featurewith floating point numbers;correct;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.24;4.24. Use of field width and precision specification with string output;correct;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.26;4.26. use of uppercase conversion characters;correct;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.27;4.27. use of flags with integer and floating point numbers;correct;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.28;4.28. use of flags with unsigned decimal octal and hexadecimal numbers;correct;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.29;4.29. use of flags with string output;correct;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.30;4.30. labling of floating point numbers;correct;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.31;4.31. Reading and writing a line of text;correct;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.32;4.32. Averaging student exam scores;error;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.4;4.4. lowercase to uppercase conversion;correct;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.5;4.5. application of scanf function;error;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.7;4.7. use of scanf function;correct;runtime; -662;Programming With C(B. Gottfried);1835;4. Data Input and Output;4.9;4.9. scanf function;error;runtime; -662;Programming With C(B. Gottfried);1836;5. Preparing and running a Complete c Program;5.1;5.1. compound interest;error;runtime; -662;Programming With C(B. Gottfried);1836;5. Preparing and running a Complete c Program;5.2;5.2. compound interest;error;runtime; -662;Programming With C(B. Gottfried);1836;5. Preparing and running a Complete c Program;5.3;5.3. Syntactic errors;error;runtime; -662;Programming With C(B. Gottfried);1836;5. Preparing and running a Complete c Program;5.4;5.4. real roots of a quadratic equation;error;runtime; -662;Programming With C(B. Gottfried);1836;5. Preparing and running a Complete c Program;5.5;5.5. Debugging a program;error;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.10;6.10. averaging a list of numbers;error;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.14;6.14. consecutive integer quantities;correct;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.16;6.16. lowercase to uppercase conversion;correct;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.17;6.17. averaging a list of numbers;error;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.18;6.18. repeated averaging a list of numbers;error;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.19;6.19. converting several lines of text to uppercase;correct;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.20;6.20. encoding a string of characters;correct;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.21;6.21. repeated compund interest calculation with error trapping;error;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.22;6.22. solution of algebraic equations;error;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.23;6.23. simple switch statement;error;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.24;6.24. switch statement;error;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.25;6.25. typical switch statement;error;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.26;6.26. calculating depreciation;error;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.27;6.27. switch statement;error;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.31;6.31. averaging a list of non negative numbers;error;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.4;6.4. compound statemnts;error;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.5;6.5. if else statement;error;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.6;6.6. if else statement;error;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.7;6.7. nested if else statement;error;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.8;6.8. consecutive integer quantities;correct;runtime; -662;Programming With C(B. Gottfried);1837;6. Control Statements;6.9;6.9. lowercase to uppercase conversion;correct;runtime; -662;Programming With C(B. Gottfried);1838;7. Functions;7.1;7.1. Lowercase to Uppercase Character conversion;correct;runtime; -662;Programming With C(B. Gottfried);1838;7. Functions;7.10;7.10. Calculating Factorials;error;runtime; -662;Programming With C(B. Gottfried);1838;7. Functions;7.100;7.100. calculting factorial;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/662/CH7/EX7.100/: PATH DOES NOT EXIST -662;Programming With C(B. Gottfried);1838;7. Functions;7.11;7.11. Simulation of agame of chance;error;runtime; -662;Programming With C(B. Gottfried);1838;7. Functions;7.12;7.12. function that alters the value of its argument;correct;runtime; -662;Programming With C(B. Gottfried);1838;7. Functions;7.13;7.13. calculating depreciation;error;runtime; -662;Programming With C(B. Gottfried);1838;7. Functions;7.14;7.14. factorial of an integer using recursion;error;runtime; -662;Programming With C(B. Gottfried);1838;7. Functions;7.16;7.16. The towers of hanoi;error;runtime; -662;Programming With C(B. Gottfried);1838;7. Functions;7.4;7.4. Finding Larger of two quqntities;correct;runtime; -662;Programming With C(B. Gottfried);1838;7. Functions;7.5;7.5. Factorial of a positive integer quantities;correct;runtime; -662;Programming With C(B. Gottfried);1838;7. Functions;7.7;7.7. determine larger of two integer quantities;error;runtime; -662;Programming With C(B. Gottfried);1838;7. Functions;7.8;7.8. Lowercase to Uppercase Character conversion using a programmer defined function;correct;runtime; -662;Programming With C(B. Gottfried);1838;7. Functions;7.9;7.9. Largest of Three Integer Quantities;error;runtime; -662;Programming With C(B. Gottfried);1920;8. Program Structure;8.11;8.11. Search for a Maximum;error;runtime; -662;Programming With C(B. Gottfried);1920;8. Program Structure;8.12;8.12. Generating Fibonacci numbers;error;runtime; -662;Programming With C(B. Gottfried);1920;8. Program Structure;8.13;8.13. Compound Interest;error;runtime; -662;Programming With C(B. Gottfried);1920;8. Program Structure;8.2;8.2. calculate the factorial of an integer quantity;error;runtime; -662;Programming With C(B. Gottfried);1920;8. Program Structure;8.3;8.3. Average length of several lines of code;error;runtime; -662;Programming With C(B. Gottfried);1920;8. Program Structure;8.4;8.4. Search for a Maximum;error;runtime; -662;Programming With C(B. Gottfried);1920;8. Program Structure;8.5;8.5. Average length of several lines of text;error;runtime; -662;Programming With C(B. Gottfried);1920;8. Program Structure;8.7;8.7. Generating Fibonacci numbers;error;runtime; -662;Programming With C(B. Gottfried);1920;8. Program Structure;8.8;8.8. Simple Multifile program;error;runtime; -662;Programming With C(B. Gottfried);1920;8. Program Structure;8.9;8.9. Simulation of a game of chance;error;runtime; -662;Programming With C(B. Gottfried);1921;9. Arrays;9.11;9.11. passing array to function and altering values of array elements;correct;runtime; -662;Programming With C(B. Gottfried);1921;9. Arrays;9.12;9.12. passing a variable along with an array to the function;correct;runtime; -662;Programming With C(B. Gottfried);1921;9. Arrays;9.13;9.13. Reordering a list of numbers;error;runtime; -662;Programming With C(B. Gottfried);1921;9. Arrays;9.2;9.2. Lowercase to uppercase conversion;correct;runtime; -662;Programming With C(B. Gottfried);1921;9. Arrays;9.8;9.8. Deviations about an average;error;runtime; -662;Programming With C(B. Gottfried);1921;9. Arrays;9.9;9.9. Deviations about an Average revisited;correct;runtime; -662;Programming With C(B. Gottfried);1947;10. Strings;10.10;10.10. Left as well as right concatenation of two strings;error;runtime; -662;Programming With C(B. Gottfried);1947;10. Strings;10.11;10.11. count total number of vowels in a given text;correct;runtime; -662;Programming With C(B. Gottfried);1947;10. Strings;10.13;10.13. convert lowercase alphabets to uppercase;correct;runtime; -662;Programming With C(B. Gottfried);1947;10. Strings;10.14;10.14. to search for a substring in a given string;correct;runtime; -662;Programming With C(B. Gottfried);1947;10. Strings;10.15;10.15. Reordering a list of strings;error;runtime; -662;Programming With C(B. Gottfried);1947;10. Strings;10.3;10.3. Read string from keyboard and display on screen;correct;runtime; -662;Programming With C(B. Gottfried);1947;10. Strings;10.4;10.4. Read a line from keyboard and display on screen;correct;runtime; -662;Programming With C(B. Gottfried);1947;10. Strings;10.7;10.7. use of predefined string related function;error;runtime; -662;Programming With C(B. Gottfried);1947;10. Strings;10.8;10.8. user defined function for string length and string copy;correct;runtime; -662;Programming With C(B. Gottfried);1947;10. Strings;10.9;10.9. user defined implementation of two strings;correct;runtime; -662;Programming With C(B. Gottfried);1948;12. Structures and Unions;12.14;12.14. Updating Customer Records;error;runtime; -662;Programming With C(B. Gottfried);1948;12. Structures and Unions;12.22;12.22. simple c structure program;correct;runtime; -662;Programming With C(B. Gottfried);1948;12. Structures and Unions;12.25;12.25. passing structure to function;correct;runtime; -662;Programming With C(B. Gottfried);1948;12. Structures and Unions;12.6;12.6. Structure array declaration;correct;runtime; -662;Programming With C(B. Gottfried);1950;13. File Handling;13.11;13.11. stores 100 lines of text in a text file;error;runtime; -662;Programming With C(B. Gottfried);1950;13. File Handling;13.12;13.12. counting number of characters in a file created as text file;error;runtime; -662;Programming With C(B. Gottfried);1950;13. File Handling;13.13;13.13. storing numbers in binary format;error;runtime; -662;Programming With C(B. Gottfried);1950;13. File Handling;13.15;13.15. storing characters one after another without any new line characterin between;error;runtime; -662;Programming With C(B. Gottfried);1950;13. File Handling;13.16;13.16. print alternate characters of a file;error;runtime; -662;Programming With C(B. Gottfried);1950;13. File Handling;13.3;13.3. Writing to a data file;error;runtime; -662;Programming With C(B. Gottfried);1950;13. File Handling;13.4;13.4. reading a data file;error;runtime; -662;Programming With C(B. Gottfried);1950;13. File Handling;13.5;13.5. Average of numbers stored in a data file;error;runtime; -662;Programming With C(B. Gottfried);1950;13. File Handling;13.6;13.6. Copying a data file;error;runtime; -662;Programming With C(B. Gottfried);1950;13. File Handling;13.7;13.7. creating a file containing customer records;error;runtime; -662;Programming With C(B. Gottfried);1949;14. Low Level Programming;14.2;14.2. Generating Fibonacci numbers;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -662;Programming With C(B. Gottfried);1949;14. Low Level Programming;14.5;14.5. Complementation C program;correct;runtime; -662;Programming With C(B. Gottfried);1949;14. Low Level Programming;14.6;14.6. Bitwise And Or Xor Complement;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1816;1. STRUCTURAL PROPERTIES OF SEMICONDUCTORS;1.1;1.1. Crystal structure;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1816;1. STRUCTURAL PROPERTIES OF SEMICONDUCTORS;1.2;1.2. Surface density;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1816;1. STRUCTURAL PROPERTIES OF SEMICONDUCTORS;1.2.5.1;1.2.5.1. Planar density of atoms on a surface;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1817;2. ELECTRONIC LEVELS IN SEMICONDUCTORS;2.1;2.1. density of states in 2D and 3D systems;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1817;2. ELECTRONIC LEVELS IN SEMICONDUCTORS;2.2;2.2. effective density of states for the conduction and valence bands;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1817;2. ELECTRONIC LEVELS IN SEMICONDUCTORS;2.5;2.5. Piezoelectric Effect;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1817;2. ELECTRONIC LEVELS IN SEMICONDUCTORS;2.7.1;2.7.1. Fermi energy and Fermi velocity;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1818;3. CHARGE TRANSPORT IN MATERIALS;3.1;3.1. polar optical phonon emission rate;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1818;3. CHARGE TRANSPORT IN MATERIALS;3.10;3.10. diffusion coefficient using velocity field relation;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1818;3. CHARGE TRANSPORT IN MATERIALS;3.11;3.11. carrier generation rate for optical radiation;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1818;3. CHARGE TRANSPORT IN MATERIALS;3.2;3.2. transport under an electric field;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1818;3. CHARGE TRANSPORT IN MATERIALS;3.3;3.3. relaxation time due to ionized impurity scattering;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1818;3. CHARGE TRANSPORT IN MATERIALS;3.4;3.4. time between scattering events using the conductivity effective mass;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1818;3. CHARGE TRANSPORT IN MATERIALS;3.5;3.5. conductivity of doped versus undoped;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1818;3. CHARGE TRANSPORT IN MATERIALS;3.6;3.6. maximum and minimum conductivity;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1818;3. CHARGE TRANSPORT IN MATERIALS;3.7;3.7. High field transport velocity field relations;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1818;3. CHARGE TRANSPORT IN MATERIALS;3.8;3.8. transit time of electron in semiconductor device;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1818;3. CHARGE TRANSPORT IN MATERIALS;3.9;3.9. band to band tunneling probability;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1825;4. JUNCTIONS IN SEMICONDUCTORS PN DIODES;4.1;4.1. pn junction in equilibrium;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1825;4. JUNCTIONS IN SEMICONDUCTORS PN DIODES;4.2;4.2. effect of the generation recombination current in pn diode;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1825;4. JUNCTIONS IN SEMICONDUCTORS PN DIODES;4.3;4.3. diode current at a forward bias;error;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1825;4. JUNCTIONS IN SEMICONDUCTORS PN DIODES;4.4;4.4. breakdown voltage of diode;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1825;4. JUNCTIONS IN SEMICONDUCTORS PN DIODES;4.5;4.5. e h recombination time;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1825;4. JUNCTIONS IN SEMICONDUCTORS PN DIODES;4.6;4.6. internal radiative efficiency for diodes;error;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1825;4. JUNCTIONS IN SEMICONDUCTORS PN DIODES;4.7;4.7. injection efficiency of LED;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1825;4. JUNCTIONS IN SEMICONDUCTORS PN DIODES;4.8;4.8. photon flux and optical power generated by LED;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1826;5. SEMICONDUCTOR JUNCTIONS;5.2;5.2. SCHOTTKY BARRIER;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1827;6. BIPOLAR JUNCTION TRANSISTORS;6.1;6.1. emitter efficiency of BJT and HBT;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1827;6. BIPOLAR JUNCTION TRANSISTORS;6.2;6.2. change in the base width and collector current with voltage and Early voltage;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1827;6. BIPOLAR JUNCTION TRANSISTORS;6.3;6.3. maximum base width for a given beta;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1827;6. BIPOLAR JUNCTION TRANSISTORS;6.4;6.4. output conductance and emitter efficiency and gain;error;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1831;7. TEMPORAL RESPONSE OF DIODES AND BIPOLAR TRANSISTORS;7.1;7.1. cutoff frequency of transistor;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1832;8. FIELD EFFECT TRANSISTORS;8.1;8.1. gate current density for MESFET;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1832;8. FIELD EFFECT TRANSISTORS;8.5.1;8.5.1. 2DEG concentration for MODFET;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1833;9. FIELD EFFECT TRANSISTORS MOSFET;9.1;9.1. maximum depletion width in a MOS capacitor;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1833;9. FIELD EFFECT TRANSISTORS MOSFET;9.10;9.10. shift in the threshold voltage arising from source body bias;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1833;9. FIELD EFFECT TRANSISTORS MOSFET;9.11;9.11. n channel MOSFET characteristics;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1833;9. FIELD EFFECT TRANSISTORS MOSFET;9.2;9.2. MOS capacitor;error;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1833;9. FIELD EFFECT TRANSISTORS MOSFET;9.3;9.3. MOS capacitor threshold voltage;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1833;9. FIELD EFFECT TRANSISTORS MOSFET;9.4;9.4. MOS capacitor threshold voltage and channel conductivity;error;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1833;9. FIELD EFFECT TRANSISTORS MOSFET;9.6;9.6. oxide capacitance and capacitance at the flat band and the minimum capacitance at threshold for MOS capacitor;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1833;9. FIELD EFFECT TRANSISTORS MOSFET;9.7;9.7. saturation current of MOSFET;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1833;9. FIELD EFFECT TRANSISTORS MOSFET;9.8;9.8. drain current for NMOS device;correct;runtime; -668;Semiconductor Device Physics And Design(U. K. Mishra And J. Singh);1833;9. FIELD EFFECT TRANSISTORS MOSFET;9.9;9.9. threshold voltage in n channel MOSFET;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2357;1. Elementary Concepts and Definitions;1.1;1.1. Problem1;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2357;1. Elementary Concepts and Definitions;1.10;1.10. Problem10;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2357;1. Elementary Concepts and Definitions;1.11;1.11. Problem11;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2357;1. Elementary Concepts and Definitions;1.12;1.12. Problem12;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2357;1. Elementary Concepts and Definitions;1.13;1.13. Problem13;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2357;1. Elementary Concepts and Definitions;1.15;1.15. Problem15;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2357;1. Elementary Concepts and Definitions;1.2;1.2. Problem2;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2357;1. Elementary Concepts and Definitions;1.3;1.3. Problem3;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2357;1. Elementary Concepts and Definitions;1.5;1.5. Problem5;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2357;1. Elementary Concepts and Definitions;1.7;1.7. Problem7;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2357;1. Elementary Concepts and Definitions;1.9;1.9. Problem9;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2357;1. Elementary Concepts and Definitions;1.A.1;1.A.1. Additional Solved Problem 1;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2357;1. Elementary Concepts and Definitions;1.A.2;1.A.2. Additional Solved Problem 2;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2357;1. Elementary Concepts and Definitions;1.A.3;1.A.3. Additional Solved Problem 3;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2357;1. Elementary Concepts and Definitions;1.A.4;1.A.4. Additional Solved Problem 4;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2357;1. Elementary Concepts and Definitions;1.A.5;1.A.5. Additional Solved Problem 5;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2357;1. Elementary Concepts and Definitions;1.A.6;1.A.6. Additional Solved Problem 6;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2357;1. Elementary Concepts and Definitions;1.A.7;1.A.7. Additional Solved Problem 7;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2357;1. Elementary Concepts and Definitions;1.A.9;1.A.9. Additional Solved Problem 9;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.1;2.1. Problem1;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.10;2.10. Problem10;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.11;2.11. Problem11;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.13;2.13. Problem13;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.14;2.14. Problem14;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.15;2.15. Problem15;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.16;2.16. Problem16;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.17;2.17. Problem17;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.18;2.18. Problem18;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.19;2.19. Problem19;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.2;2.2. Problem2;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.20;2.20. Problem20;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.21;2.21. Problem21;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.22;2.22. Problem22;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.23;2.23. Problem23;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.24;2.24. Problem24;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.25;2.25. Problem25;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.26;2.26. Problem26;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.27;2.27. Problem27;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.28;2.28. Problem28;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.29;2.29. Problem29;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.3;2.3. Problem3;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.30;2.30. Problem30;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.31;2.31. Problem31;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.32;2.32. Problem32;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.33;2.33. Problem33;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.35;2.35. Problem35;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.36;2.36. Problem36;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.37;2.37. Problem37;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.38;2.38. Problem38;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.39;2.39. Problem39;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.4;2.4. Problem4;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.40;2.40. Problem40;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.5;2.5. Problem5;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.6;2.6. Problem6;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.7;2.7. Problem7;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.8;2.8. Problem8;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2358;2. Fundamentals of Resistive Circuits;2.9;2.9. Problem9;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.1;3.1. Problem1;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.11;3.11. Problem11;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.12;3.12. Problem12;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.13;3.13. Problem13;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.16;3.16. Problem16;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.18;3.18. Problem18;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.2;3.2. Problem2;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.21;3.21. Problem21;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.22;3.22. Problem22;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.24;3.24. Problem24;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.26;3.26. Problem26;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.27;3.27. Problem27;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.29;3.29. Problem29;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.3;3.3. Problem3;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.32;3.32. Problem32;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.33;3.33. Problem33;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.36;3.36. Problem36;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.37.38;3.37.38. Problem37 and 38;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.4;3.4. Problem4;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.5;3.5. Problem5;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.6;3.6. Problem6;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.7;3.7. Problem7;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.8;3.8. Problem8;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2359;3. Fundamentals of Reactive Circuits;3.9;3.9. Problem9;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.1;4.1. Problem1;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.10;4.10. Problem10;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.11;4.11. Problem11;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.12;4.12. Problem12;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.13;4.13. Problem13;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.14;4.14. Problem14;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.15;4.15. Problem15;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.16;4.16. Problem16;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.17;4.17. Problem17;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.18;4.18. Problem18;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.2;4.2. Problem2;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.21;4.21. Problem21;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.22;4.22. Problem22;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.23;4.23. Problem23;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.24;4.24. Problem24;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.25;4.25. Problem25;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.26;4.26. Problem26;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.27;4.27. Problem27;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.28;4.28. Problem28;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.29;4.29. Problem29;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.30;4.30. Problem30;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.31;4.31. Problem31;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.32;4.32. Problem32;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.33;4.33. Problem33;error;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.34;4.34. Problem34;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.35;4.35. Problem35;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.36;4.36. Problem36;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.37;4.37. Problem37;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.38;4.38. Problem38;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.39;4.39. Problem39;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.4;4.4. Problem4;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.40;4.40. Problem40;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.41;4.41. Problem41;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.42;4.42. Problem42;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.43;4.43. Problem43;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.44;4.44. Problem44;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.45;4.45. Problem45;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.46;4.46. Problem46;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.47;4.47. Problem47;error;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.48;4.48. Problem48;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.49;4.49. Problem49;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.5;4.5. Problem5;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.50;4.50. Problem50;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.51;4.51. Problem51;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.52;4.52. Problem52;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.6;4.6. Problem6;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.7;4.7. Problem7;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.8;4.8. Problem8;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2360;4. Steady State Analysis For Sinusoidal Excitation;4.9;4.9. Problem9;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.1;5.1. Problem1;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.10;5.10. Problem10;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.11;5.11. Problem11;error;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.12;5.12. Problem12;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.13;5.13. Problem13;error;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.14;5.14. Problem14;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.15;5.15. Problem15;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.17;5.17. Problem17;warning;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.18;5.18. Problem18;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.19;5.19. Problem19;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.2;5.2. Problem2;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.20;5.20. Problem20;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.21;5.21. Problem21;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.22;5.22. Problem22;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.28;5.28. Problem28;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.29;5.29. Problem29;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.3;5.3. Problem3;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.4;5.4. Problem4;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.5;5.5. Problem5;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.6;5.6. Problem6;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.7;5.7. Problem7;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.8;5.8. Problem8;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2361;5. Frequency Response;5.9;5.9. Problem9;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2362;6. Three Phase Circuits;6.1;6.1. Problem1;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2362;6. Three Phase Circuits;6.10;6.10. Problem10;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2362;6. Three Phase Circuits;6.11;6.11. Problem11;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2362;6. Three Phase Circuits;6.12;6.12. Problem12;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2362;6. Three Phase Circuits;6.13;6.13. Problem13;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2362;6. Three Phase Circuits;6.14;6.14. Problem14;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2362;6. Three Phase Circuits;6.15;6.15. Problem15;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2362;6. Three Phase Circuits;6.16;6.16. Problem16;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2362;6. Three Phase Circuits;6.17;6.17. Problem17;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2362;6. Three Phase Circuits;6.18;6.18. Problem18;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2362;6. Three Phase Circuits;6.19;6.19. Problem19;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2362;6. Three Phase Circuits;6.2;6.2. Problem2;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2362;6. Three Phase Circuits;6.20;6.20. Problem20;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2362;6. Three Phase Circuits;6.21;6.21. Problem21;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2362;6. Three Phase Circuits;6.3;6.3. Problem3;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2362;6. Three Phase Circuits;6.4;6.4. Problem4;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2362;6. Three Phase Circuits;6.5;6.5. Problem5;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2362;6. Three Phase Circuits;6.6;6.6. Problem6;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2362;6. Three Phase Circuits;6.7;6.7. Problem7;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2362;6. Three Phase Circuits;6.9;6.9. Problem9;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2363;7. Magnetic Circuits;7.1;7.1. Problem1;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2363;7. Magnetic Circuits;7.10;7.10. Problem10;error;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2363;7. Magnetic Circuits;7.11;7.11. Problem11;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2363;7. Magnetic Circuits;7.12;7.12. Problem12;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2363;7. Magnetic Circuits;7.14;7.14. Problem14;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2363;7. Magnetic Circuits;7.15;7.15. Problem15;error;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2363;7. Magnetic Circuits;7.16;7.16. Problem16;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2363;7. Magnetic Circuits;7.17;7.17. Problem17;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2363;7. Magnetic Circuits;7.18;7.18. Problem18;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2363;7. Magnetic Circuits;7.19;7.19. Problem19;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2363;7. Magnetic Circuits;7.2;7.2. Problem2;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2363;7. Magnetic Circuits;7.3;7.3. Problem3;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2363;7. Magnetic Circuits;7.4;7.4. Problem4;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2363;7. Magnetic Circuits;7.5;7.5. Problem5;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2363;7. Magnetic Circuits;7.6;7.6. Problem6;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2363;7. Magnetic Circuits;7.7;7.7. Problem7;error;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2363;7. Magnetic Circuits;7.8;7.8. Problem8;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2363;7. Magnetic Circuits;7.9;7.9. Problem9;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.1;8.1. Problem1;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.10;8.10. Problem10;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.11;8.11. Problem11;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.12;8.12. Problem12;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.13;8.13. Problem13;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.14;8.14. Problem14;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.15;8.15. Problem15;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.16;8.16. Problem16;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.17;8.17. Problem17;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.18;8.18. Problem18;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.19;8.19. Problem19;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.2;8.2. Problem2;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.20;8.20. Problem20;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.21;8.21. Problem21;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.22;8.22. Problem22;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.23;8.23. Problem23;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.24;8.24. Problem24;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.25;8.25. Problem25;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.26;8.26. Problem26;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.27;8.27. Problem27;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.28;8.28. Problem28;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.29;8.29. Problem29;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.3;8.3. Problem3;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.4;8.4. Problem4;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.5;8.5. Problem5;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.6;8.6. Problem6;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.7;8.7. Problem7;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.8;8.8. Problem8;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2364;8. Transformers;8.9;8.9. Problem9;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2365;9. EMF and Torque in Electric Machines;9.1;9.1. Problem1;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2365;9. EMF and Torque in Electric Machines;9.10;9.10. Problem10;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2365;9. EMF and Torque in Electric Machines;9.11;9.11. Problem11;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2365;9. EMF and Torque in Electric Machines;9.12;9.12. Problem12;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2365;9. EMF and Torque in Electric Machines;9.13;9.13. Problem13;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2365;9. EMF and Torque in Electric Machines;9.14;9.14. Problem14;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2365;9. EMF and Torque in Electric Machines;9.15;9.15. Problem15;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2365;9. EMF and Torque in Electric Machines;9.16;9.16. Problem16;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2365;9. EMF and Torque in Electric Machines;9.2;9.2. Problem2;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2365;9. EMF and Torque in Electric Machines;9.3;9.3. Problem3;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2365;9. EMF and Torque in Electric Machines;9.4;9.4. Problem4;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2365;9. EMF and Torque in Electric Machines;9.5;9.5. Problem5;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2365;9. EMF and Torque in Electric Machines;9.6;9.6. Problem6;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2365;9. EMF and Torque in Electric Machines;9.7;9.7. Problem7;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2365;9. EMF and Torque in Electric Machines;9.8;9.8. Problem8;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2365;9. EMF and Torque in Electric Machines;9.9;9.9. Problem9;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.1;10.1. Problem1;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.10;10.10. Problem10;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.11;10.11. Problem11;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.12;10.12. Problem12;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.13;10.13. Problem13;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.14;10.14. Problem14;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.15;10.15. Problem15;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.16;10.16. Problem16;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.17;10.17. Problem17;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.18;10.18. Problem18;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.19;10.19. Problem19;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.2;10.2. Problem2;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.20;10.20. Problem20;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.21;10.21. Problem21;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.22;10.22. Problem22;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.23;10.23. Problem23;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.24;10.24. Problem24;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.25;10.25. Problem25;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.26;10.26. Problem26;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.3;10.3. Problem3;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.4;10.4. Problem4;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.5;10.5. Problem5;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.6;10.6. Problem6;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.7;10.7. Problem7;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.8;10.8. Problem8;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2366;10. DC Machines;10.9;10.9. Problem9;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2367;11. Synchronous Machine;11.1;11.1. Problem1;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2367;11. Synchronous Machine;11.10;11.10. Problem10;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2367;11. Synchronous Machine;11.11;11.11. Problem11;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2367;11. Synchronous Machine;11.12;11.12. Problem12;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2367;11. Synchronous Machine;11.13;11.13. Problem13;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2367;11. Synchronous Machine;11.14;11.14. Problem14;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2367;11. Synchronous Machine;11.15;11.15. Problem15;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2367;11. Synchronous Machine;11.2;11.2. Problem2;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2367;11. Synchronous Machine;11.3;11.3. Problem3;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2367;11. Synchronous Machine;11.4;11.4. Problem4;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2367;11. Synchronous Machine;11.5;11.5. Problem5;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2367;11. Synchronous Machine;11.6;11.6. Problem6;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2367;11. Synchronous Machine;11.7;11.7. Problem7;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2367;11. Synchronous Machine;11.8;11.8. Problem8;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2367;11. Synchronous Machine;11.9;11.9. Problem9;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2368;12. Induction Motor;12.1;12.1. Problem1;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2368;12. Induction Motor;12.10;12.10. Problem10;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2368;12. Induction Motor;12.11;12.11. Problem11;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2368;12. Induction Motor;12.12;12.12. Problem12;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2368;12. Induction Motor;12.13;12.13. Problem13;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2368;12. Induction Motor;12.14;12.14. Problem14;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2368;12. Induction Motor;12.15;12.15. Problem15;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2368;12. Induction Motor;12.16;12.16. Problem16;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2368;12. Induction Motor;12.17;12.17. Problem17;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2368;12. Induction Motor;12.2;12.2. Problem2;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2368;12. Induction Motor;12.3;12.3. Problem3;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2368;12. Induction Motor;12.5;12.5. Problem5;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2368;12. Induction Motor;12.6;12.6. Problem6;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2368;12. Induction Motor;12.7;12.7. Problem7;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2368;12. Induction Motor;12.8;12.8. Problem8;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2368;12. Induction Motor;12.9;12.9. Problem9;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2369;14. Measurement Techniques and Electric and Electronic Instrumentation;14.1;14.1. Problem1;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2369;14. Measurement Techniques and Electric and Electronic Instrumentation;14.10;14.10. Problem10;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2369;14. Measurement Techniques and Electric and Electronic Instrumentation;14.11;14.11. Problem11;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2369;14. Measurement Techniques and Electric and Electronic Instrumentation;14.12;14.12. Problem12;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2369;14. Measurement Techniques and Electric and Electronic Instrumentation;14.13;14.13. Problem13;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2369;14. Measurement Techniques and Electric and Electronic Instrumentation;14.14;14.14. Problem14;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2369;14. Measurement Techniques and Electric and Electronic Instrumentation;14.15;14.15. Problem15;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2369;14. Measurement Techniques and Electric and Electronic Instrumentation;14.17;14.17. Problem17;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2369;14. Measurement Techniques and Electric and Electronic Instrumentation;14.18;14.18. Problem18;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2369;14. Measurement Techniques and Electric and Electronic Instrumentation;14.2;14.2. Problem2;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2369;14. Measurement Techniques and Electric and Electronic Instrumentation;14.3;14.3. Problem3;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2369;14. Measurement Techniques and Electric and Electronic Instrumentation;14.4;14.4. Problem4;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2369;14. Measurement Techniques and Electric and Electronic Instrumentation;14.5;14.5. Problem5;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2369;14. Measurement Techniques and Electric and Electronic Instrumentation;14.6;14.6. Problem6;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2369;14. Measurement Techniques and Electric and Electronic Instrumentation;14.7;14.7. Problem7;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2369;14. Measurement Techniques and Electric and Electronic Instrumentation;14.8;14.8. Problem8;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2369;14. Measurement Techniques and Electric and Electronic Instrumentation;14.9;14.9. Problem9;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2370;15. Power Systems;15.1;15.1. Problem1;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2370;15. Power Systems;15.2;15.2. Problem2;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2370;15. Power Systems;15.3;15.3. Problem3;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2370;15. Power Systems;15.4;15.4. Problem4;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2370;15. Power Systems;15.5;15.5. Problem5;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2370;15. Power Systems;15.6;15.6. Problem6;correct;runtime; -671;Basic Electrical Engineering(D. P. Kothari And I. J. Nagrath);2370;15. Power Systems;15.7;15.7. Problem7;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2051;1. Basic Calculations;1.01;1.01. Example 1;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2052;2. Process Variables;2.02;2.02. Example 2;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2052;2. Process Variables;2.03;2.03. Example 3;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2052;2. Process Variables;2.04;2.04. Example 4;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2052;2. Process Variables;2.05;2.05. Example 5;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2052;2. Process Variables;2.06;2.06. Example 6;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2052;2. Process Variables;2.07;2.07. Example 7;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2052;2. Process Variables;2.08;2.08. Example 8;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2052;2. Process Variables;2.09;2.09. Example 9;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2052;2. Process Variables;2.10;2.10. Example 10;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2052;2. Process Variables;2.11;2.11. Example 11;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2053;3. Gas Laws;3.01;3.01. Example 1;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2053;3. Gas Laws;3.02;3.02. Example 2;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2053;3. Gas Laws;3.03;3.03. Example 3;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2053;3. Gas Laws;3.04;3.04. Example 4;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2053;3. Gas Laws;3.05;3.05. Example 5;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2053;3. Gas Laws;3.06;3.06. Example 6;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2053;3. Gas Laws;3.07;3.07. Example 7;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2053;3. Gas Laws;3.08;3.08. Example 8;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2053;3. Gas Laws;3.09;3.09. Example 9;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2053;3. Gas Laws;3.10;3.10. Example 10;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2053;3. Gas Laws;3.12;3.12. Example 12;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2053;3. Gas Laws;3.13;3.13. Example 13;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2054;4. Conservation Laws;4.01;4.01. Example 1;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2054;4. Conservation Laws;4.02;4.02. Example 2;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2054;4. Conservation Laws;4.03;4.03. Example 3;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2054;4. Conservation Laws;4.04;4.04. Example 4;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2054;4. Conservation Laws;4.05;4.05. Example 5;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2054;4. Conservation Laws;4.06;4.06. Example 6;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2054;4. Conservation Laws;4.07;4.07. Example 7;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2054;4. Conservation Laws;4.09;4.09. Example 9;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2054;4. Conservation Laws;4.10;4.10. Example 10;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2054;4. Conservation Laws;4.11;4.11. Example 11;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2054;4. Conservation Laws;4.12;4.12. Example 12;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2055;5. The Second Law of Thermodynamics;5.01;5.01. Example 1;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2055;5. The Second Law of Thermodynamics;5.04;5.04. Example 4;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2055;5. The Second Law of Thermodynamics;5.06;5.06. Example 6;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2055;5. The Second Law of Thermodynamics;5.07;5.07. Example 7;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2055;5. The Second Law of Thermodynamics;5.08;5.08. Example 8;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2055;5. The Second Law of Thermodynamics;5.09;5.09. Example 9;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2055;5. The Second Law of Thermodynamics;5.11;5.11. Example 11;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2055;5. The Second Law of Thermodynamics;5.13;5.13. Example 13;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2055;5. The Second Law of Thermodynamics;5.14;5.14. Example 14;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2055;5. The Second Law of Thermodynamics;5.15;5.15. Example 15;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2056;6. The Second Law of Thermodynamics;6.01;6.01. Example 1;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2056;6. The Second Law of Thermodynamics;6.02;6.02. Example 2;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2056;6. The Second Law of Thermodynamics;6.03;6.03. Example 3;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2056;6. The Second Law of Thermodynamics;6.05;6.05. Example 5;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2056;6. The Second Law of Thermodynamics;6.06;6.06. Example 6;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2056;6. The Second Law of Thermodynamics;6.07;6.07. Example 7;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2056;6. The Second Law of Thermodynamics;6.09;6.09. Example 9;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2056;6. The Second Law of Thermodynamics;6.10;6.10. Example 10;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2056;6. The Second Law of Thermodynamics;6.11;6.11. Example 11;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2056;6. The Second Law of Thermodynamics;6.12;6.12. Example 12;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2056;6. The Second Law of Thermodynamics;6.14;6.14. Example 14;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2057;7. Sensible Enthalpy Effects;7.01;7.01. Example 1;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2057;7. Sensible Enthalpy Effects;7.02;7.02. Example 2;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2057;7. Sensible Enthalpy Effects;7.03;7.03. Example 3;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2057;7. Sensible Enthalpy Effects;7.04;7.04. Example 4;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2057;7. Sensible Enthalpy Effects;7.05;7.05. Example 5;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2057;7. Sensible Enthalpy Effects;7.06;7.06. Example 6;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2057;7. Sensible Enthalpy Effects;7.07;7.07. Example 7;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2057;7. Sensible Enthalpy Effects;7.08;7.08. Example 8;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2057;7. Sensible Enthalpy Effects;7.09;7.09. Example 9;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2057;7. Sensible Enthalpy Effects;7.11;7.11. Example 11;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2057;7. Sensible Enthalpy Effects;7.12;7.12. Example 12;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2058;8. Latent Enthalpy Effects;8.01;8.01. Example 1;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2058;8. Latent Enthalpy Effects;8.02;8.02. Example 2;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2058;8. Latent Enthalpy Effects;8.04;8.04. Example 4;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2058;8. Latent Enthalpy Effects;8.05;8.05. Example 5;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2058;8. Latent Enthalpy Effects;8.06;8.06. Example 6;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2058;8. Latent Enthalpy Effects;8.07;8.07. Example 7;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2058;8. Latent Enthalpy Effects;8.08;8.08. Example 8;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2058;8. Latent Enthalpy Effects;8.09;8.09. Example 9;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2058;8. Latent Enthalpy Effects;8.10;8.10. Example 10;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2058;8. Latent Enthalpy Effects;8.11;8.11. Example 11;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2058;8. Latent Enthalpy Effects;8.12;8.12. Example 12;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2058;8. Latent Enthalpy Effects;8.13;8.13. Example 13;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2059;9. Enthalpy of Mixing Effects;9.01;9.01. Example 1;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2059;9. Enthalpy of Mixing Effects;9.02;9.02. Example 2;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2059;9. Enthalpy of Mixing Effects;9.03;9.03. Example 3;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2059;9. Enthalpy of Mixing Effects;9.04;9.04. Example 4;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2059;9. Enthalpy of Mixing Effects;9.05;9.05. Example 5;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2059;9. Enthalpy of Mixing Effects;9.07;9.07. Example 7;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2059;9. Enthalpy of Mixing Effects;9.08;9.08. Example 8;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2059;9. Enthalpy of Mixing Effects;9.09;9.09. Example 9;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2060;10. Chemical Reaction Enthalpy Effects;10.01;10.01. Example 1;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2060;10. Chemical Reaction Enthalpy Effects;10.02;10.02. Example 2;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2060;10. Chemical Reaction Enthalpy Effects;10.03;10.03. Example 3;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2060;10. Chemical Reaction Enthalpy Effects;10.04;10.04. Example 4;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2060;10. Chemical Reaction Enthalpy Effects;10.05;10.05. Example 5;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2060;10. Chemical Reaction Enthalpy Effects;10.06;10.06. Example 6;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2060;10. Chemical Reaction Enthalpy Effects;10.07;10.07. Example 7;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2060;10. Chemical Reaction Enthalpy Effects;10.08;10.08. Example 8;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2060;10. Chemical Reaction Enthalpy Effects;10.09;10.09. Example 9;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2060;10. Chemical Reaction Enthalpy Effects;10.10;10.10. Example 10;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2060;10. Chemical Reaction Enthalpy Effects;10.11;10.11. Example 11;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2060;10. Chemical Reaction Enthalpy Effects;10.12;10.12. Example 12;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2060;10. Chemical Reaction Enthalpy Effects;10.13;10.13. Example 13;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2060;10. Chemical Reaction Enthalpy Effects;10.15;10.15. Example 15;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2060;10. Chemical Reaction Enthalpy Effects;10.16;10.16. Example 16;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2060;10. Chemical Reaction Enthalpy Effects;10.17;10.17. Example 17;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2061;11. Phase Equilibrium Principles;11.02;11.02. Example 2;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2061;11. Phase Equilibrium Principles;11.03;11.03. Example 3;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2061;11. Phase Equilibrium Principles;11.04;11.04. Example 4;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2061;11. Phase Equilibrium Principles;11.05;11.05. Example 5;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2061;11. Phase Equilibrium Principles;11.06;11.06. Example 6;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2061;11. Phase Equilibrium Principles;11.08;11.08. Example 8;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2061;11. Phase Equilibrium Principles;11.09;11.09. Example 9;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2061;11. Phase Equilibrium Principles;11.10;11.10. Example 10;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2061;11. Phase Equilibrium Principles;11.13;11.13. Example 13;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2061;11. Phase Equilibrium Principles;11.14;11.14. Example 14;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2062;12. Vapor Liquid Equilibrium Calculations;12.01;12.01. Example 1;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2062;12. Vapor Liquid Equilibrium Calculations;12.02;12.02. Example 2;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2062;12. Vapor Liquid Equilibrium Calculations;12.06;12.06. Example 6;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2062;12. Vapor Liquid Equilibrium Calculations;12.08;12.08. Example 8;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2062;12. Vapor Liquid Equilibrium Calculations;12.16;12.16. Example 16;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2063;13. Chemical Reaction Equilibrium Principles;13.04;13.04. Example 4;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2063;13. Chemical Reaction Equilibrium Principles;13.05;13.05. Example 5;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2063;13. Chemical Reaction Equilibrium Principles;13.06;13.06. Example 6;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2063;13. Chemical Reaction Equilibrium Principles;13.07;13.07. Example 7;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2063;13. Chemical Reaction Equilibrium Principles;13.10;13.10. Example 10;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2063;13. Chemical Reaction Equilibrium Principles;13.11;13.11. Example 11;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2063;13. Chemical Reaction Equilibrium Principles;13.12;13.12. Example 12;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2063;13. Chemical Reaction Equilibrium Principles;13.13;13.13. Example 13;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2063;13. Chemical Reaction Equilibrium Principles;13.14;13.14. Example 14;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2064;14. Chemical Reaction Equilibrium Applications;14.02;14.02. Example 2;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2064;14. Chemical Reaction Equilibrium Applications;14.04;14.04. Example 4;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2064;14. Chemical Reaction Equilibrium Applications;14.05;14.05. Example 5;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2064;14. Chemical Reaction Equilibrium Applications;14.06;14.06. Example 6;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2064;14. Chemical Reaction Equilibrium Applications;14.07;14.07. Example 7;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2064;14. Chemical Reaction Equilibrium Applications;14.08;14.08. Example 8;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2064;14. Chemical Reaction Equilibrium Applications;14.09;14.09. Example 9;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2064;14. Chemical Reaction Equilibrium Applications;14.10;14.10. Example 10;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2064;14. Chemical Reaction Equilibrium Applications;14.11;14.11. Example 11;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2064;14. Chemical Reaction Equilibrium Applications;14.12;14.12. Example 12;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2064;14. Chemical Reaction Equilibrium Applications;14.13;14.13. Example 13;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2064;14. Chemical Reaction Equilibrium Applications;14.15;14.15. Example 15;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2065;15. Economic Considerations;15.01;15.01. Example 1;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2066;17. Other ABET Topics;17.03;17.03. Example 3;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2066;17. Other ABET Topics;17.04;17.04. Example 4;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2067;19. Exergy The Concept of Quality Energy;19.02;19.02. Example 2;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2067;19. Exergy The Concept of Quality Energy;19.03;19.03. Example 3;correct;runtime; -680;Thermodynamics For The Practicing Engineer(L. Theodore, F. Ricci And T. Vanvliet);2067;19. Exergy The Concept of Quality Energy;19.04;19.04. Example 4;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.1;3.1. MS1;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.10;3.10. MS10;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.11;3.11. MS11;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.12;3.12. MS12;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.13;3.13. MS13;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.14;3.14. MS14;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.15;3.15. MS15;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.16;3.16. MS16;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.17;3.17. MS17;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.18;3.18. MS18;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.19;3.19. MS19;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.2;3.2. MS2;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.20;3.20. MS20;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.21;3.21. MS21;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.22;3.22. MS22;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.23;3.23. MS23;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.24;3.24. MS24;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.25;3.25. MS25;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.26;3.26. MS26;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.27;3.27. MS27;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.28;3.28. MS28;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.29;3.29. MS29;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.3;3.3. MS3;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.30;3.30. MS30;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.31;3.31. MS31;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.32;3.32. MS32;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.33;3.33. MS33;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.4;3.4. MS4;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.5;3.5. MS5;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.6;3.6. MS6;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.7;3.7. MS7;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.8;3.8. MS8;correct;runtime; -683;Machine Design(U. C. Jindal);2539;3. MECHANICS OF SOLIDS;3.9;3.9. MS9;correct;runtime; -683;Machine Design(U. C. Jindal);2464;4. MANUFACTURING CONSIDERATIONS;4.1;4.1. MF1;correct;runtime; -683;Machine Design(U. C. Jindal);2464;4. MANUFACTURING CONSIDERATIONS;4.2;4.2. MF2;correct;runtime; -683;Machine Design(U. C. Jindal);2464;4. MANUFACTURING CONSIDERATIONS;4.3;4.3. MF3;correct;runtime; -683;Machine Design(U. C. Jindal);2464;4. MANUFACTURING CONSIDERATIONS;4.4;4.4. MF4;correct;runtime; -683;Machine Design(U. C. Jindal);2438;5. INTRODUCTION TO PRESSURE VESSELS;5.1;5.1. IPV5 1;correct;runtime; -683;Machine Design(U. C. Jindal);2438;5. INTRODUCTION TO PRESSURE VESSELS;5.2;5.2. IPV5 2;correct;runtime; -683;Machine Design(U. C. Jindal);2438;5. INTRODUCTION TO PRESSURE VESSELS;5.3;5.3. IPV5 3;correct;runtime; -683;Machine Design(U. C. Jindal);2438;5. INTRODUCTION TO PRESSURE VESSELS;5.4;5.4. IPV5 4;correct;runtime; -683;Machine Design(U. C. Jindal);2438;5. INTRODUCTION TO PRESSURE VESSELS;5.5;5.5. IPV5 5;correct;runtime; -683;Machine Design(U. C. Jindal);3028;6. LEVERS;6.1;6.1. L1;correct;runtime; -683;Machine Design(U. C. Jindal);3028;6. LEVERS;6.2;6.2. L2;correct;runtime; -683;Machine Design(U. C. Jindal);3028;6. LEVERS;6.3;6.3. L3;correct;runtime; -683;Machine Design(U. C. Jindal);3028;6. LEVERS;6.4;6.4. L4;correct;runtime; -683;Machine Design(U. C. Jindal);3028;6. LEVERS;6.5;6.5. L5;correct;runtime; -683;Machine Design(U. C. Jindal);3028;6. LEVERS;6.6;6.6. L6;correct;runtime; -683;Machine Design(U. C. Jindal);3029;7. STRUTS AND COLUMNS;7.1;7.1. SC1;correct;runtime; -683;Machine Design(U. C. Jindal);3029;7. STRUTS AND COLUMNS;7.2;7.2. SC2;correct;runtime; -683;Machine Design(U. C. Jindal);3029;7. STRUTS AND COLUMNS;7.3;7.3. SC3;correct;runtime; -683;Machine Design(U. C. Jindal);3029;7. STRUTS AND COLUMNS;7.4;7.4. SC4;correct;runtime; -683;Machine Design(U. C. Jindal);3029;7. STRUTS AND COLUMNS;7.5;7.5. SC5;correct;runtime; -683;Machine Design(U. C. Jindal);3029;7. STRUTS AND COLUMNS;7.6;7.6. SC6;correct;runtime; -683;Machine Design(U. C. Jindal);3029;7. STRUTS AND COLUMNS;7.7;7.7. SC7;correct;runtime; -683;Machine Design(U. C. Jindal);2336;8. SPRINGS;8.1;8.1. S8 1;correct;runtime; -683;Machine Design(U. C. Jindal);2336;8. SPRINGS;8.10;8.10. S8 10;correct;runtime; -683;Machine Design(U. C. Jindal);2336;8. SPRINGS;8.11;8.11. S8 11;correct;runtime; -683;Machine Design(U. C. Jindal);2336;8. SPRINGS;8.12;8.12. S8 12A;correct;runtime; -683;Machine Design(U. C. Jindal);2336;8. SPRINGS;8.13;8.13. S8 13;correct;runtime; -683;Machine Design(U. C. Jindal);2336;8. SPRINGS;8.14;8.14. S8 14;correct;runtime; -683;Machine Design(U. C. Jindal);2336;8. SPRINGS;8.2;8.2. S8 2;correct;runtime; -683;Machine Design(U. C. Jindal);2336;8. SPRINGS;8.3;8.3. S8 3;correct;runtime; -683;Machine Design(U. C. Jindal);2336;8. SPRINGS;8.4;8.4. S8 4;correct;runtime; -683;Machine Design(U. C. Jindal);2336;8. SPRINGS;8.5;8.5. S8 5;correct;runtime; -683;Machine Design(U. C. Jindal);2336;8. SPRINGS;8.6;8.6. S8 6;correct;runtime; -683;Machine Design(U. C. Jindal);2336;8. SPRINGS;8.7;8.7. S8 7;correct;runtime; -683;Machine Design(U. C. Jindal);2336;8. SPRINGS;8.8;8.8. S8 8;correct;runtime; -683;Machine Design(U. C. Jindal);2336;8. SPRINGS;8.9;8.9. S8 9;correct;runtime; -683;Machine Design(U. C. Jindal);2515;9. THREADED FASTENERS;9.1;9.1. TF1;correct;runtime; -683;Machine Design(U. C. Jindal);2515;9. THREADED FASTENERS;9.10;9.10. TF10;correct;runtime; -683;Machine Design(U. C. Jindal);2515;9. THREADED FASTENERS;9.11;9.11. TF11;correct;runtime; -683;Machine Design(U. C. Jindal);2515;9. THREADED FASTENERS;9.2;9.2. TF2;correct;runtime; -683;Machine Design(U. C. Jindal);2515;9. THREADED FASTENERS;9.3;9.3. TF3;correct;runtime; -683;Machine Design(U. C. Jindal);2515;9. THREADED FASTENERS;9.4;9.4. TF4;correct;runtime; -683;Machine Design(U. C. Jindal);2515;9. THREADED FASTENERS;9.5;9.5. TF5;correct;runtime; -683;Machine Design(U. C. Jindal);2515;9. THREADED FASTENERS;9.6;9.6. TF6;correct;runtime; -683;Machine Design(U. C. Jindal);2515;9. THREADED FASTENERS;9.7;9.7. TF7;correct;runtime; -683;Machine Design(U. C. Jindal);2515;9. THREADED FASTENERS;9.8;9.8. TF8;error;runtime; -683;Machine Design(U. C. Jindal);2515;9. THREADED FASTENERS;9.9;9.9. TF9;correct;runtime; -683;Machine Design(U. C. Jindal);2516;10. PIPES AND PIPE JOINTS;10.1;10.1. PPJ1;correct;runtime; -683;Machine Design(U. C. Jindal);2516;10. PIPES AND PIPE JOINTS;10.2;10.2. PPJ2;correct;runtime; -683;Machine Design(U. C. Jindal);2516;10. PIPES AND PIPE JOINTS;10.3;10.3. PPJ3;correct;runtime; -683;Machine Design(U. C. Jindal);2516;10. PIPES AND PIPE JOINTS;10.4;10.4. PPJ4;correct;runtime; -683;Machine Design(U. C. Jindal);2517;11. RIVETED JOINTS;11.1;11.1. RJ1;correct;runtime; -683;Machine Design(U. C. Jindal);2517;11. RIVETED JOINTS;11.2;11.2. RJ2;correct;runtime; -683;Machine Design(U. C. Jindal);2517;11. RIVETED JOINTS;11.3;11.3. RJ3;correct;runtime; -683;Machine Design(U. C. Jindal);2517;11. RIVETED JOINTS;11.4;11.4. RJ4;correct;runtime; -683;Machine Design(U. C. Jindal);2517;11. RIVETED JOINTS;11.5;11.5. RJ5;correct;runtime; -683;Machine Design(U. C. Jindal);2517;11. RIVETED JOINTS;11.6;11.6. RJ6;correct;runtime; -683;Machine Design(U. C. Jindal);2517;11. RIVETED JOINTS;11.7;11.7. RJ7;correct;runtime; -683;Machine Design(U. C. Jindal);2517;11. RIVETED JOINTS;11.8;11.8. RJ8;correct;runtime; -683;Machine Design(U. C. Jindal);2517;11. RIVETED JOINTS;11.9;11.9. RJ9;correct;runtime; -683;Machine Design(U. C. Jindal);2522;12. WELDED JOINTS;12.1;12.1. WJ1;correct;runtime; -683;Machine Design(U. C. Jindal);2522;12. WELDED JOINTS;12.10;12.10. WJ10;correct;runtime; -683;Machine Design(U. C. Jindal);2522;12. WELDED JOINTS;12.11;12.11. WJ11;correct;runtime; -683;Machine Design(U. C. Jindal);2522;12. WELDED JOINTS;12.2;12.2. WJ2;correct;runtime; -683;Machine Design(U. C. Jindal);2522;12. WELDED JOINTS;12.3;12.3. WJ3;correct;runtime; -683;Machine Design(U. C. Jindal);2522;12. WELDED JOINTS;12.4;12.4. WJ4;correct;runtime; -683;Machine Design(U. C. Jindal);2522;12. WELDED JOINTS;12.5;12.5. WJ5;correct;runtime; -683;Machine Design(U. C. Jindal);2522;12. WELDED JOINTS;12.6;12.6. WJ6;correct;runtime; -683;Machine Design(U. C. Jindal);2522;12. WELDED JOINTS;12.7;12.7. WJ7;correct;runtime; -683;Machine Design(U. C. Jindal);2522;12. WELDED JOINTS;12.8;12.8. WJ8;correct;runtime; -683;Machine Design(U. C. Jindal);2522;12. WELDED JOINTS;12.9;12.9. WJ9;correct;runtime; -683;Machine Design(U. C. Jindal);2523;13. COTTER AND KNUCKLE JOINTS;13.1;13.1. CKJ1;correct;runtime; -683;Machine Design(U. C. Jindal);2523;13. COTTER AND KNUCKLE JOINTS;13.2;13.2. CKJ2;correct;runtime; -683;Machine Design(U. C. Jindal);2523;13. COTTER AND KNUCKLE JOINTS;13.3;13.3. CKJ3;correct;runtime; -683;Machine Design(U. C. Jindal);2523;13. COTTER AND KNUCKLE JOINTS;13.4;13.4. CKJ4;correct;runtime; -683;Machine Design(U. C. Jindal);2524;14. KEYS AND COUPLINGS;14.1;14.1. KC1;correct;runtime; -683;Machine Design(U. C. Jindal);2524;14. KEYS AND COUPLINGS;14.2;14.2. KC2;correct;runtime; -683;Machine Design(U. C. Jindal);2524;14. KEYS AND COUPLINGS;14.3;14.3. KC3;correct;runtime; -683;Machine Design(U. C. Jindal);2524;14. KEYS AND COUPLINGS;14.4;14.4. KC4;correct;runtime; -683;Machine Design(U. C. Jindal);2524;14. KEYS AND COUPLINGS;14.5;14.5. KC5;correct;runtime; -683;Machine Design(U. C. Jindal);2524;14. KEYS AND COUPLINGS;14.6;14.6. KC6;correct;runtime; -683;Machine Design(U. C. Jindal);2524;14. KEYS AND COUPLINGS;14.7;14.7. KC7;correct;runtime; -683;Machine Design(U. C. Jindal);2525;15. SHAFTS;15.2;15.2. S2;correct;runtime; -683;Machine Design(U. C. Jindal);2525;15. SHAFTS;15.3;15.3. S3;correct;runtime; -683;Machine Design(U. C. Jindal);2525;15. SHAFTS;15.4;15.4. S4;correct;runtime; -683;Machine Design(U. C. Jindal);2525;15. SHAFTS;15.5;15.5. S5;correct;runtime; -683;Machine Design(U. C. Jindal);2525;15. SHAFTS;15.6;15.6. S6;correct;runtime; -683;Machine Design(U. C. Jindal);2525;15. SHAFTS;15.7;15.7. S7;correct;runtime; -683;Machine Design(U. C. Jindal);2526;16. POWER SCREWS;16.1;16.1. PS1;correct;runtime; -683;Machine Design(U. C. Jindal);2526;16. POWER SCREWS;16.2;16.2. PS2;correct;runtime; -683;Machine Design(U. C. Jindal);2526;16. POWER SCREWS;16.3;16.3. PS3;correct;runtime; -683;Machine Design(U. C. Jindal);2526;16. POWER SCREWS;16.4;16.4. PS4;correct;runtime; -683;Machine Design(U. C. Jindal);2526;16. POWER SCREWS;16.5;16.5. PS5;correct;runtime; -683;Machine Design(U. C. Jindal);2526;16. POWER SCREWS;16.6;16.6. PS6;correct;runtime; -683;Machine Design(U. C. Jindal);2526;16. POWER SCREWS;16.7;16.7. PS7;correct;runtime; -683;Machine Design(U. C. Jindal);2526;16. POWER SCREWS;16.8;16.8. PS8;correct;runtime; -683;Machine Design(U. C. Jindal);2527;17. SLIDING CONTACT BEARINGS;17.1;17.1. SCB1;correct;runtime; -683;Machine Design(U. C. Jindal);2527;17. SLIDING CONTACT BEARINGS;17.2;17.2. SCB2;correct;runtime; -683;Machine Design(U. C. Jindal);2527;17. SLIDING CONTACT BEARINGS;17.3;17.3. SCB3;correct;runtime; -683;Machine Design(U. C. Jindal);2527;17. SLIDING CONTACT BEARINGS;17.4;17.4. SCB4;correct;runtime; -683;Machine Design(U. C. Jindal);2527;17. SLIDING CONTACT BEARINGS;17.5;17.5. SCB5;correct;runtime; -683;Machine Design(U. C. Jindal);2527;17. SLIDING CONTACT BEARINGS;17.6;17.6. SCB6;correct;runtime; -683;Machine Design(U. C. Jindal);2527;17. SLIDING CONTACT BEARINGS;17.7;17.7. SCB7;correct;runtime; -683;Machine Design(U. C. Jindal);2528;18. ROLLING BEARINGS;18.1;18.1. RB1;correct;runtime; -683;Machine Design(U. C. Jindal);2528;18. ROLLING BEARINGS;18.10;18.10. RB10;correct;runtime; -683;Machine Design(U. C. Jindal);2528;18. ROLLING BEARINGS;18.2;18.2. RB2;correct;runtime; -683;Machine Design(U. C. Jindal);2528;18. ROLLING BEARINGS;18.4;18.4. RB4;correct;runtime; -683;Machine Design(U. C. Jindal);2528;18. ROLLING BEARINGS;18.5;18.5. RB5;correct;runtime; -683;Machine Design(U. C. Jindal);2528;18. ROLLING BEARINGS;18.6;18.6. RB6;correct;runtime; -683;Machine Design(U. C. Jindal);2528;18. ROLLING BEARINGS;18.7;18.7. RB7;correct;runtime; -683;Machine Design(U. C. Jindal);2528;18. ROLLING BEARINGS;18.8;18.8. RB8;correct;runtime; -683;Machine Design(U. C. Jindal);2528;18. ROLLING BEARINGS;18.9;18.9. RB9;correct;runtime; -683;Machine Design(U. C. Jindal);2529;19. FLYWHEEL;19.1;19.1. F1;correct;runtime; -683;Machine Design(U. C. Jindal);2529;19. FLYWHEEL;19.2;19.2. F2;correct;runtime; -683;Machine Design(U. C. Jindal);2529;19. FLYWHEEL;19.3;19.3. F3;correct;runtime; -683;Machine Design(U. C. Jindal);2529;19. FLYWHEEL;19.4;19.4. F4;correct;runtime; -683;Machine Design(U. C. Jindal);2529;19. FLYWHEEL;19.5;19.5. F5;correct;runtime; -683;Machine Design(U. C. Jindal);2529;19. FLYWHEEL;19.6;19.6. F6;correct;runtime; -683;Machine Design(U. C. Jindal);2529;19. FLYWHEEL;19.7;19.7. F7;correct;runtime; -683;Machine Design(U. C. Jindal);2530;20. FLAT BELT DRIVE;20.1;20.1. FBD1;correct;runtime; -683;Machine Design(U. C. Jindal);2530;20. FLAT BELT DRIVE;20.2;20.2. FBD2;correct;runtime; -683;Machine Design(U. C. Jindal);2530;20. FLAT BELT DRIVE;20.3;20.3. FBD3;correct;runtime; -683;Machine Design(U. C. Jindal);2530;20. FLAT BELT DRIVE;20.4;20.4. FBD4;correct;runtime; -683;Machine Design(U. C. Jindal);2530;20. FLAT BELT DRIVE;20.5;20.5. FBD5;correct;runtime; -683;Machine Design(U. C. Jindal);2530;20. FLAT BELT DRIVE;20.6;20.6. FBD6;correct;runtime; -683;Machine Design(U. C. Jindal);2530;20. FLAT BELT DRIVE;20.7;20.7. FBD7;correct;runtime; -683;Machine Design(U. C. Jindal);2465;21. V BELT DRIVE;21.1;21.1. VBELT1;correct;runtime; -683;Machine Design(U. C. Jindal);2465;21. V BELT DRIVE;21.2;21.2. VBELT2;correct;runtime; -683;Machine Design(U. C. Jindal);2465;21. V BELT DRIVE;21.3;21.3. VBELT3;correct;runtime; -683;Machine Design(U. C. Jindal);2465;21. V BELT DRIVE;21.4;21.4. VBELT4;correct;runtime; -683;Machine Design(U. C. Jindal);2465;21. V BELT DRIVE;21.5;21.5. VBELT5;correct;runtime; -683;Machine Design(U. C. Jindal);1872;22. FRICTION CLUTCHES;22.1;22.1. FC221;correct;runtime; -683;Machine Design(U. C. Jindal);1872;22. FRICTION CLUTCHES;22.10;22.10. FC2210;correct;runtime; -683;Machine Design(U. C. Jindal);1872;22. FRICTION CLUTCHES;22.2;22.2. FC222;correct;runtime; -683;Machine Design(U. C. Jindal);1872;22. FRICTION CLUTCHES;22.3;22.3. FC223;correct;runtime; -683;Machine Design(U. C. Jindal);1872;22. FRICTION CLUTCHES;22.4;22.4. FC224;correct;runtime; -683;Machine Design(U. C. Jindal);1872;22. FRICTION CLUTCHES;22.5;22.5. FC225;correct;runtime; -683;Machine Design(U. C. Jindal);1872;22. FRICTION CLUTCHES;22.6;22.6. FC226;correct;runtime; -683;Machine Design(U. C. Jindal);1872;22. FRICTION CLUTCHES;22.7;22.7. FC227;correct;runtime; -683;Machine Design(U. C. Jindal);1872;22. FRICTION CLUTCHES;22.8;22.8. FC228;correct;runtime; -683;Machine Design(U. C. Jindal);1872;22. FRICTION CLUTCHES;22.9;22.9. FC229;correct;runtime; -683;Machine Design(U. C. Jindal);2437;23. BRAKES;23.1;23.1. B23 1;correct;runtime; -683;Machine Design(U. C. Jindal);2437;23. BRAKES;23.2;23.2. B23 2;correct;runtime; -683;Machine Design(U. C. Jindal);2437;23. BRAKES;23.3;23.3. B23 3;correct;runtime; -683;Machine Design(U. C. Jindal);2437;23. BRAKES;23.4;23.4. B23 4;correct;runtime; -683;Machine Design(U. C. Jindal);2437;23. BRAKES;23.5;23.5. B23 5;correct;runtime; -683;Machine Design(U. C. Jindal);2437;23. BRAKES;23.6;23.6. B23 6;correct;runtime; -683;Machine Design(U. C. Jindal);2437;23. BRAKES;23.7;23.7. B23 7;correct;runtime; -683;Machine Design(U. C. Jindal);2531;24. ROPE DRIVE;24.1;24.1. RD1;correct;runtime; -683;Machine Design(U. C. Jindal);2531;24. ROPE DRIVE;24.2;24.2. RD2;correct;runtime; -683;Machine Design(U. C. Jindal);2531;24. ROPE DRIVE;24.3;24.3. RD3;correct;runtime; -683;Machine Design(U. C. Jindal);2531;24. ROPE DRIVE;24.4;24.4. RD4;correct;runtime; -683;Machine Design(U. C. Jindal);2532;25. GEARS;25.1;25.1. G1;correct;runtime; -683;Machine Design(U. C. Jindal);2532;25. GEARS;25.2;25.2. G2;correct;runtime; -683;Machine Design(U. C. Jindal);2532;25. GEARS;25.3;25.3. G3;correct;runtime; -683;Machine Design(U. C. Jindal);2532;25. GEARS;25.4;25.4. G4;correct;runtime; -683;Machine Design(U. C. Jindal);2532;25. GEARS;25.5;25.5. G5;correct;runtime; -683;Machine Design(U. C. Jindal);2532;25. GEARS;25.6;25.6. G6;correct;runtime; -683;Machine Design(U. C. Jindal);2533;26. HELICAL GEARS;26.1;26.1. HG1;correct;runtime; -683;Machine Design(U. C. Jindal);2533;26. HELICAL GEARS;26.2;26.2. HG2;correct;runtime; -683;Machine Design(U. C. Jindal);2533;26. HELICAL GEARS;26.3;26.3. HG3;correct;runtime; -683;Machine Design(U. C. Jindal);2533;26. HELICAL GEARS;26.4;26.4. HG4;correct;runtime; -683;Machine Design(U. C. Jindal);2534;27. STRAIGHT BEVEL GEARS;27.1;27.1. SBG1;correct;runtime; -683;Machine Design(U. C. Jindal);2534;27. STRAIGHT BEVEL GEARS;27.2;27.2. SBG2;correct;runtime; -683;Machine Design(U. C. Jindal);2534;27. STRAIGHT BEVEL GEARS;27.3;27.3. SBG3;correct;runtime; -683;Machine Design(U. C. Jindal);2534;27. STRAIGHT BEVEL GEARS;27.4;27.4. SBG4;correct;runtime; -683;Machine Design(U. C. Jindal);2534;27. STRAIGHT BEVEL GEARS;27.5;27.5. SBG5;correct;runtime; -683;Machine Design(U. C. Jindal);2534;27. STRAIGHT BEVEL GEARS;27.6;27.6. SBG6;correct;runtime; -683;Machine Design(U. C. Jindal);2534;27. STRAIGHT BEVEL GEARS;27.7;27.7. SBG7;correct;runtime; -683;Machine Design(U. C. Jindal);2534;27. STRAIGHT BEVEL GEARS;27.8;27.8. SBG8;correct;runtime; -683;Machine Design(U. C. Jindal);2535;28. WORM AND WORM WHEEL SET;28.1;28.1. WWS1;correct;runtime; -683;Machine Design(U. C. Jindal);2535;28. WORM AND WORM WHEEL SET;28.2;28.2. WWS2;correct;runtime; -683;Machine Design(U. C. Jindal);2535;28. WORM AND WORM WHEEL SET;28.3;28.3. WWS3;correct;runtime; -683;Machine Design(U. C. Jindal);2535;28. WORM AND WORM WHEEL SET;28.4;28.4. WWS4;correct;runtime; -683;Machine Design(U. C. Jindal);2535;28. WORM AND WORM WHEEL SET;28.5;28.5. WWS5;correct;runtime; -683;Machine Design(U. C. Jindal);2535;28. WORM AND WORM WHEEL SET;28.6;28.6. WWS6;correct;runtime; -683;Machine Design(U. C. Jindal);2536;29. GEARBOX;29.1;29.1. GB1;correct;runtime; -683;Machine Design(U. C. Jindal);2536;29. GEARBOX;29.2;29.2. GB2;correct;runtime; -683;Machine Design(U. C. Jindal);2536;29. GEARBOX;29.3;29.3. GB3;correct;runtime; -683;Machine Design(U. C. Jindal);2537;30. CHAIN DRIVE;30.1;30.1. CD1;correct;runtime; -683;Machine Design(U. C. Jindal);2537;30. CHAIN DRIVE;30.2;30.2. CD2;correct;runtime; -683;Machine Design(U. C. Jindal);2537;30. CHAIN DRIVE;30.3;30.3. CD3;correct;runtime; -683;Machine Design(U. C. Jindal);2537;30. CHAIN DRIVE;30.4;30.4. CD4;correct;runtime; -683;Machine Design(U. C. Jindal);2538;31. SEALS PACKING AND GASKETS;31.1;31.1. SPG1;correct;runtime; -683;Machine Design(U. C. Jindal);2538;31. SEALS PACKING AND GASKETS;31.2;31.2. SPG2;correct;runtime; -683;Machine Design(U. C. Jindal);2538;31. SEALS PACKING AND GASKETS;31.3;31.3. SPG3;correct;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1843;1. Introduction;1.1;1.1. Thermal resistance;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1843;1. Introduction;1.2;1.2. Overall heat transfer coefficient;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1843;1. Introduction;1.3;1.3. Heat exchanger;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1845;3. Steady heat conduction;3.1;3.1. Heat exchanger;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1845;3. Steady heat conduction;3.2;3.2. Finned heated surfaces;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1845;3. Steady heat conduction;3.3;3.3. Rectangular fins;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1845;3. Steady heat conduction;3.4;3.4. Minimum width fins;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1845;3. Steady heat conduction;3.5;3.5. Wall with heat sources;correct;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1845;3. Steady heat conduction;3.6;3.6. 2D steady state conduction;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1846;4. Unsteady heat conduction;4.1;4.1. Unsteady state conduction;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1846;4. Unsteady heat conduction;4.2;4.2. Lag of thermometer;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1846;4. Unsteady heat conduction;4.3;4.3. Infinite flat plate;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1846;4. Unsteady heat conduction;4.4;4.4. Semi infinite solid;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1846;4. Unsteady heat conduction;4.5;4.5. Periodic heat conduction;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1846;4. Unsteady heat conduction;4.6;4.6. Semi infinite solid;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1846;4. Unsteady heat conduction;4.7;4.7. depth of penetration;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1848;6. Flow along surfaces and its channels;6.1;6.1. Laminar flow;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1848;6. Flow along surfaces and its channels;6.2;6.2. turbulent boundary layer;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1849;7. Forced convection in laminar flow;7.1;7.1. Plate in longitudinal flow;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1850;8. Forced convection in turbulent flow;8.1;8.1. Analogy between momentum and heat;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1850;8. Forced convection in turbulent flow;8.2;8.2. Flow in a tube;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1850;8. Forced convection in turbulent flow;8.3;8.3. plane plate in longitudinal flow;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1852;10. Special heat transfer processes;10.1;10.1. Dimensional analysis;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1855;11. Free convection;11.1;11.1. Laminar heat transfer;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1856;12. Condensation and evaporation;12.1;12.1. Film coefficient;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1856;12. Condensation and evaporation;12.2;12.2. Vertical wall;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1857;14. Heat exchange by radiation;14.1;14.1. Radiation between two walls;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1857;14. Heat exchange by radiation;14.2;14.2. Radiation of flames;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1857;14. Heat exchange by radiation;14.3;14.3. Heat transfer coefficient for radiation;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1858;16. Mass transfer;16.1;16.1. Diffusion;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1858;16. Mass transfer;16.2;16.2. Evaporation rate;error;runtime; -686;Heat And Mass Transfer(E. R. G. Eckert And R. M. Drake);1858;16. Mass transfer;16.3;16.3. Evaporation of water into air;error;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2095;2. Fluid laws;2.1;2.1. On Law Of Continuity;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2095;2. Fluid laws;2.2;2.2. On Bernoulli Equation;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2095;2. Fluid laws;2.3;2.3. On Venturi Tube;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2095;2. Fluid laws;2.4;2.4. Stagnation Point;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2095;2. Fluid laws;2.5;2.5. Stagnation Point;error;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2095;2. Fluid laws;2.6;2.6. Velocity and Stream Function;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2095;2. Fluid laws;2.7;2.7. Uniform Flow Plus a Source;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2095;2. Fluid laws;2.8;2.8. Source Plus Sink Plus Uniform Flow;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2095;2. Fluid laws;2.9;2.9. Flow around a circular cylinder;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2096;3. Gases;3.1;3.1. Equation of states;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2096;3. Gases;3.2;3.2. Equation of states;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2096;3. Gases;3.3;3.3. Adiabatic Process;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2096;3. Gases;3.4;3.4. Speed of sound;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2096;3. Gases;3.5;3.5. Speed of sound;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2096;3. Gases;3.6;3.6. Bernoulli Equation for compressible flow;error;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2096;3. Gases;3.7;3.7. Similar Flows;error;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2097;4. The Atmosphere;4.1;4.1. Standard Pressure at Altitude Below 35332 Feet;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2097;4. The Atmosphere;4.2;4.2. Standard Pressure at Altitude After 35332 Feet;error;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2097;4. The Atmosphere;4.3;4.3. Effect of Humidity;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2098;5. Flat and Curved Plates;5.1;5.1. Flat Plates Nornmal to Direction to Flow;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2098;5. Flat and Curved Plates;5.2;5.2. Flat Plates Nornmal to Direction to Flow;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2098;5. Flat and Curved Plates;5.3;5.3. Curved Deflecting Surface;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2098;5. Flat and Curved Plates;5.4;5.4. Inclined Flat Plates;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2099;7. Air flow in Two Dimensions About a Wing;7.1;7.1. Pressure distribution in real fluid;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2100;8. Wings with Aspect Ratio of Six at Subsonic Speed;8.1;8.1. Lift Equation;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2100;8. Wings with Aspect Ratio of Six at Subsonic Speed;8.10;8.10. Polar Curves;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2100;8. Wings with Aspect Ratio of Six at Subsonic Speed;8.11;8.11. Absolute Coefficients with metric units;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2100;8. Wings with Aspect Ratio of Six at Subsonic Speed;8.12;8.12. Absolute Coefficients with metric units;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2100;8. Wings with Aspect Ratio of Six at Subsonic Speed;8.13;8.13. Power in terms of CdByCl;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2100;8. Wings with Aspect Ratio of Six at Subsonic Speed;8.14;8.14. Moment Coefficient and center of pressure;error;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2100;8. Wings with Aspect Ratio of Six at Subsonic Speed;8.15;8.15. Center of Pressure;error;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2100;8. Wings with Aspect Ratio of Six at Subsonic Speed;8.16;8.16. Center of Pressure;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2100;8. Wings with Aspect Ratio of Six at Subsonic Speed;8.2;8.2. Lift Equation;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2100;8. Wings with Aspect Ratio of Six at Subsonic Speed;8.3;8.3. Lift Equation;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2100;8. Wings with Aspect Ratio of Six at Subsonic Speed;8.4;8.4. Power Required by Wing;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2100;8. Wings with Aspect Ratio of Six at Subsonic Speed;8.5;8.5. Flying Level at Altitude;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2100;8. Wings with Aspect Ratio of Six at Subsonic Speed;8.6;8.6. Flying Level at Altitude;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2100;8. Wings with Aspect Ratio of Six at Subsonic Speed;8.7;8.7. Lift Drag Ratio;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2100;8. Wings with Aspect Ratio of Six at Subsonic Speed;8.8;8.8. Polar Curves;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2100;8. Wings with Aspect Ratio of Six at Subsonic Speed;8.9;8.9. Polar Curves;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2101;9. Vortex Motion;8.3;8.3. Horseshoe Vortex;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2101;9. Vortex Motion;9.1;9.1. Lift due to Circulation;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2101;9. Vortex Motion;9.2;9.2. Biot Savart Law;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2102;10. Correction of Aspect Ratio;10.1;10.1. Induced Drag;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2102;10. Correction of Aspect Ratio;10.10;10.10. Ground Effect;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2102;10. Correction of Aspect Ratio;10.2;10.2. Horse Power Required for Induce Drag;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2102;10. Correction of Aspect Ratio;10.3;10.3. Correction for aspect ratio of monoplane;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2102;10. Correction of Aspect Ratio;10.4;10.4. Coefficient for infinite aspect ratio;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2102;10. Correction of Aspect Ratio;10.5;10.5. Coefficient for infinite aspect ratio;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2102;10. Correction of Aspect Ratio;10.6;10.6. Coefficient for Infinite Aspect Ratio;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2102;10. Correction of Aspect Ratio;10.7;10.7. Equivalent monoplane aspect ratio;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2102;10. Correction of Aspect Ratio;10.8;10.8. Best lift distribution in biplane;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2102;10. Correction of Aspect Ratio;10.9;10.9. Equivalent monoplane span;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2102;10. Correction of Aspect Ratio;11.2;11.2. Critical Pressure;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/689/CH11/EX11.2/: PATH DOES NOT EXIST -689;Elements Of Practical Aerodynamics(B. Jones);2103;11. Scale and Compressibility Effects;11.1;11.1. Critical Velocity;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2103;11. Scale and Compressibility Effects;11.3;11.3. Lift at subsonic speed;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2104;13. Drag;13.1;13.1. Struts;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2105;15. Propellers;15.1;15.1. Thrust and power coefficients;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2105;15. Propellers;15.2;15.2. Thrust of a fixed pitch propeller;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2105;15. Propellers;15.3;15.3. Power of a fixed pitch propeller;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2105;15. Propellers;15.4;15.4. Thrust Horse Power for a fixed pitch propeller;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2105;15. Propellers;15.5;15.5. Thrust of a constant speed propeller;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2105;15. Propellers;15.6;15.6. Thrust Horsepower of a constant speed propeller at Sea level;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2105;15. Propellers;15.7;15.7. Thrust Horsepower of a constant speed propeller at an altitude;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2106;16. Level Flight;16.1;16.1. Horsepower required at sea level;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2106;16. Level Flight;16.2;16.2. Horsepower required at sea level;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2106;16. Level Flight;16.3;16.3. Horsepower required at sea level;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2106;16. Level Flight;16.4;16.4. Power required at level flight at altitude;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2108;17. Climbing Flight;17.1;17.1. Absolute and service ceilings;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2108;17. Climbing Flight;17.2;17.2. Time to Climb Altitude;correct;runtime; -689;Elements Of Practical Aerodynamics(B. Jones);2108;17. Climbing Flight;17.3;17.3. Time to Climb Formula;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2716;2. Discreet Time Signals and Systems;2.1;2.1. Ensemble Averaging;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2716;2. Discreet Time Signals and Systems;2.16;2.16. Linearity of accumulator;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2716;2. Discreet Time Signals and Systems;2.2;2.2. Basic operations;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2716;2. Discreet Time Signals and Systems;2.20;2.20. Passive system;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2716;2. Discreet Time Signals and Systems;2.22;2.22. Impulse response of Accumulator;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2716;2. Discreet Time Signals and Systems;2.26;2.26. Convolution;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2716;2. Discreet Time Signals and Systems;2.27;2.27. Convolution;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2716;2. Discreet Time Signals and Systems;2.28;2.28. Convolution;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2716;2. Discreet Time Signals and Systems;2.29;2.29. Convolution;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2716;2. Discreet Time Signals and Systems;2.3;2.3. Unequal length sequence;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2716;2. Discreet Time Signals and Systems;2.30;2.30. Convolution;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2716;2. Discreet Time Signals and Systems;2.31;2.31. Stabbility of causal system;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2716;2. Discreet Time Signals and Systems;2.32;2.32. Stability of Anti causal system;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2716;2. Discreet Time Signals and Systems;2.33;2.33. Stability of a system;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2716;2. Discreet Time Signals and Systems;2.46;2.46. Cross coreation computation;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2716;2. Discreet Time Signals and Systems;2.5;2.5. Generating symmetric parts;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2716;2. Discreet Time Signals and Systems;2.6;2.6. Energy Signal;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2716;2. Discreet Time Signals and Systems;2.7;2.7. Power Signal;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2716;2. Discreet Time Signals and Systems;2.9;2.9. Square wave generation;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2727;3. Discreet TIme Fourier Transform;3.10;3.10. DTFT of finite length exponential sequence;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2727;3. Discreet TIme Fourier Transform;3.12;3.12. Plotting DTFT of exponential sequence;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2727;3. Discreet TIme Fourier Transform;3.13;3.13. DTFT computation;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2727;3. Discreet TIme Fourier Transform;3.14;3.14. Energy of signal;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2727;3. Discreet TIme Fourier Transform;3.15;3.15. Energy of exponential sequence;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2727;3. Discreet TIme Fourier Transform;3.5;3.5. DTFT computation;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2727;3. Discreet TIme Fourier Transform;3.6;3.6. DTFT computation;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2727;3. Discreet TIme Fourier Transform;3.7;3.7. Plotting real and imaginary part;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2717;4. Digital Processing of Continous TIme Systems;4.16;4.16. Design of Analof Butterworth HP Filter;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2717;4. Digital Processing of Continous TIme Systems;4.5;4.5. Passband and Stopband ripple computation;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2717;4. Digital Processing of Continous TIme Systems;4.6;4.6. Order of Analog filter;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2717;4. Digital Processing of Continous TIme Systems;4.7;4.7. Order of Analog Chebyshev Filter;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2717;4. Digital Processing of Continous TIme Systems;4.8;4.8. Order of Analog Lowpass Elliptic Filter;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2718;5. Finite Length Discreet Transform;5.1;5.1. DFT computation;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2718;5. Finite Length Discreet Transform;5.10;5.10. Generating symmetric parts;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2718;5. Finite Length Discreet Transform;5.11;5.11. Cicular convolution computation;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2718;5. Finite Length Discreet Transform;5.12;5.12. Linear Convolution using DFT;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2718;5. Finite Length Discreet Transform;5.14;5.14. DFT computationusing single DFT;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2718;5. Finite Length Discreet Transform;5.15;5.15. DFT computationusing single DFT of shorter length;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2718;5. Finite Length Discreet Transform;5.2;5.2. DFT of sinusoidal sequence;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2718;5. Finite Length Discreet Transform;5.3;5.3. DFT computation;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2718;5. Finite Length Discreet Transform;5.4;5.4. IDFT Computation;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2718;5. Finite Length Discreet Transform;5.5;5.5. DFT computation;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2718;5. Finite Length Discreet Transform;5.7;5.7. Cicular convolution computation;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2718;5. Finite Length Discreet Transform;5.8;5.8. Cicular convolution computation;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.1;6.1. z Transform of causal exponential sequence;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.10;6.10. Rational form of z Transform from its zero and pole locations;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.11;6.11. Inverse z Transform;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.12;6.12. Inverse z Transform;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.13;6.13. Prpper fraction of Rational z Transform;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.14;6.14. Inverse z Transform by partial fraction expansion;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.15;6.15. residue computation using coefficient matching approach;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.16;6.16. Inverse z Transform by power series expansion;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.18;6.18. Inverse z Transform using long division;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.19;6.19. Inverse z Transform using long division;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.2;6.2. z transform of anticausal sequence;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.20;6.20. Inverse z Transform;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.22;6.22. z Transform;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.23;6.23. z Transform;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.24;6.24. sum of sequences of non overlapping ROC;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.25;6.25. z Transform;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.26;6.26. z Transform;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.27;6.27. Inverse z Transform;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.28;6.28. Enlargement of ROC by pole zero cancellation;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.3;6.3. z Transform;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.30;6.30. Convolution;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.31;6.31. Convolution;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.33;6.33. Transfer Function of Moving Average Filter;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.34;6.34. Transfer function determination;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.4;6.4. ROC of two exponential sequence;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.5;6.5. ROC of two sided sequence;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2719;6. z Transform;6.9;6.9. z Transform;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2720;7. LTI Discreet Time systems in the Transform Domain;7.1;7.1. Bounded real function;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2720;7. LTI Discreet Time systems in the Transform Domain;7.2;7.2. Transfer function determination;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2720;7. LTI Discreet Time systems in the Transform Domain;7.6;7.6. FIR Transfer function;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2721;8. Digital Filter Structures;8.1;8.1. Analysis of Cascaded lattice digital filter structure;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2721;8. Digital Filter Structures;8.10;8.10. Cascaded lattice realization of IIR digital Transfer Function;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2721;8. Digital Filter Structures;8.12;8.12. Gray Markel method of realization;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2721;8. Digital Filter Structures;8.18;8.18. Cascaded lattice realization;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2721;8. Digital Filter Structures;8.6;8.6. Factorization of FIR Transfer Function;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2721;8. Digital Filter Structures;8.7;8.7. Factorization of IIR Transfer Function;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2722;9. IIR digital filter design;9.1;9.1. Computating ripple values;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2722;9. IIR digital filter design;9.12;9.12. Minimum order of Type 2 Chebyshev HP IIR digital filter;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2722;9. IIR digital filter design;9.2;9.2. conversion of bandedged frequencies to Normalized digital frequencies;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2722;9. IIR digital filter design;9.3;9.3. Design of HP Digital Filter;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2722;9. IIR digital filter design;9.6;9.6. Changing passband edge frequencies to LP IIR digital frequencies;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2722;9. IIR digital filter design;9.7;9.7. Design of HP IIR Digital Filter from LP Digital Filter;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2723;10. FIR digital filter design;10.1;10.1. Kaiser formula;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2723;10. FIR digital filter design;10.2;10.2. Bellenger formula;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2723;10. FIR digital filter design;10.3;10.3. Hermann formula;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2723;10. FIR digital filter design;10.4;10.4. Order Estimation;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2723;10. FIR digital filter design;10.6;10.6. Filter length estimation for window based design;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2723;10. FIR digital filter design;10.7;10.7. Order Estimation;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2723;10. FIR digital filter design;10.8;10.8. Kaiser window;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2724;11. DSP Algorithm implementation;11.11;11.11. Cascaded lattice Filter structure;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2724;11. DSP Algorithm implementation;11.3;11.3. Reconstruction of Transfer function from Impulse response coeeficients;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2725;12. Analysis of Finite Wordlength Effects;12.3;12.3. Signal to Quantisation Noise Ratio;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2726;13. Multirate DIgital Signal Processing Findamentals;13.1;13.1. Up sampling operation;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2726;13. Multirate DIgital Signal Processing Findamentals;13.2;13.2. Down sampling operation;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2726;13. Multirate DIgital Signal Processing Findamentals;13.6;13.6. Decimator Computation complexity;correct;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2728;14. Applications of Digital Signal Processing;14.1;14.1. Effect of DFT length;error;runtime; -692;Digital Signal Processing: A Computer Based Approach(S. K. Mitra);2728;14. Applications of Digital Signal Processing;14.2;14.2. Effect of DFT length;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1824;1. Introduction To Electrical Machines;1.10;1.10. Find the average value of emf induced in the coil;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1824;1. Introduction To Electrical Machines;1.11;1.11. Find the average emf induced in the coil and current through the coil;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1824;1. Introduction To Electrical Machines;1.12;1.12. Find the average value of emf induced across the feild terminals;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1824;1. Introduction To Electrical Machines;1.9;1.9. Find the emf induced in the coil;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.1;2.1. Find current delievered by each machine and terminal voltage;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.10;2.10. Find the load current and generated emf and flux per pole;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.11;2.11. Find the armature current and generated emf and number of conductors of armature;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.12;2.12. Find the power absorbed by the load;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.13;2.13. Find the percentage reduction in speed;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.14;2.14. Find the speed;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.15;2.15. Find the Cu loss and iron and friction loss and torque;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.16;2.16. Find the Flux per pole and total number of conductors and torque;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.17;2.17. Find the Demagnetizing AT per pole and Cross magnetizing AT per pole and number of turns per pole;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.18;2.18. Find the current supplied by each generator and output voltage and output KW of each machine;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.19;2.19. Find the ratio of the speed as a generator to speed as a motor;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.2;2.2. Find the load shared by two DC generators;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.20;2.20. Find the no load speed;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.21;2.21. Find the speed of motor;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.22;2.22. Find the speed of machine;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.23;2.23. Determine the total torque and useful torque and useful flux per pole and rotational losses and efficiency;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.24;2.24. Determine the speed and percentage change in torque;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.25;2.25. Determine the speed;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.26;2.26. Determine the speed;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.27;2.27. Determine the speed at half load and 125 percent full load;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.28;2.28. Determine the value of resistance;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.29;2.29. Determine the value of additional resistance at starting and at 1000rpm;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.3;2.3. Find the number of conductors;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.30;2.30. Determine the speed at full load and speed at double full load and stalling torque in terms of full load torque;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.31;2.31. Determine the resistance to be inserted in series;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.32;2.32. Determine the resistance to be inserted in series;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.33;2.33. Determine the output and efficiency when input current is 20A and 100A;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.34;2.34. Determine the no load speed and Full load speed and Speed Regulation;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.35;2.35. Determine the no load speed and Percentage reduction in flux per pole;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.36;2.36. Determine the full load speed and Speed regulation and HP rating and Full load efficiency;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.37;2.37. Determine the speed Torque and Efficiency;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.38;2.38. Determine the efficiency and power input;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.39;2.39. Determine the efficiency armature current and max efficiency;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.4;2.4. Find the generated voltage and armature current;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.40;2.40. Calculate the Speed at full load and developed torque and Shaft power and Efficiency;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.41;2.41. Calculate the value of external resistance when the load torque is independent of speed and when the load torque is proportional to speed andthe load torque varies as square of the speed;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.43;2.43. Find the efficiency of the motor;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.44;2.44. Find the armature voltage drop;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.45;2.45. Find the no load speed;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.46;2.46. Find the percentage reduction in feild flux and value of additional resistance;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.47;2.47. Find the new speed as a percentage of the original speed;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.5;2.5. Find the shunt feild current and armature current and generated emf in armature and load resistance;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.6;2.6. Find the value of generated emf and armature current;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.7;2.7. Find the value of generated emf;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.8;2.8. Find the speed of generator;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);1834;2. DC Machines;2.9;2.9. Find the armature current and generated emf and flux per pole;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.1;3.1. Determine the number of turns of primary and secondary windings and emf per turn;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.10;3.10. Find the equivalent circuit parameters of the transformer reffered to LV side and also calculate the secondary voltage;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.11;3.11. Find the equivalent circuit parameters of the transformer reffered to LV side and also calculate the efficiency;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.12;3.12. Calculate Efficiency of transformer Load KVA at which max efficiency occurs and max efficiency and voltage regulation;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.13;3.13. Determine the KVA rating of auto transformer with additive and subtractive polarity also find the efficiency at full load and unity power factor;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.14;3.14. Calculate the parameters reffered to LV Side and also find the voltage regulation at full load and efficiency of transformer at full load and half load;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.15;3.15. Calculate the circuit parameters reffered to LV Side and also calculate the regulation and efficiency of transformer at full load and half load;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.16;3.16. Find the efficiency of transformer at full load and 75 percent of full load;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.17;3.17. Determine the Load at which max efficiency occurs and value of max efficiency and New core loss and Cu loss;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.18;3.18. Calculate the secondary current at which max efficiency will occur and also calculate the max efficiency;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.19;3.19. Find the iron loss copper loss at full load Load KVA at which maximum efficiency occurs and maximum efficiency of transformer;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.2;3.2. Determine the number of turns of primary and secondary windings and cross section area of the core;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.22;3.22. Calculate Efficiency at full load and half load;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.23;3.23. Calculate the core loss and copper loss and also find the value of load current at which max efficiency will be attained;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.24;3.24. Calculate the efficiency of the transformer at 75 percent of full load and maximum efficiency;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.25;3.25. Calculate the efficiency of the transformer on full load and half load at unity power factor;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.26;3.26. Find the voltage regulation;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.27;3.27. Calculate the percentage resistance and reactance drops and the percentage of full load at which max efficiency will occur;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.28;3.28. Find the voltage regulation;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.29;3.29. Calculate the value of iron loss and copper loss which will give max efficiency and also the max efficiency;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.3;3.3. Determine the number of turns of primary and secondary windings;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.30;3.30. Find the Efficiency and voltage regulation of transformer;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.4;3.4. Determine the Secondary voltage current flowing through windings and max value of flux;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.5;3.5. Determine the No load power factor iron loss component of current and magnetising component of current;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.6;3.6. Determine the No load input power magnetising component of current and no load power factor;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.7;3.7. Determine the Equivalent resistance leakage reactances and impedance reffered to high voltage side and Equivalent resistance leakage reactances and impedance reffered to high voltage side and Total copper loss of transformer;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.8;3.8. Find the equivalent circuit parameters reffered to primary side;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2243;3. Single Phase Transformers;3.9;3.9. Find the readings of transformers when it is connected for OC test and SC test;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2244;4. Three Phase Transformers;4.1;4.1. Find the value of line current;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2244;4. Three Phase Transformers;4.2;4.2. Find the value of line current;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2244;4. Three Phase Transformers;4.3;4.3. Determine the efficiency of transformer;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2244;4. Three Phase Transformers;4.4;4.4. Find the value of line voltage and line current and output;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2244;4. Three Phase Transformers;4.5;4.5. Find the Efficiency;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2244;4. Three Phase Transformers;4.6;4.6. Find the percentage resistance and reactance drop and efficiency and voltage regulation;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2244;4. Three Phase Transformers;4.7;4.7. Determine the KVA Load and Percentage rated load and Total KVA Rating and Ratio of star bank to delta bank transformer rating and percentage increase in load;correct;runtime; -695;Electric Machines - I(M. Verma And V. Ahuja);2244;4. Three Phase Transformers;4.8;4.8. Determine the Current flowing in various sections and Power transformed and Power conducted directly;correct;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2338;2. Stresses in Simple Machine Members;2.001;2.001. Program to determine tensile or compressive nature of stresses;correct;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2338;2. Stresses in Simple Machine Members;2.002;2.002. Program to standardize dimensions;correct;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2338;2. Stresses in Simple Machine Members;2.1;2.1. Factor of Safety;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2338;2. Stresses in Simple Machine Members;2.10;2.10. Thickness of bracket section;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2338;2. Stresses in Simple Machine Members;2.11;2.11. Thickness of uniform bracket;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2338;2. Stresses in Simple Machine Members;2.12;2.12. Stresses in a locomotive;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2338;2. Stresses in Simple Machine Members;2.13;2.13. Shear stress in a Z shaped bracket;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2338;2. Stresses in Simple Machine Members;2.14;2.14. Stress developed due to eccentric loading;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2338;2. Stresses in Simple Machine Members;2.15;2.15. Stresses in a steel latch;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2338;2. Stresses in Simple Machine Members;2.16;2.16. Stresses in a crank rod;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2338;2. Stresses in Simple Machine Members;2.17;2.17. Design of over hanging crank;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2338;2. Stresses in Simple Machine Members;2.18;2.18. Stress in a gas turbine;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2338;2. Stresses in Simple Machine Members;2.2;2.2. Response to various loadings;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2338;2. Stresses in Simple Machine Members;2.3;2.3. Maximum shear stress;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2338;2. Stresses in Simple Machine Members;2.4;2.4. Principle Stresses;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2338;2. Stresses in Simple Machine Members;2.6;2.6. Maximum tensile ans shear stress;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2338;2. Stresses in Simple Machine Members;2.7;2.7. Stress in stepped bar;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2338;2. Stresses in Simple Machine Members;2.8;2.8. Normal Stress;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2338;2. Stresses in Simple Machine Members;2.9;2.9. Stresses at section;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2386;4. Curved Beams;4.2;4.2. Stresses in offset bar;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2386;4. Curved Beams;4.3;4.3. Distance from Centroidal Axis of I section;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2386;4. Curved Beams;4.4;4.4. Stresses in Spring Clip;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2386;4. Curved Beams;4.5;4.5. Stresses in trapezoidal link;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2385;7. Machine Vibrations;7.10;7.10. Parameters of Flywheel;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2385;7. Machine Vibrations;7.12;7.12. Force transmitted to foundation;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2385;7. Machine Vibrations;7.6;7.6. Basics;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2385;7. Machine Vibrations;7.7;7.7. Stiffness of Industrial Fan;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2385;7. Machine Vibrations;7.9;7.9. Screening Table for Processing Operation;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2586;8. Critial Speeds of Shafts;8.1;8.1. First critical speed;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2586;8. Critial Speeds of Shafts;8.5;8.5. Dunkerleys Method;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2586;8. Critial Speeds of Shafts;8.6;8.6. Rayleighs Method;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);1873;14. Clutches;14.1;14.1. Torque capacity considering uniform pressure;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);1873;14. Clutches;14.10;14.10. Axial thrust and pressure intensity of multi plate clutch;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);1873;14. Clutches;14.11;14.11. Design of multi plate clutch;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);1873;14. Clutches;14.12;14.12. Conditions of uniform pressure;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);1873;14. Clutches;14.14;14.14. Torque capacity of cone clutch;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);1873;14. Clutches;14.16;14.16. Parameters of cone clutch assuming uniform wear;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);1873;14. Clutches;14.17;14.17. Parameters of cone clutch assuming uniform pressure;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);1873;14. Clutches;14.18;14.18. Design of cone clutch;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);1873;14. Clutches;14.19;14.19. Comparison of power capacities of disk clutch and cone clutch;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);1873;14. Clutches;14.2;14.2. Torque capacity considering uniform wear;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);1873;14. Clutches;14.20;14.20. Width of face of cone clutch;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);1873;14. Clutches;14.21;14.21. Design of cone clutch given taper of cone;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);1873;14. Clutches;14.3;14.3. Friction radii for different clutch dimensions;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);1873;14. Clutches;14.4;14.4. Pressure intensity considering uniform wear;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);1873;14. Clutches;14.5;14.5. Relation of friction radii for uniform pressure and uniform wear conditions;correct;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);1873;14. Clutches;14.6;14.6. Determination of torque assuming uniform wear;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);1873;14. Clutches;14.7;14.7. Power capacity of multi plate clutch;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);1873;14. Clutches;14.8;14.8. Number of plates;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);1873;14. Clutches;14.9;14.9. Parameters of multi plate clutch;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2585;15. Brake Design;15.1;15.1. Parameters of brake drum;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2585;15. Brake Design;15.11;15.11. Heat dissipated by brake drive;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2585;15. Brake Design;15.12;15.12. Area for heat dissipation;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2585;15. Brake Design;15.2;15.2. Forces on block brake;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2585;15. Brake Design;15.9;15.9. Eccentricity of pivot;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2584;16. Springs;16.2;16.2. Cantilever Spring;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2584;16. Springs;16.3;16.3. Cantilever Leaf Spring;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2584;16. Springs;16.5;16.5. Helical Spring;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2387;17. Gear Forces;17.1;17.1. Forces on Spur Gear;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2387;17. Gear Forces;17.10;17.10. Forces on Centrifugal Pump;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2387;17. Gear Forces;17.11;17.11. Forces on Worm Gearing;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2387;17. Gear Forces;17.2;17.2. Forces on Spur Gear Reducer;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2387;17. Gear Forces;17.3;17.3. Torque on Shafts;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2387;17. Gear Forces;17.4;17.4. Forces on Compound Gear Train;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2387;17. Gear Forces;17.5;17.5. Forces on Helical Gear;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2387;17. Gear Forces;17.6;17.6. Helical Gear;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2387;17. Gear Forces;17.7;17.7. Forces on Straight tooth bevel gear;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2387;17. Gear Forces;17.8;17.8. Forces on Spiral tooth bevel gear;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2387;17. Gear Forces;17.9;17.9. Forces on Bevel Gear Pair;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);3496;18. Spur Gear;18.1;18.1. Parameters of spur gear;correct;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);3496;18. Spur Gear;18.2;18.2. Power transmission;correct;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);3496;18. Spur Gear;18.3;18.3. Strength of gear pair;correct;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);3496;18. Spur Gear;18.5;18.5. Lewis equation;correct;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2490;26. Flywheels;26.13;26.13. Approximate stress using Lanza equation;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2490;26. Flywheels;26.2;26.2. Comparison of moment of inertia;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2490;26. Flywheels;26.3;26.3. Mass of Flywheel;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2490;26. Flywheels;26.6;26.6. Permissible Velocity;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2490;26. Flywheels;26.7;26.7. Diameter of rimmed flywheel;error;runtime; -698;Shaum's Outline On Machine Design (In SI Units)(A. S. Hall, A. R. Holowenko And H. G. Laughlin);2490;26. Flywheels;26.8;26.8. Punching power;error;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.10;2.10. Calculate the increase of main field flux in percentage;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.11;2.11. find the emf generated in a 6 pole machine and find speed at which machine generated 550 V emf;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.12;2.12. determine the value of torque;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.13;2.13. calculate the total torque;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.14;2.14. Calculate the drop in speed when motor takes 51 Amp;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.15;2.15. In a dc machine Calculate induced emf and Electro magnetic torque and armature copper loss;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.16;2.16. Calculate the electro magnetic torque;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.17;2.17. calculate the gross torque in dc machine;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.18;2.18. Calculate the value of back emf;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.19;2.19. find the change in back emf from no load to load;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.20;2.20. Determine the back emf in dc shunt motor;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.21;2.21. Determine the total armature power developed when working as a Generator and motor;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.22;2.22. Calculated power developed in armature when machine running as a Generator and Motor;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.23;2.23. Calculated speed of the motor when the current is 10 Amp;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.24;2.24. Percentage change in speed of a dc motor;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.25;2.25. Find the speed at which motor will run when connected in series with a 4 Ohm resistance;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.26;2.26. Determine the speed when armature current is 75 Amp and the excitation is increased by 15 percent;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.27;2.27. Calculate HP is being transmitted by the shaft of motor;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.28;2.28. Calculate the torque;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.29;2.29. Find the speed when the armature takes 70 Amp;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.3;2.3. Find the current per path of armature;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.30;2.30. resistance required to be connected in series to reduced speed of machine to 800 rpm;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.31;2.31. Motor speed at full load;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.32;2.32. calculate the speed of a dc shunt generator when it running as dc motor and taking 50 KW power at 250 volt;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.33;2.33. Calculate the value of resistance to be connected in series with the armature to reduce the speed to 750 rpm;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.34;2.34. what resistance should be placed in series with armature to reduced the speed of the motor to 700 rpm;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.35;2.35. In a shunt motor find the resistance required in series with the armature circuit to reduce the speed of motor by 50 percent;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.36;2.36. Calculate the induced emf in a DC machine for speed of 600 rpm;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.37;2.37. In a dc machine calculate speed at which the induced emf will be 250 Volts and also calculate the increase in main flux of field in percentage for induced emf of 250 Volts and speed 700 rpm;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.38;2.38. Calculate induced emf when running at speed of 1380 rpm;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.39;2.39. Calculate the speed and calculate the electro magnetic torque;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.4;2.4. Calculate the induced emf in machine;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.40;2.40. What resistance must be inserted in series with the armature to reduce the speed to 500 rpm;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.41;2.41. Determine the torque in Kgm and HP and efficiency of the motor;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.42;2.42. Determine the torque in Kgm and output in Watts and efficiency of the motor;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.43;2.43. Calculate the efficiency of the motor;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.44;2.44. Estimate the output and efficiency of a shunt motor when the input current is 20Amp and 100Amp;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.45;2.45. Calculate the motor output and HP and efficiency when the total current taken from the mains is 35 Amp;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.46;2.46. Calculate the full load motor output and its efficiency;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.47;2.47. Determine the input in Watts and efficiency of the generator;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.48;2.48. Determine the internal losses and torque and efficiency of the motor;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.49;2.49. Find the copper losses iron and friction losses and commerical efficiency;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.5;2.5. calculate the generated emf;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.50;2.50. Determine Copper losses and total losses and Output and BHP;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.51;2.51. Calculate the speed and BHP of the motor;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.6;2.6. Calculate the voltage generated in 4 pole generator;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.7;2.7. Find out the speed for 6 pole machine;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.8;2.8. calculate the suitable number of conductor per slot hence determine the actual value of flux;correct;runtime; -704;Electrical Machines - 1(T. Singh);1909;2. DC Machines;2.9;2.9. Calculate the emf if the speed is 1500 rpm;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.1;3.1. Calculate the number of turns on both primary and secondary winding in a single phase transformer;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.10;3.10. In a single phase transformer primary side is open Find core loss and loss component of current and Magnetising current;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.11;3.11. In a transformer Calculate Magnetising component of no load current and the iron loss also find the maximum value of flux in the core;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.12;3.12. In a single phase transformer Find The magnetising current and The iron loss current;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.13;3.13. Find the active and reactive components of a single phase transformer;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.14;3.14. In a single phase transformer Calculate the current taken by the primary winding;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.15;3.15. In a single phase transformer Calculate the current taken by the primary winding;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.16;3.16. In a single phase transformer Calculate Equivalent resistance as referred to primary and Equivalent resistance as referred to secondary and Equivalent reactance as referred to both primary and secondary also find Equivalent impedence as referred to both p;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.17;3.17. In a single phase transformer Calculate the secondary terminal voltage at full load;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.18;3.18. In a single phase transformer Calculate the secondary terminal voltage at full load;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.19;3.19. In a single phase transformer Determine equivalent resistance referred to secondary side and equivalent reactance referred to secondary side;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.2;3.2. In a loss less transformer calculate Number of turns on high voltage side and The primary current and The secondary current;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.20;3.20. Determine equivalent resistance and reactance of primary referred to secondary and total resistance and reactance referred to secondary and equivalent resistance and reactance of secondary referred to primary and total resistance and reactance of secondar;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.21;3.21. Determine Primary resistance referred to secondary and secondary resistance referred to primary and total resistance of transformer referred to primary;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.22;3.22. In a single phase transformer Find Full load regulation at a power factor lagging unity and leading;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.23;3.23. Calculate the regulation of transformer;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.25;3.25. In a single phase transformer Calculate the efficiency at unity power at Full load and Half load;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.26;3.26. Calculate the single phase transformer efficiency for 75 percent of the full load output at power factor unity and lagging;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.27;3.27. In a single phase transformer Calculate The efficiency at full load unity power factor and The efficiency at full load lagging power factor and also find The efficiency at full load leading power factor;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.28;3.28. Calculate the efficiency of the transformer on Half load and Full load;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.29;3.29. In a single phase transformer Calculate the efficiency at full load unity power factor and At half full load power factor lag also determine the load for maximum efficiency;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.3;3.3. Calculate the secondary voltage and the volts per turn;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.30;3.30. In a single phase transformer Calculate the efficiency of full load current and value of this;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.31;3.31. find the ratio of iron and copper loss such that maximum efficiency occurs at 75 percent of full load;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.32;3.32. In a single phase transformer Calculate the iron losses and the full load copper losses;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.33;3.33. In a transformer find all day efficiency;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.34;3.34. In a transformer find all day efficiency;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.35;3.35. In a transformer find all day efficiency;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.36;3.36. Calculate the economy of copper in auto transformer and current distribution in primary;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.37;3.37. In a auto transformer determine Transformation ratio secondary current primary current and number of turns across secondary if total number of turns is 250;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.38;3.38. In an auto transformer determine current in different section and KVA output and power transferred inductively and power transferred conductively from input to output and saving in copper;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.39;3.39. In a transformer calculate Power output and power transformed and power conducted;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.4;3.4. Calculate the primary current in a single phase transformer;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.5;3.5. Calculate the approximate values of the primary and secondary currents and the approimate number of primary turns;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.6;3.6. Find voltage in secondary terminal;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.7;3.7. Calculate the rms value of the induced emf in the secondary coil;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.8;3.8. In single phase transformer Calculate The maximum flux density in the core and induced emf in the secondary;correct;runtime; -704;Electrical Machines - 1(T. Singh);1946;3. Transformer Single Phase;3.9;3.9. Calculate Primary and secondary currents on full load and the maximum value of flux and the number of primary turns;correct;runtime; -704;Electrical Machines - 1(T. Singh);1979;4. Three phase transformer;4.1;4.1. Determines the turns per phase for the HV and LV winding of the 3 phase transformer;correct;runtime; -704;Electrical Machines - 1(T. Singh);1979;4. Three phase transformer;4.2;4.2. In a three phase transformer Calculate the secondary line voltage at no load when windings star delta connected and delta star connected;correct;runtime; -704;Electrical Machines - 1(T. Singh);1979;4. Three phase transformer;4.3;4.3. Find the secondary no load voltage and primary secondary currents in a 3 phase transformer;correct;runtime; -710;Engineering Physics(P. V. Naik);1957;1. Acoustics;1.1;1.1. To calculate the intensity;error;runtime; -710;Engineering Physics(P. V. Naik);1957;1. Acoustics;1.10;1.10. To determine the thickness of crystal;error;runtime; -710;Engineering Physics(P. V. Naik);1957;1. Acoustics;1.11;1.11. ratio of new to old frquencies;error;runtime; -710;Engineering Physics(P. V. Naik);1957;1. Acoustics;1.2;1.2. distance at which sound reduces to a level;error;runtime; -710;Engineering Physics(P. V. Naik);1957;1. Acoustics;1.3;1.3. Determination of total absorption in hall;error;runtime; -710;Engineering Physics(P. V. Naik);1957;1. Acoustics;1.4;1.4. average absorption coefficients of surface;error;runtime; -710;Engineering Physics(P. V. Naik);1957;1. Acoustics;1.5;1.5. determination of frequency of ultrasonic sound waves;error;runtime; -710;Engineering Physics(P. V. Naik);1957;1. Acoustics;1.6;1.6. To determine the thickness of crystal;error;runtime; -710;Engineering Physics(P. V. Naik);1957;1. Acoustics;1.7;1.7. To calculate the output power;error;runtime; -710;Engineering Physics(P. V. Naik);1957;1. Acoustics;1.8;1.8. To calculate the output power;error;runtime; -710;Engineering Physics(P. V. Naik);1957;1. Acoustics;1.9;1.9. To determine reverberation time;error;runtime; -710;Engineering Physics(P. V. Naik);1981;2. Crystal structures;2.1;2.1. To determine lattice parameter;error;runtime; -710;Engineering Physics(P. V. Naik);1981;2. Crystal structures;2.10;2.10. To determine lattice parameter;error;runtime; -710;Engineering Physics(P. V. Naik);1981;2. Crystal structures;2.2;2.2. free volume per unit cell;error;runtime; -710;Engineering Physics(P. V. Naik);1981;2. Crystal structures;2.3;2.3. To determine ratio of vacancies;error;runtime; -710;Engineering Physics(P. V. Naik);1981;2. Crystal structures;2.4;2.4. ratio of number of vacancies to number of atoms;error;runtime; -710;Engineering Physics(P. V. Naik);1981;2. Crystal structures;2.5;2.5. spacing of 111 planes;error;runtime; -710;Engineering Physics(P. V. Naik);1981;2. Crystal structures;2.6;2.6. To calculate density of the structure;error;runtime; -710;Engineering Physics(P. V. Naik);1981;2. Crystal structures;2.7;2.7. To calculate atomic radius;error;runtime; -710;Engineering Physics(P. V. Naik);1981;2. Crystal structures;2.8;2.8. To determine lattice parameter;error;runtime; -710;Engineering Physics(P. V. Naik);1981;2. Crystal structures;2.9;2.9. Density of free electrons;error;runtime; -710;Engineering Physics(P. V. Naik);1986;4. Interference;4.1;4.1. Wavelengths absent in reflected light;error;runtime; -710;Engineering Physics(P. V. Naik);1986;4. Interference;4.10;4.10. To calculate the wedge angle;error;runtime; -710;Engineering Physics(P. V. Naik);1986;4. Interference;4.11;4.11. Refractive index of liquid;error;runtime; -710;Engineering Physics(P. V. Naik);1986;4. Interference;4.12;4.12. Wavelength of light used;error;runtime; -710;Engineering Physics(P. V. Naik);1986;4. Interference;4.13;4.13. Wavelength with high transmission;error;runtime; -710;Engineering Physics(P. V. Naik);1986;4. Interference;4.2;4.2. To calculate thickness of air film;error;runtime; -710;Engineering Physics(P. V. Naik);1986;4. Interference;4.3;4.3. To calculate the bandwidth;error;runtime; -710;Engineering Physics(P. V. Naik);1986;4. Interference;4.4;4.4. Refractive index of liquid;error;runtime; -710;Engineering Physics(P. V. Naik);1986;4. Interference;4.5;4.5. Diameter of nineth dark ring;error;runtime; -710;Engineering Physics(P. V. Naik);1986;4. Interference;4.6;4.6. Wavelength of light used;error;runtime; -710;Engineering Physics(P. V. Naik);1986;4. Interference;4.7;4.7. To determine thickness of the plate;error;runtime; -710;Engineering Physics(P. V. Naik);1986;4. Interference;4.8;4.8. Minimum thickness of film;error;runtime; -710;Engineering Physics(P. V. Naik);1986;4. Interference;4.9;4.9. Thickness of the film;error;runtime; -710;Engineering Physics(P. V. Naik);1987;5. Diffraction;5.1;5.1. To determine the width of the slit;error;runtime; -710;Engineering Physics(P. V. Naik);1987;5. Diffraction;5.10;5.10. Wavelength of spectral line;error;runtime; -710;Engineering Physics(P. V. Naik);1987;5. Diffraction;5.11;5.11. Minimum grating element required;error;runtime; -710;Engineering Physics(P. V. Naik);1987;5. Diffraction;5.2;5.2. To determine central band;error;runtime; -710;Engineering Physics(P. V. Naik);1987;5. Diffraction;5.3;5.3. To determine width of slit;error;runtime; -710;Engineering Physics(P. V. Naik);1987;5. Diffraction;5.4;5.4. Distance between central maximum and fourth dark fringe;error;runtime; -710;Engineering Physics(P. V. Naik);1987;5. Diffraction;5.5;5.5. Ratio of intensities of central and secondary maximum;error;runtime; -710;Engineering Physics(P. V. Naik);1987;5. Diffraction;5.6;5.6. Minimum number of lines per cm;error;runtime; -710;Engineering Physics(P. V. Naik);1987;5. Diffraction;5.7;5.7. Angle at which first minimum will be observed;error;runtime; -710;Engineering Physics(P. V. Naik);1987;5. Diffraction;5.8;5.8. To determine width of the slit;error;runtime; -710;Engineering Physics(P. V. Naik);1987;5. Diffraction;5.9;5.9. Wavelength of light used;error;runtime; -710;Engineering Physics(P. V. Naik);2005;6. Polarisation;6.1;6.1. To determine angle of refraction;error;runtime; -710;Engineering Physics(P. V. Naik);2005;6. Polarisation;6.10;6.10. Wavelength of light incident on quartz plate;error;runtime; -710;Engineering Physics(P. V. Naik);2005;6. Polarisation;6.2;6.2. Percentage of incident unpolarised light;error;runtime; -710;Engineering Physics(P. V. Naik);2005;6. Polarisation;6.3;6.3. Angle between planes;error;runtime; -710;Engineering Physics(P. V. Naik);2005;6. Polarisation;6.4;6.4. Intensities of ordinary and extraordinary light;error;runtime; -710;Engineering Physics(P. V. Naik);2005;6. Polarisation;6.5;6.5. Thickness of quarter wave plate;error;runtime; -710;Engineering Physics(P. V. Naik);2005;6. Polarisation;6.6;6.6. To determine the refractive index;error;runtime; -710;Engineering Physics(P. V. Naik);2005;6. Polarisation;6.7;6.7. To calculate the refractive index;error;runtime; -710;Engineering Physics(P. V. Naik);2005;6. Polarisation;6.8;6.8. Angle made by the plane of vibration of the incident light with the optic axis;error;runtime; -710;Engineering Physics(P. V. Naik);2005;6. Polarisation;6.9;6.9. Phase difference between O and E rays;error;runtime; -710;Engineering Physics(P. V. Naik);1988;7. Motion of charged particle;7.1;7.1. Kinetic energy and speed of electron;error;runtime; -710;Engineering Physics(P. V. Naik);1988;7. Motion of charged particle;7.10;7.10. Charge to mass ratio of the particle;error;runtime; -710;Engineering Physics(P. V. Naik);1988;7. Motion of charged particle;7.11;7.11. Magnetic field required to bend a beam;error;runtime; -710;Engineering Physics(P. V. Naik);1988;7. Motion of charged particle;7.12;7.12. To determine the magnetic field;error;runtime; -710;Engineering Physics(P. V. Naik);1988;7. Motion of charged particle;7.13;7.13. To determine the magnetic field;error;runtime; -710;Engineering Physics(P. V. Naik);1988;7. Motion of charged particle;7.2;7.2. Vector displacement of electron;error;runtime; -710;Engineering Physics(P. V. Naik);1988;7. Motion of charged particle;7.3;7.3. Time required for the proton to reach maximum height;error;runtime; -710;Engineering Physics(P. V. Naik);1988;7. Motion of charged particle;7.4;7.4. Orbital speed of proton;error;runtime; -710;Engineering Physics(P. V. Naik);1988;7. Motion of charged particle;7.5;7.5. Pitch of the helix;error;runtime; -710;Engineering Physics(P. V. Naik);1988;7. Motion of charged particle;7.6;7.6. To calculate the displacement produced;error;runtime; -710;Engineering Physics(P. V. Naik);1988;7. Motion of charged particle;7.7;7.7. Displacement of electron beam spot on the screen;error;runtime; -710;Engineering Physics(P. V. Naik);1988;7. Motion of charged particle;7.8;7.8. Separation on the photographic plate;error;runtime; -710;Engineering Physics(P. V. Naik);1988;7. Motion of charged particle;7.9;7.9. Intensity of electric field;error;runtime; -710;Engineering Physics(P. V. Naik);1864;8. Magnetic Materials and Specroscopy;8.1;8.1. To determine temperatue;error;runtime; -710;Engineering Physics(P. V. Naik);1864;8. Magnetic Materials and Specroscopy;8.2;8.2. Magnetisation of paramagnetic salt;error;runtime; -710;Engineering Physics(P. V. Naik);1864;8. Magnetic Materials and Specroscopy;8.3;8.3. Zeeman shift in wave length;error;runtime; -710;Engineering Physics(P. V. Naik);1864;8. Magnetic Materials and Specroscopy;8.4;8.4. To determine temperature;error;runtime; -710;Engineering Physics(P. V. Naik);1864;8. Magnetic Materials and Specroscopy;8.5;8.5. Magnetisation of paramagnetic salt;error;runtime; -710;Engineering Physics(P. V. Naik);1864;8. Magnetic Materials and Specroscopy;8.6;8.6. To calculate the magnetic field;error;runtime; -710;Engineering Physics(P. V. Naik);1864;8. Magnetic Materials and Specroscopy;8.7;8.7. To calculate the magnetic field;error;runtime; -710;Engineering Physics(P. V. Naik);1864;8. Magnetic Materials and Specroscopy;8.8;8.8. To determine e m ratio;error;runtime; -710;Engineering Physics(P. V. Naik);1989;9. Quantum Theory;9.1;9.1. Power radiated by the filament;error;runtime; -710;Engineering Physics(P. V. Naik);1989;9. Quantum Theory;9.10;9.10. Work function of the surface;error;runtime; -710;Engineering Physics(P. V. Naik);1989;9. Quantum Theory;9.11;9.11. To calculate the accelerating voltage;error;runtime; -710;Engineering Physics(P. V. Naik);1989;9. Quantum Theory;9.12;9.12. Angle of second order Braggs reflections;error;runtime; -710;Engineering Physics(P. V. Naik);1989;9. Quantum Theory;9.13;9.13. Accelerating voltage applied;error;runtime; -710;Engineering Physics(P. V. Naik);1989;9. Quantum Theory;9.2;9.2. To calculate the number of photons;error;runtime; -710;Engineering Physics(P. V. Naik);1989;9. Quantum Theory;9.3;9.3. Maximum kinetic energy of photoelectron;error;runtime; -710;Engineering Physics(P. V. Naik);1989;9. Quantum Theory;9.4;9.4. To determine the potential difference;error;runtime; -710;Engineering Physics(P. V. Naik);1989;9. Quantum Theory;9.5;9.5. Shortest wavelength of X rays;error;runtime; -710;Engineering Physics(P. V. Naik);1989;9. Quantum Theory;9.6;9.6. To calculate wavelength of line;error;runtime; -710;Engineering Physics(P. V. Naik);1989;9. Quantum Theory;9.7;9.7. Distance between atomic planes;error;runtime; -710;Engineering Physics(P. V. Naik);1989;9. Quantum Theory;9.8;9.8. Wavelength of X rays;error;runtime; -710;Engineering Physics(P. V. Naik);1989;9. Quantum Theory;9.9;9.9. To determine the power of laser;error;runtime; -710;Engineering Physics(P. V. Naik);1990;10. Quantum Mechanics;10.1;10.1. To calculate de Broglie wavelength;error;runtime; -710;Engineering Physics(P. V. Naik);1990;10. Quantum Mechanics;10.10;10.10. Uncertainity in velocity of electron;error;runtime; -710;Engineering Physics(P. V. Naik);1990;10. Quantum Mechanics;10.11;10.11. Length of the box for a proton;error;runtime; -710;Engineering Physics(P. V. Naik);1990;10. Quantum Mechanics;10.2;10.2. To determine the kinetic energy;error;runtime; -710;Engineering Physics(P. V. Naik);1990;10. Quantum Mechanics;10.3;10.3. To calculate the kinetic energy;error;runtime; -710;Engineering Physics(P. V. Naik);1990;10. Quantum Mechanics;10.4;10.4. Uncertainity in determining the position;error;runtime; -710;Engineering Physics(P. V. Naik);1990;10. Quantum Mechanics;10.5;10.5. First 2 energy levels of a particle;error;runtime; -710;Engineering Physics(P. V. Naik);1990;10. Quantum Mechanics;10.6;10.6. Ground state and first excited state energy;error;runtime; -710;Engineering Physics(P. V. Naik);1990;10. Quantum Mechanics;10.7;10.7. To determine kinetic energy of electron;error;runtime; -710;Engineering Physics(P. V. Naik);1990;10. Quantum Mechanics;10.8;10.8. To determine velocity of electron;error;runtime; -710;Engineering Physics(P. V. Naik);1990;10. Quantum Mechanics;10.9;10.9. To determine the potential difference;error;runtime; -710;Engineering Physics(P. V. Naik);2003;11. Nuclear Radiations and Detectors;11.1;11.1. To calculate the radius of Li;error;runtime; -710;Engineering Physics(P. V. Naik);2003;11. Nuclear Radiations and Detectors;11.10;11.10. To calculate the radius;error;runtime; -710;Engineering Physics(P. V. Naik);2003;11. Nuclear Radiations and Detectors;11.11;11.11. To calculate the cyclotron frequency;error;runtime; -710;Engineering Physics(P. V. Naik);2003;11. Nuclear Radiations and Detectors;11.12;11.12. To determine the magnetic field;error;runtime; -710;Engineering Physics(P. V. Naik);2003;11. Nuclear Radiations and Detectors;11.13;11.13. To determine the magnetic field;error;runtime; -710;Engineering Physics(P. V. Naik);2003;11. Nuclear Radiations and Detectors;11.14;11.14. Charge to mass ratio for proton;error;runtime; -710;Engineering Physics(P. V. Naik);2003;11. Nuclear Radiations and Detectors;11.2;11.2. Binding energy per nucleon;error;runtime; -710;Engineering Physics(P. V. Naik);2003;11. Nuclear Radiations and Detectors;11.3;11.3. minimum energy required to remove a neutron from nucleus;error;runtime; -710;Engineering Physics(P. V. Naik);2003;11. Nuclear Radiations and Detectors;11.4;11.4. To determine the Q value of the reaction;error;runtime; -710;Engineering Physics(P. V. Naik);2003;11. Nuclear Radiations and Detectors;11.5;11.5. Q value of the reaction and energy of each alpha particle;error;runtime; -710;Engineering Physics(P. V. Naik);2003;11. Nuclear Radiations and Detectors;11.6;11.6. To calculate the energy released;error;runtime; -710;Engineering Physics(P. V. Naik);2003;11. Nuclear Radiations and Detectors;11.7;11.7. power output of a nuclear reactor;error;runtime; -710;Engineering Physics(P. V. Naik);2003;11. Nuclear Radiations and Detectors;11.8;11.8. Amount of U required;error;runtime; -710;Engineering Physics(P. V. Naik);2003;11. Nuclear Radiations and Detectors;11.9;11.9. Frequency of oscillator to be used;error;runtime; -710;Engineering Physics(P. V. Naik);2004;13. Optical Fibre;13.1;13.1. Numerical aperture of a fibre;error;runtime; -710;Engineering Physics(P. V. Naik);2004;13. Optical Fibre;13.2;13.2. To determine the acceptance angle;error;runtime; -710;Engineering Physics(P. V. Naik);2004;13. Optical Fibre;13.3;13.3. Number of guided modes;error;runtime; -710;Engineering Physics(P. V. Naik);2004;13. Optical Fibre;13.4;13.4. Signal attenuation per kilometer;error;runtime; -710;Engineering Physics(P. V. Naik);2004;13. Optical Fibre;13.5;13.5. Numerical aperture for the optical fibre;error;runtime; -710;Engineering Physics(P. V. Naik);2004;13. Optical Fibre;13.6;13.6. Number of guided modes;error;runtime; -710;Engineering Physics(P. V. Naik);2004;13. Optical Fibre;13.7;13.7. To determine the mean optical power;error;runtime; -710;Engineering Physics(P. V. Naik);2004;13. Optical Fibre;13.8;13.8. To determine the mean optical power;error;runtime; -710;Engineering Physics(P. V. Naik);2004;13. Optical Fibre;13.9;13.9. To calculate signal attenuation;error;runtime; -728;Microwave Engineering(M. Kulkarni);1913;3. Transmission Lines;3.1;3.1. Program to find value of terminating impedance of lossless transmission line;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1913;3. Transmission Lines;3.10;3.10. Calculate the charcterstic impedance and phase velocity;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1913;3. Transmission Lines;3.2;3.2. Calculate the charcteristic impedance and attenuation constant and phase constant of transmission line and Calculate power delivered to load if line length is 500 km;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1913;3. Transmission Lines;3.3;3.3. Calculate phase velocity of the wave that propogates on line;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1913;3. Transmission Lines;3.4;3.4. Calculate Current drawn from generator and Magnitune and phase of load current and Power delivered to load;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1913;3. Transmission Lines;3.5;3.5. Calculate VSWR and reflection coefficient;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1913;3. Transmission Lines;3.6;3.6. Determine point of attachment and length of stub;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1913;3. Transmission Lines;3.7;3.7. Calculate terminating impedance;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1913;3. Transmission Lines;3.8;3.8. Determine the VSWR and Position of 1st Vmin to Vmax and Vmin and Vmax and Impedance at Vmin and Vmax;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1913;3. Transmission Lines;3.9;3.9. Determine in dB the reflection loss and transmission line and return loss;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.1;4.1. Calculate the inductance per unit length and capacitance per unit length and charcteristic impedance and velocity of propagation;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.10;4.10. Calculate the required size of guide and frequencies that can be used for this mode of propagation;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.11;4.11. Find all modes that can propagate at 5000MHz;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.12;4.12. Calculate the cutoff wavelength and cutoff frequency and wavelength in guide;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.13;4.13. Calculate the frequency of the wave;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.14;4.14. Calculate the guide wavelength and phase constant and phase velocity for dominant mode;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.15;4.15. Calculate what modes propagate at free space wavelength of 10 cm and 5 cm;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.16;4.16. Determine the charcteristic wave impedance;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.17;4.17. Determine the diameter of waveguide and guide wavelength;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.18;4.18. Show TE01 mode propagates under given conditions;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.19;4.19. Calculate the amount of attenuation if signal of frequency is 6GHz;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.2;4.2. Calculate the attenuation and phase constants and phase velocity and relative permittivity and power loss;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.20;4.20. Calculate the maximum power handling capacity;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.21;4.21. Calculate the maximum power;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.22;4.22. Calculate the peak value of electric feild occuring in the waveguide;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.23;4.23. Calculate the breakdown power of air filled rectangular waveguide for dominant mode;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.24;4.24. Calculate the breakdown power of circular waveguide;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.3;4.3. Calculate the breakdown power of air filled coaxial cable;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.4;4.4. Calculate charcteristic impedance and velocity of propagation;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.5;4.5. Calculate charcteristic impedance and effective dielectric constant and velocity of propagation;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.6;4.6. Calculate ratio of circular waveguide crosssectional area to rectangular waveguide crosssection;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.7;4.7. Calculate breadth of rectangular waveguide;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.8;4.8. Calculate the cutoff wavelength and guide wavelength and group and phase velocities;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1919;4. Microwaves Transmission Lines;4.9;4.9. Calculate the possible modes and cutoff frequencies and guide wavelength;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1922;5. Cavity Resonators;5.1;5.1. Determine the minimum distance between two end plates;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1922;5. Cavity Resonators;5.2;5.2. Calculate the lowest frequency of a rectangular cavity resonator;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1922;5. Cavity Resonators;5.3;5.3. Calculate the resonant frequency of a circular cavity resonator;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1922;5. Cavity Resonators;5.4;5.4. Calculate the resonant frequency of a circular cavity resonator;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1923;6. Microwave Components;6.10;6.10. Calculate the scattering matrix;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1923;6. Microwave Components;6.11;6.11. Calculate the directivity and coupling and isolation;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1923;6. Microwave Components;6.12;6.12. Calculate the value of VSWR;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1923;6. Microwave Components;6.13;6.13. Calculate the phase shift of the component;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1923;6. Microwave Components;6.2;6.2. Find the distance that the position of port 1 should be shifted;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1923;6. Microwave Components;6.3;6.3. Determine the scattering parameters for 10 dB direction coupler;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1923;6. Microwave Components;6.4;6.4. Determine the powers in the remaining ports;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1923;6. Microwave Components;6.5;6.5. Determine the powers in the remaining ports;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1923;6. Microwave Components;6.6;6.6. Determine the powers reflected at port 3 and power divisions at other ports;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1923;6. Microwave Components;6.7;6.7. Calculate the scattering matrix;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1923;6. Microwave Components;6.9;6.9. Calculate the scattering matrix;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1924;7. Microwave Measurements;7.1;7.1. Calculate the SWR of the transmission line;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1924;7. Microwave Measurements;7.2;7.2. Calculate the SWR of the main waveguide;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1924;7. Microwave Measurements;7.3;7.3. Calculate the SWR of the waveguide;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1924;7. Microwave Measurements;7.4;7.4. Calculate the value of reflected power;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1925;8. Microwave Tubes and Circuits;8.1;8.1. Calculate the dc electron velocity and dc phase constant and plasma frequency and reduced plasma frequency and dc beam current beam density and instantaneous beam current density;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1925;8. Microwave Tubes and Circuits;8.10;8.10. Calculate the electron velocity and dc transit time and input voltage for maximum output voltage and voltage gain in dB;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1925;8. Microwave Tubes and Circuits;8.11;8.11. Calculate the dc electron velocity and dc phase constant and plasma frequency and reduced plasma frequency and dc beam current beam density and instantaneous beam current density;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1925;8. Microwave Tubes and Circuits;8.12;8.12. Calculate the gap transit angle;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1925;8. Microwave Tubes and Circuits;8.13;8.13. Calculate the input rf voltage and voltage gain and efficiency;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1925;8. Microwave Tubes and Circuits;8.14;8.14. Calculate the cyclotron angular frequency and cutoff voltage and cutoff magnetic flux;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1925;8. Microwave Tubes and Circuits;8.15;8.15. Calculate the input power and output power in watts and efficiency;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1925;8. Microwave Tubes and Circuits;8.16;8.16. Calculate the repeller voltage and beam current necessary to give gap voltage of 200V;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1925;8. Microwave Tubes and Circuits;8.2;8.2. Calculate the input rms voltage and output rms voltage and power delivered to load;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1925;8. Microwave Tubes and Circuits;8.3;8.3. Calculate the input power in watts and output power in watts and efficiency;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1925;8. Microwave Tubes and Circuits;8.4;8.4. Calculate the electron velocity and dc transit time and input voltage for maximum output voltage and voltage gain in dB;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1925;8. Microwave Tubes and Circuits;8.5;8.5. Calculate the input microwave voltage and voltage gain and efficiency of amplifier and beam loading conductance;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1925;8. Microwave Tubes and Circuits;8.6;8.6. Calculate the value of repeller voltage and beam current necessary to give gap voltage of 200V and electronic efficiency;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1925;8. Microwave Tubes and Circuits;8.7;8.7. Calculate the efficiency of reflex klystron and total output power in mW and power delivered to load;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1925;8. Microwave Tubes and Circuits;8.8;8.8. Calculate the Hull cutoff voltage and cutoff magnetic flux density if beam voltage is 6000V and cyclotron frequency in GHz;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1925;8. Microwave Tubes and Circuits;8.9;8.9. Calculate the Axial phase velocity and Anode voltage at which TWT can be operated for useful gain;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1926;9. Solid State Microwave Devices;9.1;9.1. Calculate i repeller voltage Vr ii beam current necessary to give gap voltage of 200V;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1926;9. Solid State Microwave Devices;9.10;9.10. Calculate the drift time of carrier and operating frequency of diode;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1926;9. Solid State Microwave Devices;9.11;9.11. Calculate the breakdown voltage and breakdown electric field;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1926;9. Solid State Microwave Devices;9.12;9.12. Calculate the maximum power gain and noise figure and bandwidth;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1926;9. Solid State Microwave Devices;9.13;9.13. Calculate the equivalent noise resistance and gain and noise figure and bandwidth;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1926;9. Solid State Microwave Devices;9.2;9.2. Determine threshold electric field;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1926;9. Solid State Microwave Devices;9.3;9.3. Calculate the power gain in dB and power gain if it is USB converter;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1926;9. Solid State Microwave Devices;9.4;9.4. Calculate the critical voltage and breakdown voltage and breakdown electric field;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1926;9. Solid State Microwave Devices;9.5;9.5. Calculate the power gain in dB and power gain if it is USB converter;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1926;9. Solid State Microwave Devices;9.6;9.6. Calculate the power gain in dB;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1926;9. Solid State Microwave Devices;9.7;9.7. Calculate the minimum voltage needed to GUNN effect;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1926;9. Solid State Microwave Devices;9.8;9.8. Calculate the rational frequency and critical velocity of diode;correct;runtime; -728;Microwave Engineering(M. Kulkarni);1926;9. Solid State Microwave Devices;9.9;9.9. Calculate the resonant frequency and efficiency;correct;runtime; -737;Digital Signal Processing: Fundamentals And Applications(L. Tan);1905;2. Signal Sampling and Quantization;2.1;2.1. Spectrum of analog and sampled signal;correct;runtime; -737;Digital Signal Processing: Fundamentals And Applications(L. Tan);1905;2. Signal Sampling and Quantization;2.10;2.10. quantization error;correct;runtime; -737;Digital Signal Processing: Fundamentals And Applications(L. Tan);1905;2. Signal Sampling and Quantization;2.2;2.2. Recovering signal from sampled signal;correct;runtime; -737;Digital Signal Processing: Fundamentals And Applications(L. Tan);1905;2. Signal Sampling and Quantization;2.3;2.3. Aliasing Noise illustration;correct;runtime; -737;Digital Signal Processing: Fundamentals And Applications(L. Tan);1905;2. Signal Sampling and Quantization;2.4;2.4. percentage aliasing noise;correct;runtime; -737;Digital Signal Processing: Fundamentals And Applications(L. Tan);1905;2. Signal Sampling and Quantization;2.5;2.5. percentage aliasing noise at cutoff frequency;correct;runtime; -737;Digital Signal Processing: Fundamentals And Applications(L. Tan);1905;2. Signal Sampling and Quantization;2.6;2.6. order of anti aliasing filter;correct;runtime; -737;Digital Signal Processing: Fundamentals And Applications(L. Tan);1905;2. Signal Sampling and Quantization;2.7;2.7. percentage distortion;correct;runtime; -737;Digital Signal Processing: Fundamentals And Applications(L. Tan);1905;2. Signal Sampling and Quantization;2.8;2.8. cutoff frequency and the order for the anti image filter;correct;runtime; -737;Digital Signal Processing: Fundamentals And Applications(L. Tan);1905;2. Signal Sampling and Quantization;2.9;2.9. number of quantization levels and step size;correct;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1874;1. Introduction;1.01;1.01. Head addition;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1874;1. Introduction;1.02;1.02. speed and actual speed;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1875;2. Fundamental Concepts;2.02;2.02. Viscosity and stress;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1876;3. Fluid Statics;3.01;3.01. liquid level;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1876;3. Fluid Statics;3.03;3.03. pressure difference;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1876;3. Fluid Statics;3.04;3.04. temperature and pressure;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1876;3. Fluid Statics;3.05;3.05. force and pressure;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1876;3. Fluid Statics;3.06;3.06. force;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1876;3. Fluid Statics;3.07;3.07. force at equilibrium;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1877;4. Basic Equations in Integral form for a Control Volume;4.01;4.01. Velocity;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1877;4. Basic Equations in Integral form for a Control Volume;4.02;4.02. Mass flow;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1877;4. Basic Equations in Integral form for a Control Volume;4.03;4.03. density;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1877;4. Basic Equations in Integral form for a Control Volume;4.04;4.04. Horizontal force;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1877;4. Basic Equations in Integral form for a Control Volume;4.05;4.05. Scale;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1877;4. Basic Equations in Integral form for a Control Volume;4.06;4.06. force exerted per unt;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1877;4. Basic Equations in Integral form for a Control Volume;4.07;4.07. Force to hold;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1877;4. Basic Equations in Integral form for a Control Volume;4.08;4.08. Tension;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1877;4. Basic Equations in Integral form for a Control Volume;4.09;4.09. pressure required;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1877;4. Basic Equations in Integral form for a Control Volume;4.10;4.10. Net force;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1877;4. Basic Equations in Integral form for a Control Volume;4.11;4.11. PLOTTING;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1877;4. Basic Equations in Integral form for a Control Volume;4.12;4.12. Velocity of rocket;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1877;4. Basic Equations in Integral form for a Control Volume;4.14;4.14. Relative speed and friction;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1877;4. Basic Equations in Integral form for a Control Volume;4.16;4.16. Rate of heat;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1877;4. Basic Equations in Integral form for a Control Volume;4.17;4.17. Mass flow rate;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1880;5. Introducton to Differential Analysis of Fluid Motion;5.02;5.02. Rate of change;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1880;5. Introducton to Differential Analysis of Fluid Motion;5.07;5.07. angular and rotation;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1880;5. Introducton to Differential Analysis of Fluid Motion;5.08;5.08. Rates and area;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1880;5. Introducton to Differential Analysis of Fluid Motion;5.09;5.09. Volume flow rate;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1881;6. Incompressible Inviscid Flow;6.01;6.01. Volume flow rate;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1881;6. Incompressible Inviscid Flow;6.02;6.02. Velocity of flow;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1881;6. Incompressible Inviscid Flow;6.03;6.03. prssure required;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1881;6. Incompressible Inviscid Flow;6.04;6.04. Speed and pressure;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1881;6. Incompressible Inviscid Flow;6.05;6.05. flow;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1881;6. Incompressible Inviscid Flow;6.06;6.06. pressure;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1881;6. Incompressible Inviscid Flow;6.08;6.08. temperature;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1881;6. Incompressible Inviscid Flow;6.09;6.09. Streamline flow;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1882;7. Dimensional Analysis and Simlitude;7.04;7.04. speed and force;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1882;7. Dimensional Analysis and Simlitude;7.05;7.05. speed force and power;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1882;7. Dimensional Analysis and Simlitude;7.06;7.06. power and speed;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1889;8. Internal Incompressible Viscous Flow;8.01;8.01. Leakage flow rate;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1889;8. Internal Incompressible Viscous Flow;8.02;8.02. Torque and power;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1889;8. Internal Incompressible Viscous Flow;8.04;8.04. Viscosity of fluid;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1889;8. Internal Incompressible Viscous Flow;8.05;8.05. required;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1889;8. Internal Incompressible Viscous Flow;8.06;8.06. Maximum and power;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1889;8. Internal Incompressible Viscous Flow;8.07;8.07. Volume low;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1889;8. Internal Incompressible Viscous Flow;8.08;8.08. Minimum diameter;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1889;8. Internal Incompressible Viscous Flow;8.09;8.09. Loss Coefficient;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1889;8. Internal Incompressible Viscous Flow;8.10;8.10. Volume and increase;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1889;8. Internal Incompressible Viscous Flow;8.11;8.11. Diameter and head;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1890;9. External Incompressible Viscous Flow;9.01;9.01. static pressure;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1890;9. External Incompressible Viscous Flow;9.04;9.04. Displacement thickness and stress;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1890;9. External Incompressible Viscous Flow;9.05;9.05. force and power;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1890;9. External Incompressible Viscous Flow;9.06;9.06. Bending moment;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1890;9. External Incompressible Viscous Flow;9.07;9.07. Time required;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1890;9. External Incompressible Viscous Flow;9.08;9.08. Optimum cruise speed;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1890;9. External Incompressible Viscous Flow;9.09;9.09. Aerodynamic and Radius;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1891;10. Fluid Machinery;10.01;10.01. input and power;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1891;10. Fluid Machinery;10.02;10.02. volume and power;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1891;10. Fluid Machinery;10.03;10.03. Pump Power;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1891;10. Fluid Machinery;10.06;10.06. Specific and relation;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1891;10. Fluid Machinery;10.07;10.07. Comparison of head;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1891;10. Fluid Machinery;10.08;10.08. NPSHA and NPSHR;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1891;10. Fluid Machinery;10.11;10.11. Performance curves;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1891;10. Fluid Machinery;10.12;10.12. Power required;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1891;10. Fluid Machinery;10.14;10.14. propeller;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1891;10. Fluid Machinery;10.16;10.16. Actual;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1892;11. Introduction to Compressible Flow;11.01;11.01. Change;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1892;11. Introduction to Compressible Flow;11.03;11.03. Speed of sound;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1892;11. Introduction to Compressible Flow;11.04;11.04. pressure and change;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1893;12. Steady One Dimensional Compressible Flow;12.01;12.01. pressure and area;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1893;12. Steady One Dimensional Compressible Flow;12.02;12.02. Mass flow;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1893;12. Steady One Dimensional Compressible Flow;12.03;12.03. mass and area;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1893;12. Steady One Dimensional Compressible Flow;12.04;12.04. throat;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1893;12. Steady One Dimensional Compressible Flow;12.05;12.05. number and flow;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1893;12. Steady One Dimensional Compressible Flow;12.06;12.06. mass and volume;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1893;12. Steady One Dimensional Compressible Flow;12.07;12.07. length;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1893;12. Steady One Dimensional Compressible Flow;12.08;12.08. velocity and entropy;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1893;12. Steady One Dimensional Compressible Flow;12.09;12.09. Temperature and entropy;error;runtime; -746;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1893;12. Steady One Dimensional Compressible Flow;12.10;12.10. Temperature;error;runtime; -752;Electronics Communication(D. Roddy);1956;1. Passive Circuits;1.10.1;1.10.1. example 8;correct;runtime; -752;Electronics Communication(D. Roddy);1956;1. Passive Circuits;1.2.2;1.2.2. example 2;correct;runtime; -752;Electronics Communication(D. Roddy);1956;1. Passive Circuits;1.2.3;1.2.3. example 3;correct;runtime; -752;Electronics Communication(D. Roddy);1956;1. Passive Circuits;1.2.4;1.2.4. example 4;correct;runtime; -752;Electronics Communication(D. Roddy);1956;1. Passive Circuits;1.2.5;1.2.5. example 5;correct;runtime; -752;Electronics Communication(D. Roddy);1956;1. Passive Circuits;1.5.1;1.5.1. example 6;correct;runtime; -752;Electronics Communication(D. Roddy);1956;1. Passive Circuits;1.8.1;1.8.1. example 7;correct;runtime; -752;Electronics Communication(D. Roddy);2246;2. WAVEFORM SPECTRA;2.13.1;2.13.1. example 1;correct;runtime; -752;Electronics Communication(D. Roddy);1965;4. Noise;4.11.1;4.11.1. example 5;correct;runtime; -752;Electronics Communication(D. Roddy);1965;4. Noise;4.12.1;4.12.1. example 6;correct;runtime; -752;Electronics Communication(D. Roddy);1965;4. Noise;4.12.2;4.12.2. example 7;correct;runtime; -752;Electronics Communication(D. Roddy);1965;4. Noise;4.13.1;4.13.1. example 8;correct;runtime; -752;Electronics Communication(D. Roddy);1965;4. Noise;4.14.1;4.14.1. example 9;correct;runtime; -752;Electronics Communication(D. Roddy);1965;4. Noise;4.15.1;4.15.1. example 10;correct;runtime; -752;Electronics Communication(D. Roddy);1965;4. Noise;4.17.1;4.17.1. example 11;correct;runtime; -752;Electronics Communication(D. Roddy);1965;4. Noise;4.18.1;4.18.1. example 12;correct;runtime; -752;Electronics Communication(D. Roddy);1965;4. Noise;4.19.1;4.19.1. example 13;correct;runtime; -752;Electronics Communication(D. Roddy);1965;4. Noise;4.2.1;4.2.1. example 1;correct;runtime; -752;Electronics Communication(D. Roddy);1965;4. Noise;4.2.2;4.2.2. example 2;correct;runtime; -752;Electronics Communication(D. Roddy);1965;4. Noise;4.2.3;4.2.3. example 3;correct;runtime; -752;Electronics Communication(D. Roddy);1965;4. Noise;4.3.1;4.3.1. example 4;correct;runtime; -752;Electronics Communication(D. Roddy);2247;5. TUNED SMALL SIGNAL AMPLIFIERS MIXERS AND ACTIVE FILTERS;5.4.1;5.4.1. example 1;correct;runtime; -752;Electronics Communication(D. Roddy);2247;5. TUNED SMALL SIGNAL AMPLIFIERS MIXERS AND ACTIVE FILTERS;5.4.2;5.4.2. example 2;correct;runtime; -752;Electronics Communication(D. Roddy);1955;6. Oscillators;6.3.1;6.3.1. example 1;correct;runtime; -752;Electronics Communication(D. Roddy);1955;6. Oscillators;6.3.2;6.3.2. example 2;correct;runtime; -752;Electronics Communication(D. Roddy);1955;6. Oscillators;6.3.3;6.3.3. example 3;error;runtime; -752;Electronics Communication(D. Roddy);1955;6. Oscillators;6.4.1;6.4.1. example 4;correct;runtime; -752;Electronics Communication(D. Roddy);1955;6. Oscillators;6.6.1;6.6.1. example 5;correct;runtime; -752;Electronics Communication(D. Roddy);1955;6. Oscillators;6.6.2;6.6.2. example 6;correct;runtime; -752;Electronics Communication(D. Roddy);2249;7. RECEIVERS;7.3.1;7.3.1. example 1;correct;runtime; -752;Electronics Communication(D. Roddy);2249;7. RECEIVERS;7.4.1;7.4.1. example 2;correct;runtime; -752;Electronics Communication(D. Roddy);2249;7. RECEIVERS;7.6.1;7.6.1. example 3;correct;runtime; -752;Electronics Communication(D. Roddy);2249;7. RECEIVERS;7.7.1;7.7.1. example 4;correct;runtime; -752;Electronics Communication(D. Roddy);2250;8. AMPLITUDE MODULATION;8.11.1;8.11.1. exampple 4;correct;runtime; -752;Electronics Communication(D. Roddy);2250;8. AMPLITUDE MODULATION;8.3.1;8.3.1. example 1;correct;runtime; -752;Electronics Communication(D. Roddy);2250;8. AMPLITUDE MODULATION;8.5.1;8.5.1. example 2;correct;runtime; -752;Electronics Communication(D. Roddy);2250;8. AMPLITUDE MODULATION;8.7.1;8.7.1. example 3;correct;runtime; -752;Electronics Communication(D. Roddy);2252;9. SINGLE SIDEBAND MODULATION;9.2;9.2. example 1;correct;runtime; -752;Electronics Communication(D. Roddy);2252;9. SINGLE SIDEBAND MODULATION;9.6;9.6. example 2;correct;runtime; -752;Electronics Communication(D. Roddy);2332;10. Angle Modulation;10.12.1;10.12.1. example 1;correct;runtime; -752;Electronics Communication(D. Roddy);2332;10. Angle Modulation;10.13.1;10.13.1. example 2;correct;runtime; -752;Electronics Communication(D. Roddy);2255;11. PULSE MODULATION;11.3.1;11.3.1. example 1;correct;runtime; -752;Electronics Communication(D. Roddy);2255;11. PULSE MODULATION;11.3.2;11.3.2. example 2;correct;runtime; -752;Electronics Communication(D. Roddy);2280;12. DIGITAL COMMUNICATIONS;12.13.1;12.13.1. example 7;correct;runtime; -752;Electronics Communication(D. Roddy);2280;12. DIGITAL COMMUNICATIONS;12.13.3;12.13.3. example 6;correct;runtime; -752;Electronics Communication(D. Roddy);2280;12. DIGITAL COMMUNICATIONS;12.13.4;12.13.4. example 9;correct;runtime; -752;Electronics Communication(D. Roddy);2280;12. DIGITAL COMMUNICATIONS;12.4.1;12.4.1. example 1;correct;runtime; -752;Electronics Communication(D. Roddy);2280;12. DIGITAL COMMUNICATIONS;12.4.2;12.4.2. example 2;error;runtime; -752;Electronics Communication(D. Roddy);2280;12. DIGITAL COMMUNICATIONS;12.4.3;12.4.3. example 3;correct;runtime; -752;Electronics Communication(D. Roddy);2280;12. DIGITAL COMMUNICATIONS;12.5.1;12.5.1. exampple 4;correct;runtime; -752;Electronics Communication(D. Roddy);2280;12. DIGITAL COMMUNICATIONS;12.9.1;12.9.1. example 5;correct;runtime; -752;Electronics Communication(D. Roddy);2256;13. TRANSMISSION LINES AND CABLES;13.10.1;13.10.1. example 2;correct;runtime; -752;Electronics Communication(D. Roddy);2256;13. TRANSMISSION LINES AND CABLES;13.11.1;13.11.1. example 3;correct;runtime; -752;Electronics Communication(D. Roddy);2256;13. TRANSMISSION LINES AND CABLES;13.17.1;13.17.1. example 4;correct;runtime; -752;Electronics Communication(D. Roddy);2256;13. TRANSMISSION LINES AND CABLES;13.17.2;13.17.2. example 5;correct;runtime; -752;Electronics Communication(D. Roddy);2256;13. TRANSMISSION LINES AND CABLES;13.17.3;13.17.3. example 6;correct;runtime; -752;Electronics Communication(D. Roddy);2256;13. TRANSMISSION LINES AND CABLES;13.5.2;13.5.2. example 1;correct;runtime; -752;Electronics Communication(D. Roddy);2258;14. WAVEGUIDES;14.2.1;14.2.1. example 1;correct;runtime; -752;Electronics Communication(D. Roddy);2259;15. RADIO WAVE PROPOGATION;15.2.1;15.2.1. example 1;correct;runtime; -752;Electronics Communication(D. Roddy);2259;15. RADIO WAVE PROPOGATION;15.2.2;15.2.2. example 2;correct;runtime; -752;Electronics Communication(D. Roddy);2259;15. RADIO WAVE PROPOGATION;15.3.1;15.3.1. example 3;error;runtime; -752;Electronics Communication(D. Roddy);2259;15. RADIO WAVE PROPOGATION;15.3.2;15.3.2. example 4;correct;runtime; -752;Electronics Communication(D. Roddy);2259;15. RADIO WAVE PROPOGATION;15.4.1;15.4.1. example 5;correct;runtime; -752;Electronics Communication(D. Roddy);2259;15. RADIO WAVE PROPOGATION;15.7.1;15.7.1. example 6;correct;runtime; -752;Electronics Communication(D. Roddy);2260;16. ANTENNAS;16.19.1;16.19.1. example 3;correct;runtime; -752;Electronics Communication(D. Roddy);2260;16. ANTENNAS;16.7.2;16.7.2. example 1;correct;runtime; -752;Electronics Communication(D. Roddy);2260;16. ANTENNAS;16.9.1;16.9.1. example 2;correct;runtime; -752;Electronics Communication(D. Roddy);2303;17. Telephone Systems;17.1.1;17.1.1. example 1;correct;runtime; -752;Electronics Communication(D. Roddy);2268;18. FACSIMILE AND TELEVISION;18.2.1;18.2.1. example 1;correct;runtime; -752;Electronics Communication(D. Roddy);2268;18. FACSIMILE AND TELEVISION;18.2.2;18.2.2. example 2;correct;runtime; -752;Electronics Communication(D. Roddy);2268;18. FACSIMILE AND TELEVISION;18.3.1;18.3.1. example 3;correct;runtime; -752;Electronics Communication(D. Roddy);2268;18. FACSIMILE AND TELEVISION;18.3.2;18.3.2. example 4;correct;runtime; -752;Electronics Communication(D. Roddy);2268;18. FACSIMILE AND TELEVISION;18.3.3;18.3.3. example 5;correct;runtime; -752;Electronics Communication(D. Roddy);2268;18. FACSIMILE AND TELEVISION;18.7.1;18.7.1. example 6;correct;runtime; -752;Electronics Communication(D. Roddy);2268;18. FACSIMILE AND TELEVISION;18.7.2;18.7.2. example 7;correct;runtime; -752;Electronics Communication(D. Roddy);2262;19. SATELLITE COMMUNICATIONS;19.14.1;19.14.1. example 2;correct;runtime; -752;Electronics Communication(D. Roddy);2262;19. SATELLITE COMMUNICATIONS;19.14.2;19.14.2. example 3;correct;runtime; -752;Electronics Communication(D. Roddy);2262;19. SATELLITE COMMUNICATIONS;19.16.1;19.16.1. example 4;correct;runtime; -752;Electronics Communication(D. Roddy);2262;19. SATELLITE COMMUNICATIONS;19.17.1;19.17.1. example 6;correct;runtime; -752;Electronics Communication(D. Roddy);2261;20. Fiber Optic Communication;20.2.1;20.2.1. example 1;correct;runtime; -752;Electronics Communication(D. Roddy);2261;20. Fiber Optic Communication;20.2.2;20.2.2. example 2;correct;runtime; -752;Electronics Communication(D. Roddy);2261;20. Fiber Optic Communication;20.2.3;20.2.3. example 3;correct;runtime; -752;Electronics Communication(D. Roddy);2261;20. Fiber Optic Communication;20.2.4;20.2.4. example 4;correct;runtime; -752;Electronics Communication(D. Roddy);2261;20. Fiber Optic Communication;20.2.5;20.2.5. example 5;error;runtime; -752;Electronics Communication(D. Roddy);2261;20. Fiber Optic Communication;20.3.1;20.3.1. example 6;correct;runtime; -752;Electronics Communication(D. Roddy);2261;20. Fiber Optic Communication;20.4.1;20.4.1. example 7;correct;runtime; -752;Electronics Communication(D. Roddy);2261;20. Fiber Optic Communication;20.4.2;20.4.2. example 13;correct;runtime; -752;Electronics Communication(D. Roddy);2261;20. Fiber Optic Communication;20.4.3;20.4.3. example 8;correct;runtime; -752;Electronics Communication(D. Roddy);2261;20. Fiber Optic Communication;20.4.4;20.4.4. example 9;correct;runtime; -752;Electronics Communication(D. Roddy);2261;20. Fiber Optic Communication;20.4.5;20.4.5. example 10;correct;runtime; -752;Electronics Communication(D. Roddy);2261;20. Fiber Optic Communication;20.4.6;20.4.6. example 11;correct;runtime; -752;Electronics Communication(D. Roddy);2261;20. Fiber Optic Communication;20.5.1;20.5.1. example 14;correct;runtime; -752;Electronics Communication(D. Roddy);2261;20. Fiber Optic Communication;20.8.1;20.8.1. example 12;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2685;1. Classifications of signals and systems;1.2.a;1.2.a. Rectangular wave;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2685;1. Classifications of signals and systems;1.2.b;1.2.b. Rectangular wave;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2685;1. Classifications of signals and systems;1.2.c;1.2.c. Cosine wave;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2685;1. Classifications of signals and systems;1.2.d;1.2.d. Ramp wave;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2677;2. Fourier Analysis of Preiodic and Aperiodic Continuous Time Signals and Systems;2.1;2.1. Fourier Series of Periodic Square Wave;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2677;2. Fourier Analysis of Preiodic and Aperiodic Continuous Time Signals and Systems;2.2;2.2. Fourier Series of Periodic Rectangular Wave;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2677;2. Fourier Analysis of Preiodic and Aperiodic Continuous Time Signals and Systems;2.3;2.3. Fourier Series of Periodic Half Wave Rectified Sine Wave;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2677;2. Fourier Analysis of Preiodic and Aperiodic Continuous Time Signals and Systems;2.4;2.4. Fourier Series of Periodic Triangular Wave;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2677;2. Fourier Analysis of Preiodic and Aperiodic Continuous Time Signals and Systems;2.5;2.5. Fourier Series of Periodic Rectangular Pulse;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2677;2. Fourier Analysis of Preiodic and Aperiodic Continuous Time Signals and Systems;2.6;2.6. Fourier Series of Square Wave;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2677;2. Fourier Analysis of Preiodic and Aperiodic Continuous Time Signals and Systems;2.8;2.8. Complex fourier series representation;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2678;3. Applications of Laplace Transform to System Analysis;3.10;3.10. Poles and Zeros;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2678;3. Applications of Laplace Transform to System Analysis;3.11;3.11. Poles and zeros;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2678;3. Applications of Laplace Transform to System Analysis;3.12;3.12. Poles and zeros;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2679;4. Z Transforms;4.13;4.13. Convolution;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2679;4. Z Transforms;4.14;4.14. Convolution;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2679;4. Z Transforms;4.16;4.16. Cross correlation;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2679;4. Z Transforms;4.19;4.19. System response;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2679;4. Z Transforms;4.2;4.2. Z transform;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2679;4. Z Transforms;4.4;4.4. Z transform;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2681;5. Linear Time Invariant Systems;5.14;5.14. System Stability;error;file_not_found;/var/www/scilab_in/uploads-backup/758/CH5/EX5.14/ : NO SCILAB FILE INSIDE -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2681;5. Linear Time Invariant Systems;5.20;5.20. System response;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2681;5. Linear Time Invariant Systems;5.21;5.21. Poles and zeros;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.1;6.1. Linear and Circular convolution;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.10;6.10. DFT;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.11;6.11. DFT;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.12;6.12. DFT;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.13;6.13. Inverse DFT;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.14;6.14. Inverse DFT;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.15;6.15. DIT FFT;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.16;6.16. DIT FFT;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.17;6.17. DIT FFT;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.18;6.18. DIT FFT;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.19;6.19. DIF FFT;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.2;6.2. FIR filter response;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.20;6.20. DIF FFT;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.21;6.21. DIF FFT;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.22;6.22. DIF FFT;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.23;6.23. IFFT;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.24;6.24. IFFT;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.25;6.25. IFFT;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.26;6.26. IFFT;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.27;6.27. IFFT;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.3;6.3. Convolution;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.34;6.34. Overlap Add Convolution;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.35;6.35. Overlap Save Convolution;error;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.36;6.36. Cross Correlation;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.37;6.37. Circular Correlation;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.4;6.4. Convolution;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.5;6.5. Convolution;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.6;6.6. Convolution;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.8;6.8. DFT;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2682;6. Discrete and Fast Fourier Transforms;6.9;6.9. DFT;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2684;7. Finite Impulse Response Filters;7.3;7.3. Low pass filter using fourier series method;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2684;7. Finite Impulse Response Filters;7.4;7.4. Low pass filter using Type 1 frequency sampling technique;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2687;8. Infinite Impulse Response Filters;8.1;8.1. IIR filter Design byBackward Difference For Derivative method;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2687;8. Infinite Impulse Response Filters;8.10;8.10. IIR filter Design by Bilinear Transformation method;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2687;8. Infinite Impulse Response Filters;8.11;8.11. Butterworth Filter using Impulse Invariant transformation;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2687;8. Infinite Impulse Response Filters;8.12;8.12. Butterworth Filter using Bilinear transformation;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2687;8. Infinite Impulse Response Filters;8.14;8.14. Filter transformation;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2687;8. Infinite Impulse Response Filters;8.15;8.15. Filter transformation;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2687;8. Infinite Impulse Response Filters;8.2;8.2. IIR filter Design byBackward Difference For Derivative method;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2687;8. Infinite Impulse Response Filters;8.3;8.3. IIR filter Design byBackward Difference For Derivative method;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2687;8. Infinite Impulse Response Filters;8.4;8.4. IIR filter Design by Impulse Invariant method;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2687;8. Infinite Impulse Response Filters;8.5;8.5. IIR filter Design by Impulse Invariant method;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2687;8. Infinite Impulse Response Filters;8.6;8.6. IIR filter Design by Impulse Invariant method;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2687;8. Infinite Impulse Response Filters;8.7;8.7. IIR filter Design by Bilinear Transformation method;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2687;8. Infinite Impulse Response Filters;8.8;8.8. IIR filter Design by Bilinear Transformation method;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2687;8. Infinite Impulse Response Filters;8.9;8.9. IIR filter Design by Bilinear Transformation method;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2822;9. Realisation of Digital Linear Systems;9.4;9.4. Cascade Realisation;error;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2822;9. Realisation of Digital Linear Systems;9.5.a;9.5.a. Parallel Realisation;error;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2822;9. Realisation of Digital Linear Systems;9.5.b;9.5.b. Parallel Realisation;error;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2859;10. Effects of Finite Word Length in Digital Filters;10.2;10.2. Output Quantisation Noise;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2859;10. Effects of Finite Word Length in Digital Filters;10.3;10.3. Deadband Interval;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2859;10. Effects of Finite Word Length in Digital Filters;10.4;10.4. Deadband Interval;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2859;10. Effects of Finite Word Length in Digital Filters;10.5;10.5. Output Quantisation Noise for Cascade realisation;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2823;11. Multirate Digital Signal Processing;11.1;11.1. Time Decimation;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2823;11. Multirate Digital Signal Processing;11.2;11.2. Interpolation;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2823;11. Multirate Digital Signal Processing;11.4;11.4. Polyphase Decomposition;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2823;11. Multirate Digital Signal Processing;11.5;11.5. Decimator implementation;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2823;11. Multirate Digital Signal Processing;11.6;11.6. Decimator implementation;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2824;12. Spectral Estimation;12.2;12.2. Power Spectrum;correct;runtime; -758;Digital Signal Processing(S. Salivahanan, A. Vallavaraj And C. Gnanapriya);2824;12. Spectral Estimation;12.4;12.4. Frequency resolution;correct;runtime; -761;Electronics Communication Systems(R. Blake);1952;1. Introduction to communication system;1.1;1.1. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);1952;1. Introduction to communication system;1.10;1.10. example 10;correct;runtime; -761;Electronics Communication Systems(R. Blake);1952;1. Introduction to communication system;1.11;1.11. example 11;correct;runtime; -761;Electronics Communication Systems(R. Blake);1952;1. Introduction to communication system;1.12;1.12. example 12;correct;runtime; -761;Electronics Communication Systems(R. Blake);1952;1. Introduction to communication system;1.13;1.13. example 13;correct;runtime; -761;Electronics Communication Systems(R. Blake);1952;1. Introduction to communication system;1.4;1.4. example 4;correct;runtime; -761;Electronics Communication Systems(R. Blake);1952;1. Introduction to communication system;1.5;1.5. example 5;correct;runtime; -761;Electronics Communication Systems(R. Blake);1952;1. Introduction to communication system;1.6;1.6. example 6;correct;runtime; -761;Electronics Communication Systems(R. Blake);1952;1. Introduction to communication system;1.7;1.7. example 7;correct;runtime; -761;Electronics Communication Systems(R. Blake);1952;1. Introduction to communication system;1.8;1.8. example 8;correct;runtime; -761;Electronics Communication Systems(R. Blake);1952;1. Introduction to communication system;1.9;1.9. example 9;correct;runtime; -761;Electronics Communication Systems(R. Blake);1954;2. Radio Frequency Circuits;2.1;2.1. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);1954;2. Radio Frequency Circuits;2.10;2.10. example 9;correct;runtime; -761;Electronics Communication Systems(R. Blake);1954;2. Radio Frequency Circuits;2.11;2.11. example 10;correct;runtime; -761;Electronics Communication Systems(R. Blake);1954;2. Radio Frequency Circuits;2.2;2.2. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);1954;2. Radio Frequency Circuits;2.3;2.3. example 3;correct;runtime; -761;Electronics Communication Systems(R. Blake);1954;2. Radio Frequency Circuits;2.4;2.4. example 4;correct;runtime; -761;Electronics Communication Systems(R. Blake);1954;2. Radio Frequency Circuits;2.5;2.5. example 5;correct;runtime; -761;Electronics Communication Systems(R. Blake);1954;2. Radio Frequency Circuits;2.7;2.7. example 6;correct;runtime; -761;Electronics Communication Systems(R. Blake);1954;2. Radio Frequency Circuits;2.8;2.8. example 7;correct;runtime; -761;Electronics Communication Systems(R. Blake);1954;2. Radio Frequency Circuits;2.9;2.9. example 8;correct;runtime; -761;Electronics Communication Systems(R. Blake);1976;3. The Amplitude Modulation;3.1;3.1. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);1976;3. The Amplitude Modulation;3.10;3.10. example 9;correct;runtime; -761;Electronics Communication Systems(R. Blake);1976;3. The Amplitude Modulation;3.11;3.11. example 10;correct;runtime; -761;Electronics Communication Systems(R. Blake);1976;3. The Amplitude Modulation;3.2;3.2. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);1976;3. The Amplitude Modulation;3.3;3.3. example 3;correct;runtime; -761;Electronics Communication Systems(R. Blake);1976;3. The Amplitude Modulation;3.4;3.4. example 4;correct;runtime; -761;Electronics Communication Systems(R. Blake);1976;3. The Amplitude Modulation;3.6;3.6. example 5;correct;runtime; -761;Electronics Communication Systems(R. Blake);1976;3. The Amplitude Modulation;3.7;3.7. example 6;correct;runtime; -761;Electronics Communication Systems(R. Blake);1976;3. The Amplitude Modulation;3.8;3.8. example 7;correct;runtime; -761;Electronics Communication Systems(R. Blake);1976;3. The Amplitude Modulation;3.9;3.9. example 8;correct;runtime; -761;Electronics Communication Systems(R. Blake);1985;4. Angle Modulation;4.1;4.1. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);1985;4. Angle Modulation;4.10;4.10. example 10;correct;runtime; -761;Electronics Communication Systems(R. Blake);1985;4. Angle Modulation;4.2;4.2. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);1985;4. Angle Modulation;4.3;4.3. example 3;correct;runtime; -761;Electronics Communication Systems(R. Blake);1985;4. Angle Modulation;4.4;4.4. example 4;correct;runtime; -761;Electronics Communication Systems(R. Blake);1985;4. Angle Modulation;4.6;4.6. example 5;correct;runtime; -761;Electronics Communication Systems(R. Blake);1985;4. Angle Modulation;4.7;4.7. example 6;correct;runtime; -761;Electronics Communication Systems(R. Blake);1985;4. Angle Modulation;4.9;4.9. example 7;correct;runtime; -761;Electronics Communication Systems(R. Blake);2010;5. Transmitters;5.10;5.10. example 9;correct;runtime; -761;Electronics Communication Systems(R. Blake);2010;5. Transmitters;5.11;5.11. example 10;correct;runtime; -761;Electronics Communication Systems(R. Blake);2010;5. Transmitters;5.2;5.2. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);2010;5. Transmitters;5.3;5.3. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);2010;5. Transmitters;5.4;5.4. example 3;correct;runtime; -761;Electronics Communication Systems(R. Blake);2010;5. Transmitters;5.5;5.5. example 4;correct;runtime; -761;Electronics Communication Systems(R. Blake);2010;5. Transmitters;5.6;5.6. example 5;correct;runtime; -761;Electronics Communication Systems(R. Blake);2010;5. Transmitters;5.7;5.7. example 6;correct;runtime; -761;Electronics Communication Systems(R. Blake);2010;5. Transmitters;5.8;5.8. example 7;correct;runtime; -761;Electronics Communication Systems(R. Blake);2010;5. Transmitters;5.9;5.9. example 8;correct;runtime; -761;Electronics Communication Systems(R. Blake);2011;6. Receivers;6.1;6.1. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);2011;6. Receivers;6.10;6.10. example 8;correct;runtime; -761;Electronics Communication Systems(R. Blake);2011;6. Receivers;6.11;6.11. example 9;correct;runtime; -761;Electronics Communication Systems(R. Blake);2011;6. Receivers;6.4;6.4. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);2011;6. Receivers;6.5;6.5. example 3;correct;runtime; -761;Electronics Communication Systems(R. Blake);2011;6. Receivers;6.6;6.6. example 4;correct;runtime; -761;Electronics Communication Systems(R. Blake);2011;6. Receivers;6.7;6.7. example 5;correct;runtime; -761;Electronics Communication Systems(R. Blake);2011;6. Receivers;6.8;6.8. example 6;correct;runtime; -761;Electronics Communication Systems(R. Blake);2011;6. Receivers;6.9;6.9. example 7;correct;runtime; -761;Electronics Communication Systems(R. Blake);1953;7. Digital communication;7.1;7.1. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);1953;7. Digital communication;7.2;7.2. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);1953;7. Digital communication;7.3;7.3. example 3;correct;runtime; -761;Electronics Communication Systems(R. Blake);1953;7. Digital communication;7.4;7.4. example 4;correct;runtime; -761;Electronics Communication Systems(R. Blake);1953;7. Digital communication;7.5;7.5. example 5;correct;runtime; -761;Electronics Communication Systems(R. Blake);1953;7. Digital communication;7.6;7.6. example 6;correct;runtime; -761;Electronics Communication Systems(R. Blake);1977;8. The Telephone System;8.3;8.3. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);1977;8. The Telephone System;8.5;8.5. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);1977;8. The Telephone System;8.6;8.6. example 3;correct;runtime; -761;Electronics Communication Systems(R. Blake);2012;9. Data Transmission;9.2;9.2. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);2012;9. Data Transmission;9.6;9.6. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);1974;12. Digital Modulation and Modems;12.1;12.1. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);1974;12. Digital Modulation and Modems;12.2;12.2. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);1974;12. Digital Modulation and Modems;12.3;12.3. example 3;correct;runtime; -761;Electronics Communication Systems(R. Blake);1974;12. Digital Modulation and Modems;12.4;12.4. example 4;correct;runtime; -761;Electronics Communication Systems(R. Blake);1974;12. Digital Modulation and Modems;12.5;12.5. example 5;correct;runtime; -761;Electronics Communication Systems(R. Blake);1974;12. Digital Modulation and Modems;12.6;12.6. example 6;correct;runtime; -761;Electronics Communication Systems(R. Blake);1973;13. Multiplexing and Multiple Access Techniques;13.1;13.1. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);1973;13. Multiplexing and Multiple Access Techniques;13.2;13.2. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);1973;13. Multiplexing and Multiple Access Techniques;13.3;13.3. example 3;correct;runtime; -761;Electronics Communication Systems(R. Blake);1973;13. Multiplexing and Multiple Access Techniques;13.4;13.4. example 4;correct;runtime; -761;Electronics Communication Systems(R. Blake);1973;13. Multiplexing and Multiple Access Techniques;13.5;13.5. example 5;correct;runtime; -761;Electronics Communication Systems(R. Blake);2013;14. Transmission Lines;14.1;14.1. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);2013;14. Transmission Lines;14.10;14.10. example 10;correct;runtime; -761;Electronics Communication Systems(R. Blake);2013;14. Transmission Lines;14.11;14.11. example 11;correct;runtime; -761;Electronics Communication Systems(R. Blake);2013;14. Transmission Lines;14.13;14.13. example 12;correct;runtime; -761;Electronics Communication Systems(R. Blake);2013;14. Transmission Lines;14.14;14.14. example 13;correct;runtime; -761;Electronics Communication Systems(R. Blake);2013;14. Transmission Lines;14.15;14.15. example 14;correct;runtime; -761;Electronics Communication Systems(R. Blake);2013;14. Transmission Lines;14.16;14.16. example 15;correct;runtime; -761;Electronics Communication Systems(R. Blake);2013;14. Transmission Lines;14.17;14.17. example 16;correct;runtime; -761;Electronics Communication Systems(R. Blake);2013;14. Transmission Lines;14.18;14.18. example 17;correct;runtime; -761;Electronics Communication Systems(R. Blake);2013;14. Transmission Lines;14.19;14.19. example 18;correct;runtime; -761;Electronics Communication Systems(R. Blake);2013;14. Transmission Lines;14.2;14.2. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);2013;14. Transmission Lines;14.20;14.20. example 19;correct;runtime; -761;Electronics Communication Systems(R. Blake);2013;14. Transmission Lines;14.3;14.3. example 3;correct;runtime; -761;Electronics Communication Systems(R. Blake);2013;14. Transmission Lines;14.4;14.4. example 4;correct;runtime; -761;Electronics Communication Systems(R. Blake);2013;14. Transmission Lines;14.5;14.5. example 5;correct;runtime; -761;Electronics Communication Systems(R. Blake);2013;14. Transmission Lines;14.6;14.6. example 6;correct;runtime; -761;Electronics Communication Systems(R. Blake);2013;14. Transmission Lines;14.7;14.7. example 7;correct;runtime; -761;Electronics Communication Systems(R. Blake);2013;14. Transmission Lines;14.8;14.8. example 8;correct;runtime; -761;Electronics Communication Systems(R. Blake);2013;14. Transmission Lines;14.9;14.9. example 9;correct;runtime; -761;Electronics Communication Systems(R. Blake);2014;15. Radio Wave Propogation;15.1;15.1. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);2014;15. Radio Wave Propogation;15.11;15.11. example 10;correct;runtime; -761;Electronics Communication Systems(R. Blake);2014;15. Radio Wave Propogation;15.12;15.12. example 11;correct;runtime; -761;Electronics Communication Systems(R. Blake);2014;15. Radio Wave Propogation;15.2;15.2. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);2014;15. Radio Wave Propogation;15.3;15.3. example 3;correct;runtime; -761;Electronics Communication Systems(R. Blake);2014;15. Radio Wave Propogation;15.4;15.4. example 4;correct;runtime; -761;Electronics Communication Systems(R. Blake);2014;15. Radio Wave Propogation;15.5;15.5. example 5;correct;runtime; -761;Electronics Communication Systems(R. Blake);2014;15. Radio Wave Propogation;15.6;15.6. example 6;correct;runtime; -761;Electronics Communication Systems(R. Blake);2014;15. Radio Wave Propogation;15.7;15.7. example 7;correct;runtime; -761;Electronics Communication Systems(R. Blake);2014;15. Radio Wave Propogation;15.8;15.8. example 8;correct;runtime; -761;Electronics Communication Systems(R. Blake);2014;15. Radio Wave Propogation;15.9;15.9. example 9;error;runtime; -761;Electronics Communication Systems(R. Blake);2016;16. Antennas;16.1;16.1. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);2016;16. Antennas;16.2;16.2. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);2016;16. Antennas;16.3;16.3. example 3;correct;runtime; -761;Electronics Communication Systems(R. Blake);2016;16. Antennas;16.4;16.4. example 4;correct;runtime; -761;Electronics Communication Systems(R. Blake);2016;16. Antennas;16.6;16.6. example 5;correct;runtime; -761;Electronics Communication Systems(R. Blake);2016;16. Antennas;16.7;16.7. example 6;correct;runtime; -761;Electronics Communication Systems(R. Blake);2016;16. Antennas;16.8;16.8. example 7;correct;runtime; -761;Electronics Communication Systems(R. Blake);2016;16. Antennas;16.9;16.9. example 8;correct;runtime; -761;Electronics Communication Systems(R. Blake);2017;17. Microwave Devices;17.1;17.1. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);2017;17. Microwave Devices;17.10;17.10. example 9;correct;runtime; -761;Electronics Communication Systems(R. Blake);2017;17. Microwave Devices;17.11;17.11. example 10;correct;runtime; -761;Electronics Communication Systems(R. Blake);2017;17. Microwave Devices;17.12;17.12. example 11;correct;runtime; -761;Electronics Communication Systems(R. Blake);2017;17. Microwave Devices;17.13.a;17.13.a. example 12;correct;runtime; -761;Electronics Communication Systems(R. Blake);2017;17. Microwave Devices;17.13.b;17.13.b. example 13;error;runtime; -761;Electronics Communication Systems(R. Blake);2017;17. Microwave Devices;17.14;17.14. example 14;correct;runtime; -761;Electronics Communication Systems(R. Blake);2017;17. Microwave Devices;17.2;17.2. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);2017;17. Microwave Devices;17.3;17.3. example 3;correct;runtime; -761;Electronics Communication Systems(R. Blake);2017;17. Microwave Devices;17.4;17.4. example 4;correct;runtime; -761;Electronics Communication Systems(R. Blake);2017;17. Microwave Devices;17.5;17.5. example 5;correct;runtime; -761;Electronics Communication Systems(R. Blake);2017;17. Microwave Devices;17.7;17.7. example 6;error;runtime; -761;Electronics Communication Systems(R. Blake);2017;17. Microwave Devices;17.8;17.8. example 7;correct;runtime; -761;Electronics Communication Systems(R. Blake);2017;17. Microwave Devices;17.9;17.9. example 8;correct;runtime; -761;Electronics Communication Systems(R. Blake);2018;18. Terrestrial Microwave Communication system;18.1;18.1. example 1;error;runtime; -761;Electronics Communication Systems(R. Blake);2018;18. Terrestrial Microwave Communication system;18.10;18.10. example 10;correct;runtime; -761;Electronics Communication Systems(R. Blake);2018;18. Terrestrial Microwave Communication system;18.11;18.11. example 11;correct;runtime; -761;Electronics Communication Systems(R. Blake);2018;18. Terrestrial Microwave Communication system;18.2;18.2. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);2018;18. Terrestrial Microwave Communication system;18.3;18.3. example 3;correct;runtime; -761;Electronics Communication Systems(R. Blake);2018;18. Terrestrial Microwave Communication system;18.4;18.4. example 4;correct;runtime; -761;Electronics Communication Systems(R. Blake);2018;18. Terrestrial Microwave Communication system;18.5;18.5. example 5;correct;runtime; -761;Electronics Communication Systems(R. Blake);2018;18. Terrestrial Microwave Communication system;18.6;18.6. example 6;correct;runtime; -761;Electronics Communication Systems(R. Blake);2018;18. Terrestrial Microwave Communication system;18.7;18.7. example 7;correct;runtime; -761;Electronics Communication Systems(R. Blake);2018;18. Terrestrial Microwave Communication system;18.8;18.8. example 8;correct;runtime; -761;Electronics Communication Systems(R. Blake);2018;18. Terrestrial Microwave Communication system;18.9;18.9. example 9;correct;runtime; -761;Electronics Communication Systems(R. Blake);2019;19. Television;19.1;19.1. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);2019;19. Television;19.2;19.2. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);2019;19. Television;19.3;19.3. example 3;correct;runtime; -761;Electronics Communication Systems(R. Blake);2019;19. Television;19.4;19.4. example 4;correct;runtime; -761;Electronics Communication Systems(R. Blake);2019;19. Television;19.5;19.5. example 5;error;runtime; -761;Electronics Communication Systems(R. Blake);2019;19. Television;19.6;19.6. example 6;correct;runtime; -761;Electronics Communication Systems(R. Blake);2019;19. Television;19.7.a;19.7.a. example 7;correct;runtime; -761;Electronics Communication Systems(R. Blake);2019;19. Television;19.7.b;19.7.b. example 8;correct;runtime; -761;Electronics Communication Systems(R. Blake);2020;20. Satellite Communication;20.1;20.1. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);2020;20. Satellite Communication;20.2;20.2. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);2020;20. Satellite Communication;20.3;20.3. example 3;correct;runtime; -761;Electronics Communication Systems(R. Blake);2020;20. Satellite Communication;20.4;20.4. example 4;correct;runtime; -761;Electronics Communication Systems(R. Blake);2020;20. Satellite Communication;20.5;20.5. example 5;correct;runtime; -761;Electronics Communication Systems(R. Blake);2020;20. Satellite Communication;20.6;20.6. example 6;correct;runtime; -761;Electronics Communication Systems(R. Blake);2020;20. Satellite Communication;20.7;20.7. example 7;correct;runtime; -761;Electronics Communication Systems(R. Blake);2020;20. Satellite Communication;20.8;20.8. example 8;correct;runtime; -761;Electronics Communication Systems(R. Blake);2020;20. Satellite Communication;20.9;20.9. example 9;correct;runtime; -761;Electronics Communication Systems(R. Blake);2021;21. Cellular Radio;21.1;21.1. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);2021;21. Cellular Radio;21.2;21.2. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);2021;21. Cellular Radio;21.3;21.3. example 3;correct;runtime; -761;Electronics Communication Systems(R. Blake);2022;22. Personal Communication Systems;22.1;22.1. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);2023;23. Paging and Wireless Data Networking;23.1;23.1. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);2023;23. Paging and Wireless Data Networking;23.2;23.2. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);2023;23. Paging and Wireless Data Networking;23.3;23.3. example 3;correct;runtime; -761;Electronics Communication Systems(R. Blake);1975;24. Fiber Optics;24.3;24.3. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);1975;24. Fiber Optics;24.4;24.4. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);1975;24. Fiber Optics;24.5;24.5. example 3;correct;runtime; -761;Electronics Communication Systems(R. Blake);1975;24. Fiber Optics;24.6;24.6. example 6;correct;runtime; -761;Electronics Communication Systems(R. Blake);1975;24. Fiber Optics;24.7;24.7. example 5;correct;runtime; -761;Electronics Communication Systems(R. Blake);1975;24. Fiber Optics;24.8;24.8. example 6;correct;runtime; -761;Electronics Communication Systems(R. Blake);1975;24. Fiber Optics;24.9;24.9. example 9;correct;runtime; -761;Electronics Communication Systems(R. Blake);1972;25. Fiber Optic Systems;25.1;25.1. example 1;correct;runtime; -761;Electronics Communication Systems(R. Blake);1972;25. Fiber Optic Systems;25.2;25.2. example 2;correct;runtime; -761;Electronics Communication Systems(R. Blake);1972;25. Fiber Optic Systems;25.3;25.3. example 3;correct;runtime; -761;Electronics Communication Systems(R. Blake);1972;25. Fiber Optic Systems;25.4;25.4. example 4;correct;runtime; -761;Electronics Communication Systems(R. Blake);1972;25. Fiber Optic Systems;25.5;25.5. example 5;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1944;1. Introduction;1.1.a;1.1.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1944;1. Introduction;1.1.b;1.1.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1944;1. Introduction;1.2.a;1.2.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1944;1. Introduction;1.2.b;1.2.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1944;1. Introduction;1.3.a;1.3.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1944;1. Introduction;1.3.b;1.3.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1944;1. Introduction;1.4.a;1.4.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1944;1. Introduction;1.4.b;1.4.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1966;2. Engineering Materials;2.1.a;2.1.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1966;2. Engineering Materials;2.1.b;2.1.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1967;3. Manufacturing Considerations in Design;3.1.a;3.1.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1967;3. Manufacturing Considerations in Design;3.1.b;3.1.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1967;3. Manufacturing Considerations in Design;3.2.a;3.2.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1967;3. Manufacturing Considerations in Design;3.2.b;3.2.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1967;3. Manufacturing Considerations in Design;3.3.a;3.3.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1967;3. Manufacturing Considerations in Design;3.3.b;3.3.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1967;3. Manufacturing Considerations in Design;3.4.a;3.4.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1967;3. Manufacturing Considerations in Design;3.4.b;3.4.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.1.a;4.1.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.1.b;4.1.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.10.a;4.10.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.10.b;4.10.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.11.a;4.11.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.11.b;4.11.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.12.a;4.12.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.12.b;4.12.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.13.a;4.13.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.13.b;4.13.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.14.a;4.14.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.14.b;4.14.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.15.a;4.15.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.15.b;4.15.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.16.a;4.16.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.16.b;4.16.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.17.a;4.17.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.17.b;4.17.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.18.a;4.18.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.18.b;4.18.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.19.a;4.19.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.19.b;4.19.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.2.a;4.2.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.2.b;4.2.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.20.a;4.20.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.20.b;4.20.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.21.a;4.21.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.21.b;4.21.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.22.a;4.22.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.22.b;4.22.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.3.a;4.3.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.3.b;4.3.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.4.a;4.4.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.4.b;4.4.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.5.a;4.5.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.5.b;4.5.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.6.a;4.6.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.6.b;4.6.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.7.a;4.7.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.7.b;4.7.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.8.a;4.8.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.8.b;4.8.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.9.a;4.9.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1971;4. Design against Static Load;4.9.b;4.9.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.1.a;5.1.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.1.b;5.1.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.10.a;5.10.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.10.b;5.10.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.10.c;5.10.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.11.a;5.11.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.11.b;5.11.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.11.c;5.11.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.12.a;5.12.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.12.b;5.12.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.12.c;5.12.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.13.a;5.13.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.13.b;5.13.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.13.c;5.13.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.14.a;5.14.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.14.b;5.14.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.14.c;5.14.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.15.a;5.15.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.15.b;5.15.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.15.c;5.15.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.16.a;5.16.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.16.b;5.16.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.16.c;5.16.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.17.a;5.17.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.17.b;5.17.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.18.a;5.18.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.18.b;5.18.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.18.c;5.18.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.19.a;5.19.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.19.b;5.19.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.2.a;5.2.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.2.b;5.2.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.20.a;5.20.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.20.b;5.20.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.21.a;5.21.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.21.b;5.21.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.3.a;5.3.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.3.b;5.3.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.3.c;5.3.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.4.a;5.4.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.4.b;5.4.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.4.c;5.4.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.5.a;5.5.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.5.b;5.5.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.5.c;5.5.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.6.a;5.6.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.6.b;5.6.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.6.c;5.6.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.7.a;5.7.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.7.b;5.7.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.7.c;5.7.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.8.a;5.8.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.8.b;5.8.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.8.c;5.8.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.9.a;5.9.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.9.b;5.9.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2033;5. Design against Fluctuating Load;5.9.c;5.9.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.1.a;6.1.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.1.b;6.1.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.10.a;6.10.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.10.b;6.10.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.11.a;6.11.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.11.b;6.11.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.2.a;6.2.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.2.b;6.2.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.3.a;6.3.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.3.b;6.3.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.4.a;6.4.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.4.b;6.4.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.5.a;6.5.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.5.b;6.5.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.6.a;6.6.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.6.b;6.6.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.7.a;6.7.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.7.b;6.7.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.8.a;6.8.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.8.b;6.8.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.9.a;6.9.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2117;6. Power Screws;6.9.b;6.9.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.1.a;7.1.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.1.b;7.1.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.10.a;7.10.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.10.b;7.10.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.11.a;7.11.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.11.b;7.11.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.12.a;7.12.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.12.b;7.12.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.13.a;7.13.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.13.b;7.13.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.14.a;7.14.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.14.b;7.14.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.15.a;7.15.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.15.b;7.15.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.16.a;7.16.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.16.b;7.16.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.17.a;7.17.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.17.b;7.17.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.18.a;7.18.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.18.b;7.18.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.18.c;7.18.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.19.a;7.19.a. data;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.19.b;7.19.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.19.c;7.19.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.2.a;7.2.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.2.b;7.2.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.20.a;7.20.a. data;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.20.b;7.20.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.20.c;7.20.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.21.a;7.21.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.21.b;7.21.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.21.c;7.21.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.22.a;7.22.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.22.b;7.22.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.23.a;7.23.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.23.b;7.23.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.3.a;7.3.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.3.b;7.3.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.4.a;7.4.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.4.b;7.4.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.5.a;7.5.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.5.b;7.5.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.6.a;7.6.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.6.b;7.6.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.7.a;7.7.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.7.b;7.7.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.8.a;7.8.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.8.b;7.8.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.9.a;7.9.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2179;7. Threaded Joints;7.9.b;7.9.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.1.a;8.1.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.1.b;8.1.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.10.a;8.10.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.10.b;8.10.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.11.a;8.11.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.11.b;8.11.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.12.a;8.12.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.12.b;8.12.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.13.a;8.13.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.13.b;8.13.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.14.a;8.14.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.14.b;8.14.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.15.a;8.15.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.15.b;8.15.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.16.a;8.16.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.16.b;8.16.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.17.a;8.17.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.17.b;8.17.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.17.c;8.17.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.18.a;8.18.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.18.b;8.18.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.19.a;8.19.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.19.b;8.19.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.2.a;8.2.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.2.b;8.2.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.20.a;8.20.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.20.b;8.20.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.21.a;8.21.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.21.b;8.21.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.22.a;8.22.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.22.b;8.22.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.23.a;8.23.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.23.b;8.23.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.24.a;8.24.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.24.b;8.24.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.25.a;8.25.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.25.b;8.25.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.26.a;8.26.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.26.b;8.26.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.27.a;8.27.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.27.b;8.27.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.3.a;8.3.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.3.b;8.3.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.4.a;8.4.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.4.b;8.4.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.5.a;8.5.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.5.b;8.5.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.6.a;8.6.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.6.b;8.6.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.7.a;8.7.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.7.b;8.7.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.8.a;8.8.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.8.b;8.8.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.9.a;8.9.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2223;8. Welded and Riveted Joints;8.9.b;8.9.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.1.a;10.1.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.1.b;10.1.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.1.c;10.1.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.10.a;10.10.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.10.b;10.10.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.10.c;10.10.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.11.a;10.11.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.11.b;10.11.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.11.c;10.11.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.12.a;10.12.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.12.b;10.12.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.13.a;10.13.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.13.b;10.13.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.14.a;10.14.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.14.b;10.14.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.14.c;10.14.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.15.a;10.15.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.15.b;10.15.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.15.c;10.15.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.16.a;10.16.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.16.b;10.16.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.16.c;10.16.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.17.a;10.17.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.17.b;10.17.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.17.c;10.17.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.18.a;10.18.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.18.b;10.18.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.19.a;10.19.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.19.b;10.19.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.2.a;10.2.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.2.b;10.2.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.2.c;10.2.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.20.a;10.20.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.20.b;10.20.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.21.a;10.21.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.21.b;10.21.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.22.a;10.22.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.22.b;10.22.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.23.a;10.23.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.23.b;10.23.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.24.a;10.24.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.24.b;10.24.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.25.a;10.25.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.25.b;10.25.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.26.a;10.26.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.26.b;10.26.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.3.a;10.3.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.3.b;10.3.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.4.a;10.4.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.4.b;10.4.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.4.c;10.4.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.5.a;10.5.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.5.b;10.5.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.6.a;10.6.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.6.b;10.6.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.6.c;10.6.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.7.a;10.7.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.7.b;10.7.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.7.c;10.7.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.8.a;10.8.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.8.b;10.8.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.9.a;10.9.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.9.b;10.9.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2371;10. Springs;10.9.c;10.9.c. function file;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.1.a;11.1.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.1.b;11.1.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.10.a;11.10.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.10.b;11.10.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.11.a;11.11.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.11.b;11.11.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.12.a;11.12.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.12.b;11.12.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.13.a;11.13.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.13.b;11.13.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.14.a;11.14.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.14.b;11.14.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.2.a;11.2.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.2.b;11.2.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.3.a;11.3.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.3.b;11.3.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.4.a;11.4.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.4.b;11.4.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.5.a;11.5.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.5.b;11.5.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.6.a;11.6.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.6.b;11.6.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.7.a;11.7.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.7.b;11.7.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.8.a;11.8.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.8.b;11.8.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.9.a;11.9.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);1943;11. Friction Clutches;11.9.b;11.9.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.1.a;12.1.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.1.b;12.1.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.10.a;12.10.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.10.b;12.10.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.11.a;12.11.a. result;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.12.a;12.12.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.12.b;12.12.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.13.a;12.13.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.13.b;12.13.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.14.a;12.14.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.14.b;12.14.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.2.a;12.2.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.2.b;12.2.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.3.a;12.3.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.3.b;12.3.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.4.a;12.4.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.4.b;12.4.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.5.a;12.5.a. result;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.6.a;12.6.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.6.b;12.6.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.7.a;12.7.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.7.b;12.7.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.8.a;12.8.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.8.b;12.8.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.9.a;12.9.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2542;12. Brakes;12.9.b;12.9.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2707;14. Chain Drives;14.1.a;14.1.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2707;14. Chain Drives;14.1.b;14.1.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2707;14. Chain Drives;14.2.a;14.2.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2707;14. Chain Drives;14.2.b;14.2.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2707;14. Chain Drives;14.3.a;14.3.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2707;14. Chain Drives;14.3.b;14.3.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2707;14. Chain Drives;14.4.a;14.4.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2707;14. Chain Drives;14.4.b;14.4.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2707;14. Chain Drives;14.5.a;14.5.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2707;14. Chain Drives;14.5.b;14.5.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2707;14. Chain Drives;14.6.a;14.6.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2707;14. Chain Drives;14.6.b;14.6.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2707;14. Chain Drives;14.7.a;14.7.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2707;14. Chain Drives;14.7.b;14.7.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2707;14. Chain Drives;14.8.a;14.8.a. result;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2709;22. Cylinders and Pressure Vessels;22.1.a;22.1.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2709;22. Cylinders and Pressure Vessels;22.1.b;22.1.b. solution;error;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2709;22. Cylinders and Pressure Vessels;22.2.a;22.2.a. data;correct;runtime; -764;Design Of Machine Elements(V. B. Bhandari);2709;22. Cylinders and Pressure Vessels;22.2.b;22.2.b. solution;error;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2330;1. The Nucleus;1.11.1;1.11.1. Ion accelerated in a mass spectrograph;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2330;1. The Nucleus;1.11.2;1.11.2. Distance between isotopic Ar ions;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2330;1. The Nucleus;1.3.1;1.3.1. de Broglie relation;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2330;1. The Nucleus;1.3.2;1.3.2. Isotopes Isotones and Isobars;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2330;1. The Nucleus;1.4.1;1.4.1. Rest mass energy of electron;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2330;1. The Nucleus;1.4.2;1.4.2. Nuclear radius;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2330;1. The Nucleus;1.4.3;1.4.3. Nuclear density;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2330;1. The Nucleus;1.4.4;1.4.4. Density of uranium 235;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2330;1. The Nucleus;1.4.5;1.4.5. Variation of nuclear density with radius;error;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2330;1. The Nucleus;1.4.6;1.4.6. Distance of closest approach;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2330;1. The Nucleus;1.4.7;1.4.7. Radius of Pb 208;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2330;1. The Nucleus;1.5.1;1.5.1. Binding energy of alpha particle;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2330;1. The Nucleus;1.5.2;1.5.2. Dissociation energy of C12;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2330;1. The Nucleus;1.5.3;1.5.3. Dissociation energy of helium nucleus;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2330;1. The Nucleus;1.5.4;1.5.4. Binding energy of Fe 56;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2330;1. The Nucleus;1.5.5;1.5.5. Mass defect and packing fraction;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2330;1. The Nucleus;1.5.6;1.5.6. Average binding energy;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2330;1. The Nucleus;1.6.1;1.6.1. Orbital angular momentum of coupled nucleons;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2330;1. The Nucleus;1.6.2;1.6.2. Total angular momentum of proton;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2331;2. Nuclear Models;2.2.1;2.2.1. Binding energy and percentage discrepancy;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2331;2. Nuclear Models;2.2.2;2.2.2. Coulomb energies and nucelon masses of mirror nuclei;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2331;2. Nuclear Models;2.2.3;2.2.3. Neutron binding energy for isotopes of krypton;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2331;2. Nuclear Models;2.2.4;2.2.4. Isotopic stability;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2331;2. Nuclear Models;2.2.5;2.2.5. Stable isotopes for different mass numbers;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2331;2. Nuclear Models;2.2.6;2.2.6. Coulomb energy coefficient of mirror nuclei;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2331;2. Nuclear Models;2.2.7;2.2.7. Coulomb and surface energies of uranium;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2331;2. Nuclear Models;2.3.1;2.3.1. Mass of decayed radioactive material;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2331;2. Nuclear Models;2.3.4;2.3.4. Magnetic moment of nuclei;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.2.1;3.2.1. Curie becquerel relation;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.2.10;3.2.10. Power in radioactive decay;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.2.2;3.2.2. Activity of thorium;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.2.3;3.2.3. Mass of radiactive sample;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.2.4;3.2.4. Activity of 1 kg of uranium;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.2.6;3.2.6. Half life of radioactive material;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.2.7;3.2.7. Mass of Ra 226;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.2.8;3.2.8. Activity and weight of radiactive material;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.2.9;3.2.9. Activity of K 40;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.3.1;3.3.1. Emitted particles during nuclear disintegration;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.3.2;3.3.2. Energy of Pb decay;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.4.1;3.4.1. Atomic and mass numbers of daughter nuclei;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.4.2;3.4.2. Number of half lives of Rn 222;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.4.3;3.4.3. Decay constant for alpha and beta decays;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.4.4;3.4.4. Half life of uranium 234;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.4.5;3.4.5. Decayed amount of radioactive matter;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.5.2;3.5.2. Kinetic energy of alpha particle;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.5.3;3.5.3. Height of barrier faced by alpha particle;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.5.4;3.5.4. Height of coulomb barrier;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.5.5;3.5.5. KE of a proton to penetrate the barrier;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.6.1;3.6.1. Mass of daughter nucleus;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.6.3;3.6.3. Number of proton decayed per year from water;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.7.1;3.7.1. Energy of gamma photons from excited Ni 60;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.7.2;3.7.2. Conversion energies for K and L shell electrons;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.9.1;3.9.1. Age of uranium mineral;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.9.2;3.9.2. Age of boat from its half life;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2333;3. Radioactivity;3.9.4;3.9.4. radioactive disintegration of Pu 239;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.3.1;4.3.1. Cross section of lithium;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.3.2;4.3.2. Neutron absorption ratio;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.4.1;4.4.1. Nuclear reactions;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.5.1;4.5.1. Q value for reaction;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.5.10;4.5.10. Energy of gamma rays;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.5.2;4.5.2. Energy emitted in nuclear reaction;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.5.3;4.5.3. Threshold energy and Q value for nuclear reaction;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.5.4;4.5.4. Mass of neutron from nuclear reaction;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.5.5;4.5.5. Q value sign for nuclear reaction;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.5.6;4.5.6. Spontaneity of Q value for nulclear reaciton;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.5.7;4.5.7. Nuclear reaction Q value;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.5.8;4.5.8. Threshold energy for given reaction;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.5.9;4.5.9. Q value of nuclear reaction;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.7.1;4.7.1. Energy and power released during fission of U 235;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.7.2;4.7.2. Fission rate induced in the uranium foil by neutron;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.7.3;4.7.3. Power in fission process;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.7.4;4.7.4. Power released in fission;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.7.5;4.7.5. Fission counts and mass reduction of fissile material;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.8.1;4.8.1. Energy liberated in fusion reaction;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.8.2;4.8.2. Energy produced by helium carbon fusion;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.8.3;4.8.3. Energy released and temperature required for fusion of gases;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.8.4;4.8.4. Life time of sun;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.8.5;4.8.5. Particle identification in the nuclear reaction;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2351;4. Nuclear Reactions;4.8.6;4.8.6. Mass defect and q value for fusion reaction;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2352;5. Interaction of Radiations with Matter;5.2.1;5.2.1. Energy lost during collision;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2352;5. Interaction of Radiations with Matter;5.5.1;5.5.1. Half value thickness of aluminium;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2352;5. Interaction of Radiations with Matter;5.5.2;5.5.2. Thickness of lead;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2352;5. Interaction of Radiations with Matter;5.5.3;5.5.3. Percentage loss of intensity of gamma rays;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2352;5. Interaction of Radiations with Matter;5.6.1;5.6.1. Velocity of ejected photoelectron;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2352;5. Interaction of Radiations with Matter;5.6.2;5.6.2. Rate of photoelectron emission;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2352;5. Interaction of Radiations with Matter;5.6.3;5.6.3. Kinetic energy of photoelectron;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2352;5. Interaction of Radiations with Matter;5.7.1;5.7.1. Compton shift;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2352;5. Interaction of Radiations with Matter;5.7.2;5.7.2. Wavelength of the scattered gamma rays;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2352;5. Interaction of Radiations with Matter;5.7.3;5.7.3. Wavelength of the incident beam of X rays;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2352;5. Interaction of Radiations with Matter;5.7.4;5.7.4. Frequency of the scattered photon;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2352;5. Interaction of Radiations with Matter;5.7.5;5.7.5. Energy of scattered photon and recoil electron;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2352;5. Interaction of Radiations with Matter;5.7.6;5.7.6. Scattering angle of X rays;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2352;5. Interaction of Radiations with Matter;5.8.1;5.8.1. Kinetic energy of electron and positron;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2353;6. Particle Accelerators;6.10.1;6.10.1. Magnetic field of the electron;error;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2353;6. Particle Accelerators;6.10.2;6.10.2. Radius of proton orbit in synchrotron;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2353;6. Particle Accelerators;6.2.1;6.2.1. Kinetic energy of protons;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2353;6. Particle Accelerators;6.3.1;6.3.1. Protons in Van de Graff accelerator;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2353;6. Particle Accelerators;6.3.2;6.3.2. Reactions at different particle energies;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2353;6. Particle Accelerators;6.4.1;6.4.1. Protons passing through the carbon stripper foil;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2353;6. Particle Accelerators;6.5.1;6.5.1. Electron at relativistic energy;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2353;6. Particle Accelerators;6.5.2;6.5.2. Protons accelerating through drift tubes;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2353;6. Particle Accelerators;6.5.3;6.5.3. Electron speed at relativistic energies;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2353;6. Particle Accelerators;6.7.1;6.7.1. Proton accelerating in a cyclotron;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2353;6. Particle Accelerators;6.7.2;6.7.2. Frequency of deutron accelerated in a cyclotron;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2353;6. Particle Accelerators;6.7.3;6.7.3. Relation between magnetic field and cyclotron frequency;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2353;6. Particle Accelerators;6.7.4;6.7.4. Frequency of alternating field;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2353;6. Particle Accelerators;6.8.1;6.8.1. Energy gained by an electron in the magnetic field;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2353;6. Particle Accelerators;6.9.1;6.9.1. Ratio of highest to the lowest frequency of accelerating proton;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2353;6. Particle Accelerators;6.9.2;6.9.2. W B ration of completely stripped nitrogen;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2354;7. Radiation Detectors;7.2.1;7.2.1. Energy of alpha particle;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2354;7. Radiation Detectors;7.3.1;7.3.1. Pulse height of ionising particle;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2354;7. Radiation Detectors;7.3.2;7.3.2. Charge deposited on detector plate;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2354;7. Radiation Detectors;7.4.1;7.4.1. Height of voltage pulses;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2354;7. Radiation Detectors;7.4.2;7.4.2. Electric field at the surface of wire;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2354;7. Radiation Detectors;7.5.1;7.5.1. Electric filed in G M counter;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2354;7. Radiation Detectors;7.5.2;7.5.2. Life of G M counter;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2354;7. Radiation Detectors;7.5.3;7.5.3. Amplitude of voltage pulses in G M counter;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2354;7. Radiation Detectors;7.5.4;7.5.4. Estimating true count rate of G M counter;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2354;7. Radiation Detectors;7.6.1;7.6.1. Energy resolution of gamma rays;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2354;7. Radiation Detectors;7.6.2;7.6.2. Amplitude of output voltage pulse;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2354;7. Radiation Detectors;7.6.3;7.6.3. Resolution of scintillation detector;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2354;7. Radiation Detectors;7.7.1;7.7.1. Silicon pulse detector;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2354;7. Radiation Detectors;7.7.2;7.7.2. Detector characteristics;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2355;8. Particle Physics;8.5.1;8.5.1. Average kinetic energy of pion;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2355;8. Particle Physics;8.5.2;8.5.2. Inherent uncertainity in mass of the particle;correct;runtime; -767;Introduction To Nuclear And Particle Physics(V. K. Mittal, R. C. Verma And S. C. Gupta);2355;8. Particle Physics;8.7.3;8.7.3. Sub nuclear reactions;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1903;1. Introduction;1.1;1.1. Calculation of pressure and heat transfer in piston cylinder assembly;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1903;1. Introduction;1.10;1.10. Calculation of pressure and temperature at triple point;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1903;1. Introduction;1.11;1.11. Determination of value of R Cp0 and Cv0;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1903;1. Introduction;1.12;1.12. Calculation of molar heat capacity;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1903;1. Introduction;1.13;1.13. Determination of mean heat capacity;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1903;1. Introduction;1.14;1.14. Calculation of enthalpy of water;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1903;1. Introduction;1.2;1.2. Calculation of mass of air contained in a room;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1903;1. Introduction;1.3;1.3. Determination of work done;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1903;1. Introduction;1.4;1.4. Determination of wind energy per unit mass and diameter of the wind turbine;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1903;1. Introduction;1.5;1.5. Determination of temperature;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1903;1. Introduction;1.6;1.6. Calculation of dryness fraction of steam;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1903;1. Introduction;1.7;1.7. Determination of pressure mass and volume;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1903;1. Introduction;1.8;1.8. Determination of heat supplied;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1903;1. Introduction;1.9;1.9. Calculation of saturation temperature;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1960;2. Equations of state;2.1;2.1. Relations in virial coefficients;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1960;2. Equations of state;2.10;2.10. Estimation of molar volume;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1960;2. Equations of state;2.11;2.11. Calculation of maximum temperature;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1960;2. Equations of state;2.12;2.12. Calculation of pressure;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1960;2. Equations of state;2.13;2.13. Calculation of pressure;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1960;2. Equations of state;2.14;2.14. Determination of compressibility factor;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1960;2. Equations of state;2.15;2.15. Determination of molar volume;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1960;2. Equations of state;2.16;2.16. Calculation of volume;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1960;2. Equations of state;2.17;2.17. Estimation of compressibility factor;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1960;2. Equations of state;2.2;2.2. Determination of acentric factor;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1960;2. Equations of state;2.3;2.3. Calculation of acentric factor;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1960;2. Equations of state;2.4;2.4. Calculation of virial coefficients;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1960;2. Equations of state;2.5;2.5. Calculation of mass using virial equation of state;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1960;2. Equations of state;2.6;2.6. Calculation of molar volume;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1960;2. Equations of state;2.7;2.7. Calculation of molar volume and virial coefficients;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1960;2. Equations of state;2.8;2.8. Determination of second and third virial coefficients;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);1960;2. Equations of state;2.9;2.9. Estimation of second virial coefficient;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.1;3.1. Calculation of temperature;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.10;3.10. Finding expressions for temperature and pressure;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.11;3.11. Calculation of final pressure;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.12;3.12. Calculation of slope and work done;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.13;3.13. Calculation of work done and final temperature;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.14;3.14. Calculation of powerand discharge head;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.15;3.15. Calculation of discharge velocity;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.16;3.16. Calculation of change in enthalpy;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.17;3.17. Calculation of work done and change in enthalpy;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.18;3.18. Calculation of work done per unit mass;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.19;3.19. Calculation of inlet and outlet velocity and power;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.2;3.2. Calculation of heat required;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.20;3.20. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.21;3.21. Determination of equilibrium temperature;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.22;3.22. Determination of mass;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.3;3.3. Calculation of temperature internal energy and enthalpy;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.4;3.4. Calculation of work done;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.5;3.5. Calculation of work done;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.6;3.6. Calculation of work done;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.7;3.7. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.8;3.8. Calculation of work done;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2274;3. The First Law and Its Applications;3.9;3.9. Calculation of final temperature;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2275;4. The Secomd Law and Its Applications;4.1;4.1. Calculation of entropy change;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2275;4. The Secomd Law and Its Applications;4.10;4.10. Determination of work required and exit temperature;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2275;4. The Secomd Law and Its Applications;4.11;4.11. Determination of work required and exit temperature;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2275;4. The Secomd Law and Its Applications;4.12;4.12. Determination of work required and discharge temperature;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2275;4. The Secomd Law and Its Applications;4.13;4.13. Dtermination of power output entropy and exit temperature;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2275;4. The Secomd Law and Its Applications;4.14;4.14. Calculation of work output per unit mass;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2275;4. The Secomd Law and Its Applications;4.15;4.15. Estimation of final velocity;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2275;4. The Secomd Law and Its Applications;4.16;4.16. Calculation of final velocity and increase in entropy;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2275;4. The Secomd Law and Its Applications;4.17;4.17. Calculation of work done and heat transfer;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2275;4. The Secomd Law and Its Applications;4.18;4.18. Calculation of air velocity and change in entropy;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2275;4. The Secomd Law and Its Applications;4.2;4.2. Determination of whether the process is reversible or not;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2275;4. The Secomd Law and Its Applications;4.3;4.3. Calculation of final pressure temperature and increase in entropy;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2275;4. The Secomd Law and Its Applications;4.4;4.4. CAlculation of final temperature heat transfer and change of entropy;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2275;4. The Secomd Law and Its Applications;4.5;4.5. Calculation of final temperature work and heat transfer;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2275;4. The Secomd Law and Its Applications;4.6;4.6. Calculation of final temperature and work done;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2275;4. The Secomd Law and Its Applications;4.7;4.7. Determination of index of isentropic expansion;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2275;4. The Secomd Law and Its Applications;4.8;4.8. Determination of entropy production;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2275;4. The Secomd Law and Its Applications;4.9;4.9. Determination of work required and exit temperature;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2015;5. Exergy;5.1;5.1. Determination of fraction of the availability loss;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2015;5. Exergy;5.2;5.2. Determination of availability change and irreversibility;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2015;5. Exergy;5.3;5.3. Determination of availability change and irreversibility;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2015;5. Exergy;5.4;5.4. Determination of useful work and irreversibility;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2015;5. Exergy;5.5;5.5. Determination of reversible work and irreversibility;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2015;5. Exergy;5.6;5.6. Determination of maximum obtainable work and efficiency;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2015;5. Exergy;5.7;5.7. Determination of entropy generation rate and irreversibility;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2015;5. Exergy;5.8;5.8. Calculation of exit temperature entropy and irreversibility rate;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2015;5. Exergy;5.9;5.9. Determinatio of exit temperature availability change and irreversibility;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2007;6. Chemical reactions;6.1;6.1. Determination of enthalpy entropy and Gibbs free energy change of reaction;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2007;6. Chemical reactions;6.10;6.10. Determination of standard enthalpy change and Gibbs free energy change;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2007;6. Chemical reactions;6.2;6.2. Determination of standard enthalpy and Gibbs free energy change of reaction;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2007;6. Chemical reactions;6.3;6.3. Determination of standard enthalpy and Gibbs free energy change of reaction;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2007;6. Chemical reactions;6.4;6.4. Determination of standard enthalpy and Gibbs free energy change of reaction;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2007;6. Chemical reactions;6.5;6.5. Determination of standard enthalpy and Gibbs free energy change of reaction;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2007;6. Chemical reactions;6.6;6.6. Calculation of heat exchange;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2007;6. Chemical reactions;6.7;6.7. Calculation of change in entropy;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2007;6. Chemical reactions;6.8;6.8. Calculation of standard enthalpy change and Gibbs free energy change;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2007;6. Chemical reactions;6.9;6.9. Calculation of standard enthalpy change and Gibbs free energy change;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.1;7.1. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.10;7.10. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.11;7.11. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.12;7.12. Evaluation of beta and K for nitrogen gas;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.13;7.13. Calculation of temperature change and entropy change of water;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.14;7.14. Estimation of change in entropy and enthalpy;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.15;7.15. Calculation of percentage change in volume;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.16;7.16. Determination of enthalpy and entropy change;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.17;7.17. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.18;7.18. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.19;7.19. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.2;7.2. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.20;7.20. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.21;7.21. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.22;7.22. Calculation of volume expansivity and isothermal compressibility;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.23;7.23. Estimation of specific heat capacity;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.24;7.24. Estimation of specific heat capacity;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.25;7.25. Calculation of volume expansivity and isothermal compressibility;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.26;7.26. Calculation of mean Joule Thomson coefficient;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.27;7.27. Estimation of Joule Thomson coefficient;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.28;7.28. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.29;7.29. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.3;7.3. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.30;7.30. Calculation of pressure;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.31;7.31. Calculation of enthalpy change and entropy change;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.32;7.32. Estimation of ratio of temperature change and pressure change;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.33;7.33. Determination of boiling point of water;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.34;7.34. Calculation of enthalpy and entropy of vaporization of water;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.35;7.35. Estimation of heat of vaporization of water;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.36;7.36. Calculation of latent heat of vaporization;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.37;7.37. Determination of temperature dependence;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.38;7.38. Calculation of fugacity of water;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.39;7.39. Estimation of fugacity of saturated steam;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.4;7.4. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.40;7.40. Estimation of fugacity of steam;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.41;7.41. Determination of fugacities at two states;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.5;7.5. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.6;7.6. Estimation of entropy change;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.7;7.7. Determination of work done;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.8;7.8. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2006;7. Thermodynamic property relations of pure substance;7.9;7.9. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2276;8. Thermodynamic Cycles;8.1;8.1. Calculation of work done;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2276;8. Thermodynamic Cycles;8.10;8.10. Determination of temperature of air;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2276;8. Thermodynamic Cycles;8.2;8.2. Calculation of efficiency of Rankine cycle;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2276;8. Thermodynamic Cycles;8.3;8.3. Calculatrion of COP of carnot refrigerator and heat rejected;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2276;8. Thermodynamic Cycles;8.4;8.4. Calculation of minimum power required;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2276;8. Thermodynamic Cycles;8.5;8.5. Determination of COP and power required;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2276;8. Thermodynamic Cycles;8.6;8.6. Determination of maximum refrigeration effect;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2276;8. Thermodynamic Cycles;8.7;8.7. Determination of refrigeration effect power consumed and COP of refrigerator;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2276;8. Thermodynamic Cycles;8.8;8.8. Calculation of amount of air;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2276;8. Thermodynamic Cycles;8.9;8.9. Calculation of amount of air and temperature;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.1;10.1. Determination of expression for residual enthalpy internal energy and Gibbs free energy;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.10;10.10. Determination of work done and the exit temperature;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.11;10.11. Calculation of temperature and pressure;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.12;10.12. Calculation of change of internal energy enthalpy entropy and exergy;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.13;10.13. Calculation of change in enthalpy;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.14;10.14. Calculation of final temperature;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.15;10.15. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.16;10.16. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.17;10.17. Determination of work done and the exit temperature;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.18;10.18. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.19;10.19. Calculation of molar volume and fugacity;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.2;10.2. Preparation of fugacity and fugacity coefficient;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.20;10.20. Calculation of enthalpy and entropy change;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.21;10.21. Calculation of fugacity;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.22;10.22. Calculation of enthalpy change;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.23;10.23. Calculation of fugacity of water vapour;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.24;10.24. Determination of change in internal energy;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.25;10.25. Calculation of enthalpy and entropy change;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.26;10.26. Calculation of final temperature and pressure;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.27;10.27. Calculation of vapour pressure;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.28;10.28. Determination of vapour pressure;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.3;10.3. Calculation of enthalpy entropy and internal energy change;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.4;10.4. Calculation of molar heat capacity;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.5;10.5. Calculation of final temperature after expansion;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.6;10.6. Calculation of fugacity of liquid benzene;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.7;10.7. Calculation of molar enthalpy;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.8;10.8. Determination of second and third virial coefficients and fugacity;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2231;10. Residual Properties by Equations of State;10.9;10.9. Determination of second and third virial coefficients;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2233;11. Properties of a Component in a Mixture;11.1;11.1. Determination of volumes of ethanol and water;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2233;11. Properties of a Component in a Mixture;11.10;11.10. Calculation of fugacity 0f the mixture;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2233;11. Properties of a Component in a Mixture;11.11;11.11. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2233;11. Properties of a Component in a Mixture;11.12;11.12. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2233;11. Properties of a Component in a Mixture;11.13;11.13. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2233;11. Properties of a Component in a Mixture;11.2;11.2. Developing an expression;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2233;11. Properties of a Component in a Mixture;11.3;11.3. Determination of partial molar volume;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2233;11. Properties of a Component in a Mixture;11.4;11.4. Calculation of enthalpies;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2233;11. Properties of a Component in a Mixture;11.5;11.5. Developing an expression and calculation for enthalpy change of mixture;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2233;11. Properties of a Component in a Mixture;11.6;11.6. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2233;11. Properties of a Component in a Mixture;11.7;11.7. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2233;11. Properties of a Component in a Mixture;11.8;11.8. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2233;11. Properties of a Component in a Mixture;11.9;11.9. Calculation of minimum work required;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2237;12. Partial Molar Volume and Enthalpy from Experimental Data;12.1;12.1. Calculation of partial molar volume;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2237;12. Partial Molar Volume and Enthalpy from Experimental Data;12.2;12.2. Determination of volume of the mixture;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2237;12. Partial Molar Volume and Enthalpy from Experimental Data;12.3;12.3. Determination of volumes;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2237;12. Partial Molar Volume and Enthalpy from Experimental Data;12.4;12.4. Determination of partial molar volumes;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2237;12. Partial Molar Volume and Enthalpy from Experimental Data;12.5;12.5. Determination of enthalpy;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2238;13. Fugacity of a Component in a Mixture by Equations of State;13.1;13.1. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2238;13. Fugacity of a Component in a Mixture by Equations of State;13.2;13.2. Caculation of fugacity coefficients;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2238;13. Fugacity of a Component in a Mixture by Equations of State;13.3;13.3. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2238;13. Fugacity of a Component in a Mixture by Equations of State;13.4;13.4. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2238;13. Fugacity of a Component in a Mixture by Equations of State;13.5;13.5. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2238;13. Fugacity of a Component in a Mixture by Equations of State;13.6;13.6. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2238;13. Fugacity of a Component in a Mixture by Equations of State;13.7;13.7. Calculation of fugacity coefficients;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.1;14.1. Determination of expression for activity coefficients;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.10;14.10. Comparision of Margules and van Laar eqations;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.11;14.11. Calculation of activity coefficients;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.12;14.12. Calculation of the value of activity coefficients;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.13;14.13. Calculation of the value of activity coefficients;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.14;14.14. Calculation of the value of activity coefficients;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.15;14.15. Calculation of the value of activity coefficients;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.16;14.16. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.17;14.17. Calculation of pressure;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.18;14.18. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.19;14.19. Determination of enthalpy;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.2;14.2. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.20;14.20. Determination of an expression;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.21;14.21. Calculation of enthalpy entropy and Gibbs free energy;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.22;14.22. Determination of Gibbs free energy and enthalpy change;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.3;14.3. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.4;14.4. Determination of value of Gibbs free energy change and enthalpy change;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.5;14.5. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.6;14.6. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.7;14.7. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.8;14.8. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2240;14. Activity Coefficients Models for Liquid Mixtures;14.9;14.9. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.1;15.1. Calculation of number of moles in liquid and vapour phase;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.10;15.10. Determination of vapour and liquid phase composition;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.11;15.11. Calculation of temperature;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.12;15.12. Determination of number of moles in liquid and vapour phase;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.13;15.13. Determination of vapour and liquid phase composition;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.14;15.14. Preparation of table having composition and pressure data;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.15;15.15. Calculation of DPT and BPT;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.16;15.16. Calculation of pressure;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.17;15.17. Calculation of van Laar activity coefficient parameters;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.18;15.18. Prediction of azeotrrope formation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.19;15.19. Tabulation of activity coefficients relative volatility and compositions;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.2;15.2. Calculation of pressure temperature and composition;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.20;15.20. Tabulation of partial pressure and total pressure data of components;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.21;15.21. Determination of azeotrope formation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.22;15.22. Tabulation of pressure and composition data;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.23;15.23. Determination of van Laar parameters;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.3;15.3. Calculation of pressure temperature and composition;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.4;15.4. Calculation of pressure and composition;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.5;15.5. Calculation of pressure temperature and composition;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.6;15.6. Determinatin of DPT and BPT;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.7;15.7. Determination of range of temperature for which two phase exists;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.8;15.8. Calculation of DPT and BPT;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2277;15. Vapour Liquid Equilibria;15.9;15.9. Calculation of range of pressure for which two phase exists;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2267;16. Other Phase Equilibria;16.1;16.1. Determination of solubility;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2267;16. Other Phase Equilibria;16.10;16.10. Determination of boiling point elevation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2267;16. Other Phase Equilibria;16.11;16.11. Determination of osmotic pressure;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2267;16. Other Phase Equilibria;16.12;16.12. Determination of pressure;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2267;16. Other Phase Equilibria;16.13;16.13. Determination of amount of precipitate;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2267;16. Other Phase Equilibria;16.14;16.14. Calculation of pressure;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2267;16. Other Phase Equilibria;16.2;16.2. Determination of solubility;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2267;16. Other Phase Equilibria;16.3;16.3. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2267;16. Other Phase Equilibria;16.4;16.4. Determination of composition;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2267;16. Other Phase Equilibria;16.5;16.5. Determination of equilibrium composition;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2267;16. Other Phase Equilibria;16.6;16.6. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2267;16. Other Phase Equilibria;16.7;16.7. Determination of freezing point depression;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2267;16. Other Phase Equilibria;16.8;16.8. Determination of freezing point;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2267;16. Other Phase Equilibria;16.9;16.9. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.1;17.1. Proving a mathematical relation;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.10;17.10. Tabulation of equilibrium constant values;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.11;17.11. Determination of mean standard enthalpy of reaction;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.12;17.12. Derivation of expression for enthalpy of reaction;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.13;17.13. Determination of equilibrium composition;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.14;17.14. Determination of equilibrium composition;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.15;17.15. Determination of the;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.16;17.16. Calculation of the value of Gibbs free energy;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.17;17.17. Calculation of nu;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.18;17.18. Determination of value of the equilibrium constant;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.19;17.19. Determination of the value of equilibrium constant;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.2;17.2. Determination of number of moles;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.20;17.20. Calculation of standard equilibrium cell voltage;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.21;17.21. Calculation of number of chemical reactions;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.22;17.22. Calculation of number of chemical reactions;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.23;17.23. Calculation of equilibrium composition;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.24;17.24. Determination of number of moles;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.3;17.3. Determination of equilibrium composition;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.4;17.4. Determination of the value of equilibrium constant;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.5;17.5. Determination of mole fraction;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.6;17.6. Determination of number of moles;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.7;17.7. Calculation of mole fraction;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.8;17.8. Calculation of heat exchange;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2269;17. Chemical Reactions Equilibria;17.9;17.9. Dtermination of heat of reaction;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2270;18. Adiabatic Reaction Temperature;18.1;18.1. Calculation of heat transfer;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2270;18. Adiabatic Reaction Temperature;18.2;18.2. Calculation of adiabatic flame temperature;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2270;18. Adiabatic Reaction Temperature;18.3;18.3. Calculation of mole fraction and average heat capacity;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2270;18. Adiabatic Reaction Temperature;18.4;18.4. Determination of adiabatic flame temperature;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2270;18. Adiabatic Reaction Temperature;18.5;18.5. Calculation of conversion;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2270;18. Adiabatic Reaction Temperature;18.6;18.6. Calculation of maximum pressure;correct;runtime; -770;Chemical Engineering Thermodynamics(P. Ahuja);2270;18. Adiabatic Reaction Temperature;18.7;18.7. Calculation of number of moles;correct;runtime; -773;Control Systems(S. Ghosh);1899;2. Laplace Transform and Matrix Algebra;2.01.01;2.01.01. laplace;correct;runtime; -773;Control Systems(S. Ghosh);1899;2. Laplace Transform and Matrix Algebra;2.01.02;2.01.02. laplace;correct;runtime; -773;Control Systems(S. Ghosh);1899;2. Laplace Transform and Matrix Algebra;2.01.03;2.01.03. laplace;correct;runtime; -773;Control Systems(S. Ghosh);1899;2. Laplace Transform and Matrix Algebra;2.03;2.03. value theorem;error;runtime; -773;Control Systems(S. Ghosh);1899;2. Laplace Transform and Matrix Algebra;2.04;2.04. ilaplace;error;runtime; -773;Control Systems(S. Ghosh);1899;2. Laplace Transform and Matrix Algebra;2.05.01;2.05.01. laplace;correct;runtime; -773;Control Systems(S. Ghosh);1899;2. Laplace Transform and Matrix Algebra;2.05.02;2.05.02. laplace;correct;runtime; -773;Control Systems(S. Ghosh);1899;2. Laplace Transform and Matrix Algebra;2.06;2.06. laplace;correct;runtime; -773;Control Systems(S. Ghosh);1899;2. Laplace Transform and Matrix Algebra;2.07;2.07. laplace;correct;runtime; -773;Control Systems(S. Ghosh);1899;2. Laplace Transform and Matrix Algebra;2.11;2.11. value theorem;error;runtime; -773;Control Systems(S. Ghosh);1899;2. Laplace Transform and Matrix Algebra;2.12;2.12. ilaplace;error;runtime; -773;Control Systems(S. Ghosh);1899;2. Laplace Transform and Matrix Algebra;2.13;2.13. ilaplace;error;runtime; -773;Control Systems(S. Ghosh);1900;3. Transfer Function;3.02;3.02. laplace;correct;runtime; -773;Control Systems(S. Ghosh);1900;3. Transfer Function;3.03;3.03. laplace;correct;runtime; -773;Control Systems(S. Ghosh);1900;3. Transfer Function;3.04;3.04. laplace;error;runtime; -773;Control Systems(S. Ghosh);1900;3. Transfer Function;3.15;3.15. laplace;correct;runtime; -773;Control Systems(S. Ghosh);1900;3. Transfer Function;3.16;3.16. laplace;correct;runtime; -773;Control Systems(S. Ghosh);1900;3. Transfer Function;3.17;3.17. laplace;correct;runtime; -773;Control Systems(S. Ghosh);1900;3. Transfer Function;3.18;3.18. laplace;correct;runtime; -773;Control Systems(S. Ghosh);1900;3. Transfer Function;3.19;3.19. laplace;error;runtime; -773;Control Systems(S. Ghosh);1900;3. Transfer Function;3.23;3.23. laplace;error;runtime; -773;Control Systems(S. Ghosh);1901;4. Control system Components;4.01;4.01. laplace;correct;runtime; -773;Control Systems(S. Ghosh);1901;4. Control system Components;4.02;4.02. laplace;correct;runtime; -773;Control Systems(S. Ghosh);1901;4. Control system Components;4.03;4.03. laplace;correct;runtime; -773;Control Systems(S. Ghosh);1901;4. Control system Components;4.04;4.04. laplace;correct;runtime; -773;Control Systems(S. Ghosh);1901;4. Control system Components;4.05;4.05. laplace;correct;runtime; -773;Control Systems(S. Ghosh);1902;6. Control system Components;6.01;6.01. syslin;error;runtime; -773;Control Systems(S. Ghosh);1902;6. Control system Components;6.02;6.02. syslin;error;runtime; -773;Control Systems(S. Ghosh);1902;6. Control system Components;6.03;6.03. syslin;error;runtime; -773;Control Systems(S. Ghosh);1902;6. Control system Components;6.04;6.04. syslin;error;runtime; -773;Control Systems(S. Ghosh);1902;6. Control system Components;6.05;6.05. syslin;error;runtime; -773;Control Systems(S. Ghosh);1902;6. Control system Components;6.06;6.06. syslin;error;runtime; -773;Control Systems(S. Ghosh);1902;6. Control system Components;6.07;6.07. syslin;error;runtime; -773;Control Systems(S. Ghosh);1902;6. Control system Components;6.08;6.08. syslin;error;runtime; -773;Control Systems(S. Ghosh);1902;6. Control system Components;6.09;6.09. syslin;error;runtime; -773;Control Systems(S. Ghosh);1902;6. Control system Components;6.10;6.10. syslin;error;runtime; -773;Control Systems(S. Ghosh);1902;6. Control system Components;6.11;6.11. syslin;error;runtime; -773;Control Systems(S. Ghosh);1902;6. Control system Components;6.12;6.12. syslin;error;runtime; -773;Control Systems(S. Ghosh);1902;6. Control system Components;6.13;6.13. syslin;error;runtime; -773;Control Systems(S. Ghosh);1902;6. Control system Components;6.14;6.14. syslin;error;runtime; -773;Control Systems(S. Ghosh);1902;6. Control system Components;6.15;6.15. syslin;error;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.02;8.02. Velocity;error;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.03.01;8.03.01. coefficient;error;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.03.02;8.03.02. coefficient;error;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.03.03;8.03.03. coefficient;error;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.03.04;8.03.04. coefficient;error;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.04;8.04. coefficient;correct;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.05;8.05. coefficient;error;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.06;8.06. coefficient;correct;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.07;8.07. coefficient;correct;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.08;8.08. coefficient;error;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.09;8.09. coefficient;error;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.10;8.10. coefficient;error;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.11;8.11. coefficient;error;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.12;8.12. coefficient;correct;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.13;8.13. coefficient;correct;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.14;8.14. coefficient;error;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.15;8.15. coefficient;error;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.16;8.16. coefficient;correct;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.17;8.17. coefficient;error;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.19;8.19. coefficient;correct;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.20;8.20. coefficient;error;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.23.01;8.23.01. coefficient;error;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.23.02;8.23.02. coefficient;error;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.23.03;8.23.03. coefficient;error;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.24;8.24. coefficient;error;runtime; -773;Control Systems(S. Ghosh);1907;8. Time Domain Analysis of Control Systems;8.32;8.32. coefficient;error;runtime; -773;Control Systems(S. Ghosh);1908;9. Feedback Characteristics of control Systems;9.01;9.01. calculates;correct;runtime; -773;Control Systems(S. Ghosh);1908;9. Feedback Characteristics of control Systems;9.02;9.02. calculates;error;runtime; -773;Control Systems(S. Ghosh);1908;9. Feedback Characteristics of control Systems;9.03;9.03. calculates;correct;runtime; -773;Control Systems(S. Ghosh);1908;9. Feedback Characteristics of control Systems;9.04;9.04. calculates;error;runtime; -773;Control Systems(S. Ghosh);1908;9. Feedback Characteristics of control Systems;9.05;9.05. calculates;error;runtime; -773;Control Systems(S. Ghosh);1908;9. Feedback Characteristics of control Systems;9.06;9.06. calculates;correct;runtime; -773;Control Systems(S. Ghosh);1908;9. Feedback Characteristics of control Systems;9.07;9.07. calculates;error;runtime; -773;Control Systems(S. Ghosh);1908;9. Feedback Characteristics of control Systems;9.08;9.08. calculates;error;runtime; -773;Control Systems(S. Ghosh);1908;9. Feedback Characteristics of control Systems;9.09;9.09. calculates;correct;runtime; -773;Control Systems(S. Ghosh);1908;9. Feedback Characteristics of control Systems;9.10;9.10. calculates;error;runtime; -773;Control Systems(S. Ghosh);1908;9. Feedback Characteristics of control Systems;9.11;9.11. calculates;error;runtime; -773;Control Systems(S. Ghosh);1910;10. Stability;10.02.01;10.02.01. equation;correct;runtime; -773;Control Systems(S. Ghosh);1910;10. Stability;10.02.02;10.02.02. equation;correct;runtime; -773;Control Systems(S. Ghosh);1910;10. Stability;10.02.03;10.02.03. equation;correct;runtime; -773;Control Systems(S. Ghosh);1910;10. Stability;10.03;10.03. equation;correct;runtime; -773;Control Systems(S. Ghosh);1910;10. Stability;10.04;10.04. equation;correct;runtime; -773;Control Systems(S. Ghosh);1910;10. Stability;10.05.01;10.05.01. equation;correct;runtime; -773;Control Systems(S. Ghosh);1910;10. Stability;10.05.02;10.05.02. equation;correct;runtime; -773;Control Systems(S. Ghosh);1910;10. Stability;10.06;10.06. equation;correct;runtime; -773;Control Systems(S. Ghosh);1910;10. Stability;10.07;10.07. equation;error;runtime; -773;Control Systems(S. Ghosh);1910;10. Stability;10.08;10.08. equation;correct;runtime; -773;Control Systems(S. Ghosh);1910;10. Stability;10.09;10.09. equation;correct;runtime; -773;Control Systems(S. Ghosh);1910;10. Stability;10.10;10.10. equation;error;runtime; -773;Control Systems(S. Ghosh);1910;10. Stability;10.11;10.11. equation;error;runtime; -773;Control Systems(S. Ghosh);1910;10. Stability;10.12;10.12. equation;error;runtime; -773;Control Systems(S. Ghosh);1910;10. Stability;10.13;10.13. equation;correct;runtime; -773;Control Systems(S. Ghosh);1910;10. Stability;10.14;10.14. equation;error;runtime; -773;Control Systems(S. Ghosh);1910;10. Stability;10.15;10.15. equation;error;runtime; -773;Control Systems(S. Ghosh);1910;10. Stability;10.16;10.16. equation;error;runtime; -773;Control Systems(S. Ghosh);1910;10. Stability;11.08;11.08. value;correct;runtime; -773;Control Systems(S. Ghosh);1910;10. Stability;6.0;6.0. coefficient;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/773/CH6/EX6.0/: PATH DOES NOT EXIST -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.01;11.01. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.02;11.02. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.03;11.03. value;error;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.04;11.04. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.05;11.05. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.06;11.06. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.08;11.08. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.09;11.09. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.10;11.10. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.11;11.11. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.12;11.12. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.13;11.13. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.14;11.14. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.15;11.15. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.16;11.16. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.17;11.17. value;error;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.19;11.19. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.20;11.20. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.21;11.21. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.22;11.22. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.23;11.23. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.25;11.25. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.26;11.26. value;correct;runtime; -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.27;11.27. value;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -773;Control Systems(S. Ghosh);1912;11. Root Locus Method;11.28;11.28. value;correct;runtime; -773;Control Systems(S. Ghosh);1914;12. Frequency Domain Analysis;12.01;12.01. denominator polynomial;correct;runtime; -773;Control Systems(S. Ghosh);1914;12. Frequency Domain Analysis;12.02;12.02. denominator polynomial;correct;runtime; -773;Control Systems(S. Ghosh);1914;12. Frequency Domain Analysis;12.03;12.03. denominator polynomial;correct;runtime; -773;Control Systems(S. Ghosh);1914;12. Frequency Domain Analysis;12.04;12.04. denominator polynomial;correct;runtime; -773;Control Systems(S. Ghosh);1914;12. Frequency Domain Analysis;12.05;12.05. denominator polynomial;error;runtime; -773;Control Systems(S. Ghosh);1915;13. Bode Plot;13.01;13.01. polynomial;correct;runtime; -773;Control Systems(S. Ghosh);1915;13. Bode Plot;13.02;13.02. polynomial;correct;runtime; -773;Control Systems(S. Ghosh);1915;13. Bode Plot;13.03;13.03. polynomial;correct;runtime; -773;Control Systems(S. Ghosh);1915;13. Bode Plot;13.04;13.04. polynomial;correct;runtime; -773;Control Systems(S. Ghosh);1915;13. Bode Plot;13.05;13.05. polynomial;correct;runtime; -773;Control Systems(S. Ghosh);1915;13. Bode Plot;13.06;13.06. polynomial;correct;runtime; -773;Control Systems(S. Ghosh);1916;15. Nyquist Plot;15.01;15.01. system;correct;runtime; -773;Control Systems(S. Ghosh);1916;15. Nyquist Plot;15.02;15.02. system;correct;runtime; -773;Control Systems(S. Ghosh);1916;15. Nyquist Plot;15.03;15.03. system;correct;runtime; -773;Control Systems(S. Ghosh);1916;15. Nyquist Plot;15.04;15.04. system;correct;runtime; -773;Control Systems(S. Ghosh);1916;15. Nyquist Plot;15.05;15.05. system;correct;runtime; -773;Control Systems(S. Ghosh);1916;15. Nyquist Plot;15.06;15.06. system;correct;runtime; -773;Control Systems(S. Ghosh);1916;15. Nyquist Plot;15.07;15.07. system;correct;runtime; -773;Control Systems(S. Ghosh);1916;15. Nyquist Plot;15.08;15.08. system;correct;runtime; -773;Control Systems(S. Ghosh);1917;17. State Variable Approach;17.03;17.03. funtion;error;runtime; -773;Control Systems(S. Ghosh);1917;17. State Variable Approach;17.04;17.04. funtion;correct;runtime; -773;Control Systems(S. Ghosh);1917;17. State Variable Approach;17.06;17.06. funtion;correct;runtime; -773;Control Systems(S. Ghosh);1917;17. State Variable Approach;17.07;17.07. funtion;correct;runtime; -773;Control Systems(S. Ghosh);1917;17. State Variable Approach;17.08;17.08. funtion;correct;runtime; -773;Control Systems(S. Ghosh);1917;17. State Variable Approach;17.09;17.09. funtion;correct;runtime; -773;Control Systems(S. Ghosh);1917;17. State Variable Approach;17.10;17.10. funtion;correct;runtime; -773;Control Systems(S. Ghosh);1917;17. State Variable Approach;17.11;17.11. funtion;error;runtime; -773;Control Systems(S. Ghosh);1917;17. State Variable Approach;17.12;17.12. funtion;error;runtime; -773;Control Systems(S. Ghosh);1917;17. State Variable Approach;17.13;17.13. funtion;correct;runtime; -773;Control Systems(S. Ghosh);1917;17. State Variable Approach;17.14;17.14. funtion;correct;runtime; -773;Control Systems(S. Ghosh);1917;17. State Variable Approach;17.16;17.16. funtion;correct;runtime; -773;Control Systems(S. Ghosh);1917;17. State Variable Approach;17.17;17.17. funtion;correct;runtime; -773;Control Systems(S. Ghosh);1917;17. State Variable Approach;17.18;17.18. funtion;correct;runtime; -773;Control Systems(S. Ghosh);1917;17. State Variable Approach;17.19;17.19. funtion;error;runtime; -773;Control Systems(S. Ghosh);1917;17. State Variable Approach;17.20;17.20. funtion;correct;runtime; -773;Control Systems(S. Ghosh);1917;17. State Variable Approach;17.21;17.21. funtion;correct;runtime; -773;Control Systems(S. Ghosh);1917;17. State Variable Approach;17.22;17.22. funtion;correct;runtime; -773;Control Systems(S. Ghosh);1917;17. State Variable Approach;17.23;17.23. funtion;error;runtime; -773;Control Systems(S. Ghosh);1918;18. Digital Control Systems;18.01.01;18.01.01. symsum;error;runtime; -773;Control Systems(S. Ghosh);1918;18. Digital Control Systems;18.08.01;18.08.01. symsum;error;runtime; -779;Engineering Thermodynamics(P. K. Nag);2388;1. Introduction;1.1;1.1. Calculting gas pressure;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2388;1. Introduction;1.2;1.2. Calculating inlet and exhaust pressure in pascals;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2388;1. Introduction;1.3;1.3. Converting various readings of pressure in kPa;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2388;1. Introduction;1.4;1.4. Calculating the depth of earth atmosphere required to produce given pressure;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2388;1. Introduction;1.5;1.5. Determining net upward force experienced by astrounaut;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2389;2. Temperature;2.1;2.1. Calculations on straight bore thermometer;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2389;2. Temperature;2.2;2.2. Calculation of thermometer reading;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2389;2. Temperature;2.3;2.3. Calculting temperature for given resistance;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2390;3. Work and heat transfer;3.1;3.1. Calculation of magnitude of velocity;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2390;3. Work and heat transfer;3.10;3.10. Calculation of work done by piston cylinder system;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2390;3. Work and heat transfer;3.11;3.11. Calculation of work done in PV cycle;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2390;3. Work and heat transfer;3.2;3.2. Calculation of work done on atmosphere by balloon;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2390;3. Work and heat transfer;3.3;3.3. Calculation of work done by atmosphere;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2390;3. Work and heat transfer;3.4;3.4. Calculation of net work transfer for the system;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2390;3. Work and heat transfer;3.5;3.5. Calculation of net rate of work transfer from the gas to piston;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2390;3. Work and heat transfer;3.6;3.6. Calculation of dimension of cylindrical furnace;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2390;3. Work and heat transfer;3.7;3.7. Calculations on alluminium furnace;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2390;3. Work and heat transfer;3.8;3.8. Calculation on work required for automization;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2390;3. Work and heat transfer;3.9;3.9. Calcultion on electric motor;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2391;4. First law of thermodynamics;4.1;4.1. Calculation of change in internal energy of gas;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2391;4. First law of thermodynamics;4.2;4.2. Calculations on PV cycle;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2391;4. First law of thermodynamics;4.3;4.3. Calculation of net rate of work output in a piston and cylinder machine;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2391;4. First law of thermodynamics;4.4;4.4. Thermodynamics calculations of a substance with given internal energy function;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2391;4. First law of thermodynamics;4.5;4.5. Thermodynamics calculations of a cylinder with given internal energy function;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2391;4. First law of thermodynamics;4.6;4.6. Calculation on PV cycle of a stationary fluid system;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2392;5. First law applied to flow processes;5.1;5.1. Calculation on an air compressor;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2392;5. First law applied to flow processes;5.2;5.2. Calculations across a control volume;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2392;5. First law applied to flow processes;5.3;5.3. Calculation of steam flow rate between a boiler and turbine;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2392;5. First law applied to flow processes;5.4;5.4. Calculation of quantity of steam supplied to a heater;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2392;5. First law applied to flow processes;5.5;5.5. Calculations across a heat exchanger;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2392;5. First law applied to flow processes;5.6;5.6. Calculations on a gas turbine;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2392;5. First law applied to flow processes;5.7;5.7. Calculation of velocity of exhaust jet;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2392;5. First law applied to flow processes;5.9;5.9. Thermodynamics calculations of air with given internal energy function;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2393;6. Second law of thermodynamics;6.1;6.1. Calculation of least rate of heat rejection by a cyclic heat engine;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2393;6. Second law of thermodynamics;6.2;6.2. Calculation of least power for a domestic food freezer;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2393;6. Second law of thermodynamics;6.4;6.4. Calculations on a carnot engine;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2393;6. Second law of thermodynamics;6.5;6.5. Calculations on reversible heat engine;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2393;6. Second law of thermodynamics;6.7;6.7. Determination of heat multiplication factor;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2393;6. Second law of thermodynamics;6.8;6.8. Estimation of minimum collector area of solar area;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2393;6. Second law of thermodynamics;6.9;6.9. Determination of minimum solar panel area;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2407;7. Entropy;7.1;7.1. Calculation of entropy change of water;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2407;7. Entropy;7.10;7.10. Heat calculation for a reversible adiabatic compression cycle;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2407;7. Entropy;7.11;7.11. Establishment of direction of flow in a insulated duct;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2407;7. Entropy;7.12;7.12. Determination of possibility of a hypothetical device thermodynamically;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2407;7. Entropy;7.13;7.13. Calculation of heat transfer through a room;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2407;7. Entropy;7.2;7.2. Entropy change calculations of a heat reservoir and universe;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2407;7. Entropy;7.3;7.3. Entropy change calculations between ice and universe;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2407;7. Entropy;7.5;7.5. Calculation of entropy change for a gas;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2407;7. Entropy;7.8;7.8. Calculation of highest temperature in three body system of constant heat capacity;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2407;7. Entropy;7.9;7.9. Calculation of mxaximum amount of work for a system with given heat capacity;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2408;8. Available energy Availability and irreversibility;8.1;8.1. Calculation of fraction of available energy in heat transfer;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2408;8. Available energy Availability and irreversibility;8.10;8.10. Calculation of rate of energy lossof gas flowing through a pipe;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2408;8. Available energy Availability and irreversibility;8.11;8.11. Energy calculation on mixing of stream of water;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2408;8. Available energy Availability and irreversibility;8.12;8.12. Calculations on efficiency of burning of fuel;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2408;8. Available energy Availability and irreversibility;8.14;8.14. Calculation of power and efficiency in a compressor;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2408;8. Available energy Availability and irreversibility;8.15;8.15. Determination of energy of vaccume;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2408;8. Available energy Availability and irreversibility;8.16;8.16. Calculation of energy produced in chilling process of fish;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2408;8. Available energy Availability and irreversibility;8.17;8.17. Thermodynamic calculation on air;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2408;8. Available energy Availability and irreversibility;8.18;8.18. Energy calculation of steam through turbine;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2408;8. Available energy Availability and irreversibility;8.19;8.19. Availability calculations on a furnace;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2408;8. Available energy Availability and irreversibility;8.2;8.2. Calculation of increase in available energy in a steam boiler;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2408;8. Available energy Availability and irreversibility;8.20;8.20. Energy calculation of air through compressor;error;runtime; -779;Engineering Thermodynamics(P. K. Nag);2408;8. Available energy Availability and irreversibility;8.3;8.3. Calculation of available energy in water;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2408;8. Available energy Availability and irreversibility;8.4;8.4. Calculation of decrease in available energy in water;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2408;8. Available energy Availability and irreversibility;8.5;8.5. Calculation of the final RPM of the flywheel;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2408;8. Available energy Availability and irreversibility;8.6;8.6. Energy calculations on air;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2408;8. Available energy Availability and irreversibility;8.7;8.7. Energy calculation of air through a turbine;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2408;8. Available energy Availability and irreversibility;8.8;8.8. Energy calculation on a air preheater;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2408;8. Available energy Availability and irreversibility;8.9;8.9. Calculation of rate of energy degradation of gas flowing through a pipe;error;runtime; -779;Engineering Thermodynamics(P. K. Nag);2413;9. Properties of pure substances;9.1;9.1. Calculations on vapourization of steam;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2413;9. Properties of pure substances;9.10;9.10. Finding the quantity of steam in pipeline;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2413;9. Properties of pure substances;9.11;9.11. Calculation of heat transferred in a steam bolier;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2413;9. Properties of pure substances;9.12;9.12. Calculations on heat transfer in a cylinder and piston system;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2413;9. Properties of pure substances;9.13;9.13. Energy calculations in an insulated vessel;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2413;9. Properties of pure substances;9.14;9.14. Energy calculation on steam passing through turbine;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2413;9. Properties of pure substances;9.15;9.15. Energy calculation on a steam turbine;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2413;9. Properties of pure substances;9.16;9.16. Determination of energy of different phases of water;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2413;9. Properties of pure substances;9.17;9.17. Calculations on a heat exchanger;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2413;9. Properties of pure substances;9.18;9.18. Estimation of max cooling rate of a system;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2413;9. Properties of pure substances;9.3;9.3. Finding the entropy and enthalpy of steam;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2413;9. Properties of pure substances;9.4;9.4. Finding the entropy and enthalpyand volume of steam;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2413;9. Properties of pure substances;9.5;9.5. Calculations of thermodynamics properties of mixture of air and steam;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2413;9. Properties of pure substances;9.6;9.6. energy calculation on cooling of steam;error;runtime; -779;Engineering Thermodynamics(P. K. Nag);2413;9. Properties of pure substances;9.7;9.7. energy calculation on expansion of steam;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2413;9. Properties of pure substances;9.8;9.8. Determination of velocity of steam leaving through steam;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2413;9. Properties of pure substances;9.9;9.9. Calculation of moisture of steam;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2414;10. Properties of gases and gas mixture;10.1;10.1. Finding the final temperature and heat transferred in a fluid;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2414;10. Properties of gases and gas mixture;10.11;10.11. Calculation of work and heat transfer on a path;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2414;10. Properties of gases and gas mixture;10.12;10.12. Heat calculations over a cycle;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2414;10. Properties of gases and gas mixture;10.13;10.13. Heat calculations on an ideal gas;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2414;10. Properties of gases and gas mixture;10.14;10.14. Calculations on internal combustion engine;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2414;10. Properties of gases and gas mixture;10.15;10.15. Calculations on a mixture of ideal gases;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2414;10. Properties of gases and gas mixture;10.16;10.16. Finding the increase in entropy of gas;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2414;10. Properties of gases and gas mixture;10.17;10.17. Calculations os specific properties of neon;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2414;10. Properties of gases and gas mixture;10.2;10.2. Finding the final temperature and heat transferred in a fluid;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2414;10. Properties of gases and gas mixture;10.3;10.3. Heat calculation on a fluid;error;runtime; -779;Engineering Thermodynamics(P. K. Nag);2414;10. Properties of gases and gas mixture;10.4;10.4. Heat calculation for a reversible adiabatic process;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2414;10. Properties of gases and gas mixture;10.5;10.5. Heat calculations on a reversible polytropic process;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2414;10. Properties of gases and gas mixture;10.6;10.6. Calculation on PV cycle of ideal monoatomic gas;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2414;10. Properties of gases and gas mixture;10.7;10.7. Pressure calculation in a system of two vessels;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2414;10. Properties of gases and gas mixture;10.8;10.8. Heat calculation on a gas in constant volume chamber;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2414;10. Properties of gases and gas mixture;10.9;10.9. Calculation of work done in expansion of a gas;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2415;11. Thermodynamic relations Equilibrium and stability;11.3;11.3. Finding the vapour pressure of benzene;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2415;11. Thermodynamic relations Equilibrium and stability;11.4;11.4. Calculations on vapours of benzene;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2415;11. Thermodynamic relations Equilibrium and stability;11.6;11.6. Thermodynamic calculation on a system of two simple systems;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2416;12. Vapour power cycle;12.1;12.1. Calculation of work required for compression of steam;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2416;12. Vapour power cycle;12.10;12.10. Calculation of oil consumption per day in a factory;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2416;12. Vapour power cycle;12.11;12.11. Calculations on a steam turbine;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2416;12. Vapour power cycle;12.12;12.12. Calculations on a binary vapour cycle;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2416;12. Vapour power cycle;12.2;12.2. Calculations on steam on a cycle;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2416;12. Vapour power cycle;12.3;12.3. Calculation on stem power plant;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2416;12. Vapour power cycle;12.4;12.4. Calculations on steam power plant;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2416;12. Vapour power cycle;12.5;12.5. Calculations on single heater regenerative cycle;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2416;12. Vapour power cycle;12.6;12.6. Calculations on steam power plant;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2416;12. Vapour power cycle;12.7;12.7. Calculations on expansion of steam in a turbine;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2416;12. Vapour power cycle;12.8;12.8. Calculations on steam power plant;error;runtime; -779;Engineering Thermodynamics(P. K. Nag);2416;12. Vapour power cycle;12.9;12.9. Calculations on steam in a chemical plant;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2417;13. Gas power cycle;13.1;13.1. Calculations on otto cycle;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2417;13. Gas power cycle;13.10;13.10. Calculations on air flying through the engine of a turbojet aircraft;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2417;13. Gas power cycle;13.11;13.11. Calculations on a combined GT ST plant;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2417;13. Gas power cycle;13.2;13.2. Calculations on a diesel engine;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2417;13. Gas power cycle;13.3;13.3. Calculations on air standard diesel cycle;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2417;13. Gas power cycle;13.4;13.4. Calculations on air standard dual cycle;error;runtime; -779;Engineering Thermodynamics(P. K. Nag);2417;13. Gas power cycle;13.5;13.5. finding the increase in cycle efficiency of gas turbine plant;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2417;13. Gas power cycle;13.6;13.6. Calculations on gas turbine plant operating on bryton cycle;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2417;13. Gas power cycle;13.7;13.7. Calculations on an ideal bryton cycle;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2417;13. Gas power cycle;13.8;13.8. Calculations on stationary gas turbine;error;runtime; -779;Engineering Thermodynamics(P. K. Nag);2418;14. Refrigeration cycle;14.1;14.1. Finding the power required to drive a cold storage plant;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2418;14. Refrigeration cycle;14.2;14.2. Heat calculations on a refrigerator;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2418;14. Refrigeration cycle;14.3;14.3. Calculations on refrigeration by a simple R 12 plant;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2418;14. Refrigeration cycle;14.4;14.4. Calculations on R 12 vapour compression plant;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2418;14. Refrigeration cycle;14.5;14.5. Calculation on work and COP of two stage refrigeration system;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2418;14. Refrigeration cycle;14.6;14.6. Estimation of COP of refrigeration;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2418;14. Refrigeration cycle;14.7;14.7. Calculations on a aircraft cooling system;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2418;14. Refrigeration cycle;14.8;14.8. Calculations on a vapour compression heat pump;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2418;14. Refrigeration cycle;14.9;14.9. Calculations on air refrigeration system cycle;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2419;15. Psychrometrics;15.1;15.1. Calculations on atmospheric air;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2419;15. Psychrometrics;15.2;15.2. Calculating the humidity of air water mixture;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2419;15. Psychrometrics;15.3;15.3. Calculations on air temperature and mass of water;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2419;15. Psychrometrics;15.4;15.4. Calculations on an air conditioning system;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2419;15. Psychrometrics;15.5;15.5. Calculation on air mixed with RH;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2419;15. Psychrometrics;15.7;15.7. Calculation on the airconditioning of a hall;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2419;15. Psychrometrics;15.8;15.8. Calculations on water into a cooling tower;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2419;15. Psychrometrics;15.9;15.9. Calculations on air flow rate into a cooling tower;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2420;16. Reactive systems;16.10;16.10. Calculations on burning of liquid octane;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2420;16. Reactive systems;16.11;16.11. Calculations on burning of gaseous propane;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2420;16. Reactive systems;16.12;16.12. Determination of chemical energy of phases of water;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2420;16. Reactive systems;16.13;16.13. Calculation on burning of liquid octane;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2420;16. Reactive systems;16.2;16.2. Dissociation calculation on N2O4;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2420;16. Reactive systems;16.3;16.3. Determination of gubbs constant and equillibrium function;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2420;16. Reactive systems;16.5;16.5. Calculation of equillibrium constant;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2420;16. Reactive systems;16.6;16.6. Estimation of Cp of H2O dissociation;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2420;16. Reactive systems;16.7;16.7. Calculations on combustion of unknown hydrocarbon;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2420;16. Reactive systems;16.8;16.8. Determination of heat transfer in per kg mol of a fuel;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2420;16. Reactive systems;16.9;16.9. Calculations on a gasoline engine;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2421;17. Compressible fluid flow;17.1;17.1. Calculation s on flow of air through a duct;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2421;17. Compressible fluid flow;17.2;17.2. Calculations on canonical air diffuser;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2421;17. Compressible fluid flow;17.3;17.3. Calculations on air flow through convergent divergent nozzle;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2421;17. Compressible fluid flow;17.4;17.4. Calculations on pitot tube immersed in a supersonic flow;error;runtime; -779;Engineering Thermodynamics(P. K. Nag);2421;17. Compressible fluid flow;17.5;17.5. Calculations on a CD nozzle operating at off design condition;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2421;17. Compressible fluid flow;17.6;17.6. Calculations on expansion of air through a convergent nozzle;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2421;17. Compressible fluid flow;17.7;17.7. Calculations on an ideal gas undergoing a normal shock;error;runtime; -779;Engineering Thermodynamics(P. K. Nag);2422;18. Gas compressors;18.1;18.1. Calculations on a single reciprocating compressor;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2422;18. Gas compressors;18.10;18.10. Calculations on a rotatry compressor;error;runtime; -779;Engineering Thermodynamics(P. K. Nag);2422;18. Gas compressors;18.2;18.2. Calculations on a single reciprocating air compressor;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2422;18. Gas compressors;18.3;18.3. Calculations on a two stage air compressor with perfect intercoolings;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2422;18. Gas compressors;18.4;18.4. Calculations on a single acting two stage air compressors;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2422;18. Gas compressors;18.5;18.5. Determination of out put power of an air engine;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2422;18. Gas compressors;18.6;18.6. Calculations on a three stage acting reciprocating air compressor;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2422;18. Gas compressors;18.7;18.7. Determining the work input for a vane type compressor;correct;runtime; -779;Engineering Thermodynamics(P. K. Nag);2422;18. Gas compressors;18.8;18.8. Determination of power required to drive the roots blower;error;runtime; -779;Engineering Thermodynamics(P. K. Nag);2422;18. Gas compressors;18.9;18.9. Calculations on a gas turbine utilizing a two stage centrifugal compressor;error;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.1.a;2.1.a. find weight of a body;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.1.b;2.1.b. SOLUTION weight of a body;error;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.10.a;2.10.a. when fahrenheit and celsius temperature equals;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.10.b;2.10.b. SOLUTION fahrenheit and celsius temp equals;error;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.11.a;2.11.a. find change in volume of oil;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.11.b;2.11.b. SOLUTION change in volume of oil;error;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.12.a;2.12.a. find viscosity of oil;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.12.b;2.12.b. SOLUTION viscosity of oil;error;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.13.a;2.13.a. find kinematic and absolute viscosities;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.13.b;2.13.b. SOLUTION kinematic and absolute viscosities;error;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.14.a;2.14.a. find viscosity of oil at 100F;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.14.b;2.14.b. SOLUTION viscosity of oil at 100F;error;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.15.a;2.15.a. find pressure on skin diver SI;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.15.b;2.15.b. SOLUTION pressure on skin diver SI;error;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.16.a;2.16.a. convert gage to absolute pressure SI;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.16.b;2.16.b. SOLUTION gage to absolute pressure SI;error;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.17.a;2.17.a. find oil volume change in SI;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.17.b;2.17.b. SOLUTION oil volume change in SI;error;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.18.a;2.18.a. find absolute viscosity in SI;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.18.b;2.18.b. SOLUTION absolute viscosity in SI;error;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.2.a;2.2.a. find specific weight of body;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.2.b;2.2.b. SOLUTION specific weight of body;error;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.3.a;2.3.a. find specific gravity of air;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.3.b;2.3.b. SOLUTION specific gravity of air;error;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.4.a;2.4.a. find density of body;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.4.b;2.4.b. SOLUTION density of body;error;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.5.a;2.5.a. find pressure on skin diver;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.5.b;2.5.b. SOLUTION pressure on skin diver;error;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.6.a;2.6.a. find height of barometer tube;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.6.b;2.6.b. SOLUTION height of barometer tube;error;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.7.a;2.7.a. convert gage to absolute pressure;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.7.b;2.7.b. SOLUTION gage to absolute pressure;error;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.8.a;2.8.a. find absolute pressure on skin diver;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.8.b;2.8.b. SOLUTION absolute pressure on skin diver;error;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.9.a;2.9.a. find specific weight in SI system;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1980;2. PHYSICAL PROPERTIES OF HYDRAULIC FLUIDS;2.9.b;2.9.b. SOLUTION specific weight in SI system;error;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.1.a;3.1.a. find work done and power delivered;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.1.b;3.1.b. SOLUTION work done and power delivered;error;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.10.a;3.10.a. find pressure available at motor inlet;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.10.b;3.10.b. SOLUTION pressure available at motor inlet;error;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.11.a;3.11.a. find jet velocity and flow rate;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.11.b;3.11.b. SOLUTION jet velocity and flow rate;error;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.12.a;3.12.a. find velocity and flowrate through siphon;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.12.b;3.12.b. SOLUTION velocity and flowrate through siphon;error;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.13.a;3.13.a. determine force and displacement for piston2;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.13.b;3.13.b. SOLUTION force and displacement for piston2;error;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.14.a;3.14.a. find velocity of oil through pipe;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.14.b;3.14.b. SOLUTION velocity of oil through pipe;error;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.15.a;3.15.a. find hydraulic power delivered by pump;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.15.b;3.15.b. SOLUTION hydraulic power delivered by pump;error;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.16.a;3.16.a. find torque delivered by motor SI;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.16.b;3.16.b. SOLUTION torque delivered by motor SI;error;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.17.a;3.17.a. find pressure at hydraulicmotor inlet SI;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.17.b;3.17.b. SOLUTION pressure at hydraulicmotor inlet SI;error;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.2.a;3.2.a. find torque delivered by hydraulic motor;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.2.b;3.2.b. SOLUTION torque delivered by hydraulic motor;error;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.3.a;3.3.a. find input horsepower required by elevator;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.3.b;3.3.b. SOLUTION input horsepower required by elevator;error;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.4.a;3.4.a. find force and energy for jack;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.4.b;3.4.b. SOLUTION force and energy for jack;error;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.5.a;3.5.a. what is output horsepower;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.5.b;3.5.b. SOLUTION output horsepower;error;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.6.a;3.6.a. find load carrying capacity of system;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.6.b;3.6.b. SOLUTION load carrying capacity of system;error;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.7.a;3.7.a. find flow rate and fluid velocity;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.7.b;3.7.b. SOLUTION flow rate and fluid velocity;error;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.8.a;3.8.a. calculate output HP delivered by cylinder;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.8.b;3.8.b. SOLUTION output HP delivered by cylinder;error;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.9.a;3.9.a. calculate efficiency of cylinder assuming leakage;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1982;3. ENERGY AND POWER IN HYDRAULIC SYSTEMS;3.9.b;3.9.b. SOLUTION efficiency of cylinder assuming leakage;error;runtime; -788;Fluid Power With Applications(A. Esposito);2034;4. FRICTIONAL LOSSES IN HYDRAULIC PIPELINES;4.1.a;4.1.a. find reynolds number of hydraulic oil;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2034;4. FRICTIONAL LOSSES IN HYDRAULIC PIPELINES;4.1.b;4.1.b. SOLUTION reynolds number of hydraulic oil;error;runtime; -788;Fluid Power With Applications(A. Esposito);2034;4. FRICTIONAL LOSSES IN HYDRAULIC PIPELINES;4.10.a;4.10.a. find pressure inlet hydraulic motor SI;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2034;4. FRICTIONAL LOSSES IN HYDRAULIC PIPELINES;4.10.b;4.10.b. SOLUTION pressure inlet hydraulic motor SI;error;runtime; -788;Fluid Power With Applications(A. Esposito);2034;4. FRICTIONAL LOSSES IN HYDRAULIC PIPELINES;4.2.a;4.2.a. find reynolds number of oil SI;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2034;4. FRICTIONAL LOSSES IN HYDRAULIC PIPELINES;4.2.b;4.2.b. SOLUTION reynolds number of oil SI;error;runtime; -788;Fluid Power With Applications(A. Esposito);2034;4. FRICTIONAL LOSSES IN HYDRAULIC PIPELINES;4.3.a;4.3.a. find head loss in friction;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2034;4. FRICTIONAL LOSSES IN HYDRAULIC PIPELINES;4.3.b;4.3.b. SOLUTION head loss in friction;error;runtime; -788;Fluid Power With Applications(A. Esposito);2034;4. FRICTIONAL LOSSES IN HYDRAULIC PIPELINES;4.4.a;4.4.a. find head loss in friction SI;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2034;4. FRICTIONAL LOSSES IN HYDRAULIC PIPELINES;4.4.b;4.4.b. SOLUTION head loss in friction SI;error;runtime; -788;Fluid Power With Applications(A. Esposito);2034;4. FRICTIONAL LOSSES IN HYDRAULIC PIPELINES;4.5.a;4.5.a. find friction factor of pipe;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2034;4. FRICTIONAL LOSSES IN HYDRAULIC PIPELINES;4.5.b;4.5.b. SOLUTION friction factor of pipe;error;runtime; -788;Fluid Power With Applications(A. Esposito);2034;4. FRICTIONAL LOSSES IN HYDRAULIC PIPELINES;4.6.a;4.6.a. find head loss across globe valve;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2034;4. FRICTIONAL LOSSES IN HYDRAULIC PIPELINES;4.6.b;4.6.b. SOLUTION head loss across globe valve;error;runtime; -788;Fluid Power With Applications(A. Esposito);2034;4. FRICTIONAL LOSSES IN HYDRAULIC PIPELINES;4.7.a;4.7.a. find head loss across gate valve;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2034;4. FRICTIONAL LOSSES IN HYDRAULIC PIPELINES;4.7.b;4.7.b. SOLUTION head loss across gate valve;error;runtime; -788;Fluid Power With Applications(A. Esposito);2034;4. FRICTIONAL LOSSES IN HYDRAULIC PIPELINES;4.8.a;4.8.a. find equivalent length of globe valve;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2034;4. FRICTIONAL LOSSES IN HYDRAULIC PIPELINES;4.8.b;4.8.b. SOLUTION equivalent length of globe valve;error;runtime; -788;Fluid Power With Applications(A. Esposito);2034;4. FRICTIONAL LOSSES IN HYDRAULIC PIPELINES;4.9.a;4.9.a. find pressure at inlet of hydraulicmotor;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2034;4. FRICTIONAL LOSSES IN HYDRAULIC PIPELINES;4.9.b;4.9.b. SOLUTION pressure at inlet of hydraulicmotor;error;runtime; -788;Fluid Power With Applications(A. Esposito);1984;5. HYDRAULIC PUMPS;5.1.a;5.1.a. find volumetric efficiency of gear pump;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1984;5. HYDRAULIC PUMPS;5.1.b;5.1.b. SOLUTION volumetric efficiency of gear pump;error;runtime; -788;Fluid Power With Applications(A. Esposito);1984;5. HYDRAULIC PUMPS;5.10.a;5.10.a. find yearly cost of electricity;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1984;5. HYDRAULIC PUMPS;5.10.b;5.10.b. SOLUTION yearly cost of electricity;error;runtime; -788;Fluid Power With Applications(A. Esposito);1984;5. HYDRAULIC PUMPS;5.2.a;5.2.a. find actual flowrate of gear pump;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1984;5. HYDRAULIC PUMPS;5.2.b;5.2.b. SOLUTION actual flowrate of gear pump;error;runtime; -788;Fluid Power With Applications(A. Esposito);1984;5. HYDRAULIC PUMPS;5.3.a;5.3.a. find eccentricity of vane pump;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1984;5. HYDRAULIC PUMPS;5.3.b;5.3.b. SOLUTION eccentricity of vane pump;error;runtime; -788;Fluid Power With Applications(A. Esposito);1984;5. HYDRAULIC PUMPS;5.4.a;5.4.a. find volumetric displacement of vane pump;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1984;5. HYDRAULIC PUMPS;5.4.b;5.4.b. SOLUTION volumetric displacement of vane pump;error;runtime; -788;Fluid Power With Applications(A. Esposito);1984;5. HYDRAULIC PUMPS;5.5.a;5.5.a. find power pres compensated pump saved;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1984;5. HYDRAULIC PUMPS;5.5.b;5.5.b. SOLUTION power pres compensated pump saved;error;runtime; -788;Fluid Power With Applications(A. Esposito);1984;5. HYDRAULIC PUMPS;5.6.a;5.6.a. find offset angle of piston pump;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1984;5. HYDRAULIC PUMPS;5.6.b;5.6.b. SOLUTION offset angle of piston pump;error;runtime; -788;Fluid Power With Applications(A. Esposito);1984;5. HYDRAULIC PUMPS;5.7.a;5.7.a. find flowrate of axial piston pump;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1984;5. HYDRAULIC PUMPS;5.7.b;5.7.b. SOLUTION flowrate of axial piston pump;error;runtime; -788;Fluid Power With Applications(A. Esposito);1984;5. HYDRAULIC PUMPS;5.8.a;5.8.a. find theoretical torque required by pump;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1984;5. HYDRAULIC PUMPS;5.8.b;5.8.b. SOLUTION theoretical torque required by pump;error;runtime; -788;Fluid Power With Applications(A. Esposito);1984;5. HYDRAULIC PUMPS;5.9.a;5.9.a. find theoretical torque required in SI;correct;runtime; -788;Fluid Power With Applications(A. Esposito);1984;5. HYDRAULIC PUMPS;5.9.b;5.9.b. SOLUTION theoretical torque required in SI;error;runtime; -788;Fluid Power With Applications(A. Esposito);2002;6. HYDRAULIC CYLINDERS AND CUSHIONING DEVICES;6.1.a;6.1.a. find pressure velocity and horsepower;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2002;6. HYDRAULIC CYLINDERS AND CUSHIONING DEVICES;6.1.b;6.1.b. SOLUTION pressure velocity and horsepower;error;runtime; -788;Fluid Power With Applications(A. Esposito);2002;6. HYDRAULIC CYLINDERS AND CUSHIONING DEVICES;6.2.a;6.2.a. find cylinder force to move 6000lb;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2002;6. HYDRAULIC CYLINDERS AND CUSHIONING DEVICES;6.2.b;6.2.b. SOLUTION cylinder force to move 6000lb;error;runtime; -788;Fluid Power With Applications(A. Esposito);2002;6. HYDRAULIC CYLINDERS AND CUSHIONING DEVICES;6.3.a;6.3.a. find force to move inclined weight;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2002;6. HYDRAULIC CYLINDERS AND CUSHIONING DEVICES;6.3.b;6.3.b. SOLUTION force to move inclined weight;error;runtime; -788;Fluid Power With Applications(A. Esposito);2002;6. HYDRAULIC CYLINDERS AND CUSHIONING DEVICES;6.4.a;6.4.a. find cylinder force to accelerate weight;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2002;6. HYDRAULIC CYLINDERS AND CUSHIONING DEVICES;6.4.b;6.4.b. SOLUTION cylinder force to accelerate weight;error;runtime; -788;Fluid Power With Applications(A. Esposito);2002;6. HYDRAULIC CYLINDERS AND CUSHIONING DEVICES;6.5.a;6.5.a. find cylinder force using lever system;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2002;6. HYDRAULIC CYLINDERS AND CUSHIONING DEVICES;6.5.b;6.5.b. SOLUTION cylinder force using lever system;error;runtime; -788;Fluid Power With Applications(A. Esposito);2002;6. HYDRAULIC CYLINDERS AND CUSHIONING DEVICES;6.6.a;6.6.a. find maximum pressure developed by cushion;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2002;6. HYDRAULIC CYLINDERS AND CUSHIONING DEVICES;6.6.b;6.6.b. SOLUTION maximum pressure developed by cushion;error;runtime; -788;Fluid Power With Applications(A. Esposito);2107;7. HYDRAULIC MOTORS;7.1.a;7.1.a. find pressure developed to overcome load;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2107;7. HYDRAULIC MOTORS;7.1.b;7.1.b. SOLUTION pressure developed to overcome load;error;runtime; -788;Fluid Power With Applications(A. Esposito);2107;7. HYDRAULIC MOTORS;7.2.a;7.2.a. determine theoretical horsepower of hydraulic motor;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2107;7. HYDRAULIC MOTORS;7.2.b;7.2.b. SOLUTION theoretical horsepower of hydraulic motor;error;runtime; -788;Fluid Power With Applications(A. Esposito);2107;7. HYDRAULIC MOTORS;7.3.a;7.3.a. find actual horsepower delivered by motor;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2107;7. HYDRAULIC MOTORS;7.3.b;7.3.b. SOLUTION actual horsepower delivered by motor;error;runtime; -788;Fluid Power With Applications(A. Esposito);2107;7. HYDRAULIC MOTORS;7.4.a;7.4.a. find motor displacement and output torque;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2107;7. HYDRAULIC MOTORS;7.4.b;7.4.b. SOLUTION motor displacement and output torque;error;runtime; -788;Fluid Power With Applications(A. Esposito);2107;7. HYDRAULIC MOTORS;7.5.a;7.5.a. find motor theoretical power in SI;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2107;7. HYDRAULIC MOTORS;7.5.b;7.5.b. SOLUTION motor theoretical power in SI;error;runtime; -788;Fluid Power With Applications(A. Esposito);2107;7. HYDRAULIC MOTORS;7.6.a;7.6.a. find actual KW delivered by motor;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2107;7. HYDRAULIC MOTORS;7.6.b;7.6.b. SOLUTION actual KW delivered by motor;error;runtime; -788;Fluid Power With Applications(A. Esposito);2107;7. HYDRAULIC MOTORS;7.7.a;7.7.a. find motor output torque in SI;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2107;7. HYDRAULIC MOTORS;7.7.b;7.7.b. SOLUTION motor output torque in SI;error;runtime; -788;Fluid Power With Applications(A. Esposito);2198;8. HYDRAULIC VALVES;8.1.a;8.1.a. determine cracking and full flow pressure;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2198;8. HYDRAULIC VALVES;8.1.b;8.1.b. SOLUTION cracking and full flow pressure;error;runtime; -788;Fluid Power With Applications(A. Esposito);2198;8. HYDRAULIC VALVES;8.2.a;8.2.a. compute horsepower across pressure relief valve;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2198;8. HYDRAULIC VALVES;8.2.b;8.2.b. SOLUTION horsepower across pressure relief valve;error;runtime; -788;Fluid Power With Applications(A. Esposito);2198;8. HYDRAULIC VALVES;8.3.a;8.3.a. compute horsepower across unloading valve;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2198;8. HYDRAULIC VALVES;8.3.b;8.3.b. SOLUTION horsepower across unloading valve;error;runtime; -788;Fluid Power With Applications(A. Esposito);2198;8. HYDRAULIC VALVES;8.4.a;8.4.a. find flow rate through the orifice;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2198;8. HYDRAULIC VALVES;8.4.b;8.4.b. SOLUTION flow rate through the orifice;error;runtime; -788;Fluid Power With Applications(A. Esposito);2198;8. HYDRAULIC VALVES;8.5.a;8.5.a. determine capacity coefficient of flowcontrol valve;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2198;8. HYDRAULIC VALVES;8.5.b;8.5.b. SOLUTION capacity coefficient of flowcontrol valve;error;runtime; -788;Fluid Power With Applications(A. Esposito);2198;8. HYDRAULIC VALVES;8.6.a;8.6.a. determine capacity coefficient of needle valve;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2198;8. HYDRAULIC VALVES;8.6.b;8.6.b. SOLUTION capacity coefficient of needle valve;error;runtime; -788;Fluid Power With Applications(A. Esposito);2241;9. HYDRAULIC CIRCUIT DESIGN AND ANALYSIS;9.1.a;9.1.a. determine speed power for regenerative circuit;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2241;9. HYDRAULIC CIRCUIT DESIGN AND ANALYSIS;9.1.b;9.1.b. SOLUTION speed power for regenerative circuit;error;runtime; -788;Fluid Power With Applications(A. Esposito);2241;9. HYDRAULIC CIRCUIT DESIGN AND ANALYSIS;9.2.a;9.2.a. find unloading relief valve pressure settings;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2241;9. HYDRAULIC CIRCUIT DESIGN AND ANALYSIS;9.2.b;9.2.b. SOLUTION unloading relief valve pressure settings;error;runtime; -788;Fluid Power With Applications(A. Esposito);2241;9. HYDRAULIC CIRCUIT DESIGN AND ANALYSIS;9.3.a;9.3.a. find spring constant of PRV valve;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2241;9. HYDRAULIC CIRCUIT DESIGN AND ANALYSIS;9.3.b;9.3.b. SOLUTION spring constant of PRV valve;error;runtime; -788;Fluid Power With Applications(A. Esposito);2241;9. HYDRAULIC CIRCUIT DESIGN AND ANALYSIS;9.4.a;9.4.a. determine cylinder speed of meterin circuit;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2241;9. HYDRAULIC CIRCUIT DESIGN AND ANALYSIS;9.4.b;9.4.b. SOLUTION cylinder speed of meterin circuit;error;runtime; -788;Fluid Power With Applications(A. Esposito);2241;9. HYDRAULIC CIRCUIT DESIGN AND ANALYSIS;9.5.a;9.5.a. find overall efficiency of given system;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2241;9. HYDRAULIC CIRCUIT DESIGN AND ANALYSIS;9.5.b;9.5.b. SOLUTION overall efficiency of given system;error;runtime; -788;Fluid Power With Applications(A. Esposito);2242;10. HYDRAULIC CONDUCTORS AND FITTINGS;10.1.a;10.1.a. find minimum inside diameter of pipe;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2242;10. HYDRAULIC CONDUCTORS AND FITTINGS;10.1.b;10.1.b. SOLUTION minimum inside diameter of pipe;error;runtime; -788;Fluid Power With Applications(A. Esposito);2242;10. HYDRAULIC CONDUCTORS AND FITTINGS;10.2.a;10.2.a. find minimum inside diameter in SI;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2242;10. HYDRAULIC CONDUCTORS AND FITTINGS;10.2.b;10.2.b. SOLUTION minimum inside diameter in SI;error;runtime; -788;Fluid Power With Applications(A. Esposito);2242;10. HYDRAULIC CONDUCTORS AND FITTINGS;10.3.a;10.3.a. find safe working pressure of tube;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2242;10. HYDRAULIC CONDUCTORS AND FITTINGS;10.3.b;10.3.b. SOLUTION safe working pressure of tube;error;runtime; -788;Fluid Power With Applications(A. Esposito);2242;10. HYDRAULIC CONDUCTORS AND FITTINGS;10.4.a;10.4.a. select proper size steel tube;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2242;10. HYDRAULIC CONDUCTORS AND FITTINGS;10.4.b;10.4.b. SOLUTION proper size steel tube;error;runtime; -788;Fluid Power With Applications(A. Esposito);2242;10. HYDRAULIC CONDUCTORS AND FITTINGS;10.5.a;10.5.a. select proper size steel tube SI;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2242;10. HYDRAULIC CONDUCTORS AND FITTINGS;10.5.b;10.5.b. SOLUTION proper size steel tube SI;error;runtime; -788;Fluid Power With Applications(A. Esposito);2245;11. ANCILLARY HYDRAULIC DEVICES;11.1.a;11.1.a. find the discharge flow and pressure;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2245;11. ANCILLARY HYDRAULIC DEVICES;11.1.b;11.1.b. SOLUTION the discharge flow and pressure;error;runtime; -788;Fluid Power With Applications(A. Esposito);2245;11. ANCILLARY HYDRAULIC DEVICES;11.2.a;11.2.a. determine the downstream oil temperature;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2245;11. ANCILLARY HYDRAULIC DEVICES;11.2.b;11.2.b. SOLUTION the downstream oil temperature;error;runtime; -788;Fluid Power With Applications(A. Esposito);2245;11. ANCILLARY HYDRAULIC DEVICES;11.3.a;11.3.a. determine downstream oil temperature in SI;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2245;11. ANCILLARY HYDRAULIC DEVICES;11.3.b;11.3.b. SOLUTION downstream oil temperature in SI;error;runtime; -788;Fluid Power With Applications(A. Esposito);2245;11. ANCILLARY HYDRAULIC DEVICES;11.4.a;11.4.a. find heat exchanger rating of system;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2245;11. ANCILLARY HYDRAULIC DEVICES;11.4.b;11.4.b. SOLUTION heat exchanger rating of system;error;runtime; -788;Fluid Power With Applications(A. Esposito);2245;11. ANCILLARY HYDRAULIC DEVICES;11.5.a;11.5.a. find heat exchanger rating in SI;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2245;11. ANCILLARY HYDRAULIC DEVICES;11.5.b;11.5.b. SOLUTION heat exchanger rating in SI;error;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.1.a;13.1.a. find final pressure at constant temperature;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.1.b;13.1.b. SOLUTION final pressure at constant temperature;error;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.10.a;13.10.a. determine air maximum flowrate in scfm;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.10.b;13.10.b. SOLUTION air maximum flowrate in scfm;error;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.11.a;13.11.a. determine flow capacity constant of system;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.11.b;13.11.b. SOLUTION flow capacity constant of system;error;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.12.a;13.12.a. determine air consumption rate in scfm;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.12.b;13.12.b. SOLUTION air consumption rate in scfm;error;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.13.a;13.13.a. find reciprocation rate of pneumatic cylinder;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.13.b;13.13.b. SOLUTION reciprocation rate of pneumatic cylinder;error;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.2.a;13.2.a. find final volume at constant pressure;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.2.b;13.2.b. SOLUTION final volume at constant pressure;error;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.3.a;13.3.a. find final pressure at constant volume;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.3.b;13.3.b. SOLUTION final pressure at constant volume;error;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.4.a;13.4.a. find final pressure general gas law;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.4.b;13.4.b. SOLUTION final pressure general gas law;error;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.5.a;13.5.a. find final pressure general law SI;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.5.b;13.5.b. SOLUTION final pressure general law SI;error;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.6.a;13.6.a. how much air compressor must provide;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.6.b;13.6.b. SOLUTION air compressor must provide;error;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.7.a;13.7.a. find receiver size for pneumatic system;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.7.b;13.7.b. SOLUTION receiver size for pneumatic system;error;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.8.a;13.8.a. determine actual power required for compressor;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.8.b;13.8.b. SOLUTION actual power required for compressor;error;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.9.a;13.9.a. find moisture received by pneumatic system;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2310;13. PNEUMATICS AIR PREPARATION AND COMPONENTS;13.9.b;13.9.b. SOLUTION moisture received by pneumatic system;error;runtime; -788;Fluid Power With Applications(A. Esposito);2349;14. PNEUMATICS CIRCUITS AND APPLICATIONS;14.1.a;14.1.a. find pressure loss for given pipe;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2349;14. PNEUMATICS CIRCUITS AND APPLICATIONS;14.1.b;14.1.b. SOLUTION pressure loss for given pipe;error;runtime; -788;Fluid Power With Applications(A. Esposito);2349;14. PNEUMATICS CIRCUITS AND APPLICATIONS;14.10.a;14.10.a. calculate required size of accumulator SI;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2349;14. PNEUMATICS CIRCUITS AND APPLICATIONS;14.10.b;14.10.b. SOLUTION required size of accumulator SI;error;runtime; -788;Fluid Power With Applications(A. Esposito);2349;14. PNEUMATICS CIRCUITS AND APPLICATIONS;14.2.a;14.2.a. find pressure loss with pipe valves;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2349;14. PNEUMATICS CIRCUITS AND APPLICATIONS;14.2.b;14.2.b. SOLUTION pressure loss with pipe valves;error;runtime; -788;Fluid Power With Applications(A. Esposito);2349;14. PNEUMATICS CIRCUITS AND APPLICATIONS;14.3.a;14.3.a. determine cost of electricity per year;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2349;14. PNEUMATICS CIRCUITS AND APPLICATIONS;14.3.b;14.3.b. SOLUTION cost of electricity per year;error;runtime; -788;Fluid Power With Applications(A. Esposito);2349;14. PNEUMATICS CIRCUITS AND APPLICATIONS;14.4.a;14.4.a. determine cost of leakage per year;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2349;14. PNEUMATICS CIRCUITS AND APPLICATIONS;14.4.b;14.4.b. SOLUTION cost of leakage per year;error;runtime; -788;Fluid Power With Applications(A. Esposito);2349;14. PNEUMATICS CIRCUITS AND APPLICATIONS;14.5.a;14.5.a. how heavy object can be lifted;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2349;14. PNEUMATICS CIRCUITS AND APPLICATIONS;14.5.b;14.5.b. SOLUTION heavy object can be lifted;error;runtime; -788;Fluid Power With Applications(A. Esposito);2349;14. PNEUMATICS CIRCUITS AND APPLICATIONS;14.6.a;14.6.a. determine time for achieving vacuum pressure;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2349;14. PNEUMATICS CIRCUITS AND APPLICATIONS;14.6.b;14.6.b. SOLUTION time for achieving vacuum pressure;error;runtime; -788;Fluid Power With Applications(A. Esposito);2349;14. PNEUMATICS CIRCUITS AND APPLICATIONS;14.7.a;14.7.a. calculate required size of the accumulator;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2349;14. PNEUMATICS CIRCUITS AND APPLICATIONS;14.7.b;14.7.b. SOLUTION required size of the accumulator;error;runtime; -788;Fluid Power With Applications(A. Esposito);2349;14. PNEUMATICS CIRCUITS AND APPLICATIONS;14.8.a;14.8.a. find electricity cost per year SI;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2349;14. PNEUMATICS CIRCUITS AND APPLICATIONS;14.8.b;14.8.b. SOLUTION electricity cost per year SI;error;runtime; -788;Fluid Power With Applications(A. Esposito);2349;14. PNEUMATICS CIRCUITS AND APPLICATIONS;14.9.a;14.9.a. what flowrate vacuum pump must deliver;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2349;14. PNEUMATICS CIRCUITS AND APPLICATIONS;14.9.b;14.9.b. SOLUTION flowrate vacuum pump must deliver;error;runtime; -788;Fluid Power With Applications(A. Esposito);2384;17. ADVANCED ELECTRICAL CONTROLS FOR FLUID POWER SYSTEMS;17.1.a;17.1.a. determine system accuracy of electrohydraulic system;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2384;17. ADVANCED ELECTRICAL CONTROLS FOR FLUID POWER SYSTEMS;17.1.b;17.1.b. SOLUTION system accuracy of electrohydraulic system;error;runtime; -788;Fluid Power With Applications(A. Esposito);2384;17. ADVANCED ELECTRICAL CONTROLS FOR FLUID POWER SYSTEMS;17.2.a;17.2.a. determine system accuracy in SI;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2384;17. ADVANCED ELECTRICAL CONTROLS FOR FLUID POWER SYSTEMS;17.2.b;17.2.b. SOLUTION system accuracy in SI;error;runtime; -788;Fluid Power With Applications(A. Esposito);2384;17. ADVANCED ELECTRICAL CONTROLS FOR FLUID POWER SYSTEMS;17.3.a;17.3.a. find maximum tracking error;correct;runtime; -788;Fluid Power With Applications(A. Esposito);2384;17. ADVANCED ELECTRICAL CONTROLS FOR FLUID POWER SYSTEMS;17.3.b;17.3.b. SOLUTION maximum tracking error;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2578;1. Introduction and Basic Concepts;1.2e;1.2e. Electric Power Generation by a Wind Turbine;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2578;1. Introduction and Basic Concepts;1.2s;1.2s. Electric Power Generation by a Wind Turbine;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2578;1. Introduction and Basic Concepts;1.3e;1.3e. Obtaining Formulas from Unit Considerations;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2578;1. Introduction and Basic Concepts;1.3s;1.3s. Obtaining Formulas from Unit Considerations;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2578;1. Introduction and Basic Concepts;1.4e;1.4e. The Weight of One Pound Mass;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2578;1. Introduction and Basic Concepts;1.4s;1.4s. The Weight of One Pound Mass;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2578;1. Introduction and Basic Concepts;1.5e;1.5e. Solving a System of Equations;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2578;1. Introduction and Basic Concepts;1.5s;1.5s. Solving a System of Equations;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2578;1. Introduction and Basic Concepts;1.6e;1.6e. Significant Digits and Volume Flow Rate;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2578;1. Introduction and Basic Concepts;1.6s;1.6s. Significant Digits and Volume Flow Rate;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2197;2. Properties of fluids;2.1.e;2.1.e. Density Specific Gravity and Mass of Air in a Room;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2197;2. Properties of fluids;2.1.s;2.1.s. Density Specific Gravity and Mass of Air in a Room;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2197;2. Properties of fluids;2.2.e;2.2.e. Minimum Pressure to Avoid Cavitation;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2197;2. Properties of fluids;2.2.s;2.2.s. Minimum Pressure to Avoid Cavitation;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2197;2. Properties of fluids;2.3.e;2.3.e. Variation of Density with Temperature and Pressure;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2197;2. Properties of fluids;2.3.s;2.3.s. Variation of Density with Temperature and Pressure;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2197;2. Properties of fluids;2.4.e;2.4.e. Mach Number of Air Entering the Diffuser;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2197;2. Properties of fluids;2.4.s;2.4.s. Mach Number of Air Entering the Diffuser;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2197;2. Properties of fluids;2.5.e;2.5.e. Determining the Viscosity of Fluid;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2197;2. Properties of fluids;2.5.s;2.5.s. Determining the Viscosity of Fluid;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2197;2. Properties of fluids;2.6.e;2.6.e. The Capillary Rise of Water in Tube;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2197;2. Properties of fluids;2.6.s;2.6.s. The Capillary Rise of Water in Tube;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2197;2. Properties of fluids;2.7.e;2.7.e. Using Capillary Rise to Generate Power in a Hydraulic Turbine;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2197;2. Properties of fluids;2.7.s;2.7.s. Using Capillary Rise to Generate Power in a Hydraulic Turbine;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.1.e;3.1.e. Absolute Pressure of Vacuum Chamber;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.1.s;3.1.s. Absolute Pressure of Vacuum Chamber;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.10.e;3.10.e. Measuring specific gravity by hydrometer;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.10.s;3.10.s. Measuring specific gravity by hydrometer;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.11.e;3.11.e. Weight loss of an Object in Seawater;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.11.s;3.11.s. Weight loss of an Object in Seawater;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.12.e;3.12.e. Overflow From Water Tank During Acceleration;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.12.s;3.12.s. Overflow From Water Tank During Acceleration;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.13.e;3.13.e. Rising of Liquid During Rotation;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.13.s;3.13.s. Rising of Liquid During Rotation;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.2.e;3.2.e. Measuring Atmospheric Pressure with Barometer;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.2.s;3.2.s. Measuring Atmospheric Pressure with Barometer;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.3.e;3.3.e. Gravity Driven flow in IV bottle;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.3.s;3.3.s. Gravity Driven flow in IV bottle;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.4.e;3.4.e. Hydrostatic pressure in solar pond with variable density;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.4.s;3.4.s. Hydrostatic pressure in solar pond with variable density;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.5.e;3.5.e. Measuring Pressure with Manometer;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.5.s;3.5.s. Measuring Pressure with Manometer;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.6.e;3.6.e. Measuring Pressure with Multifluid Manometer;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.6.s;3.6.s. Measuring Pressure with Multifluid Manometer;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.7.e;3.7.e. Analyzing Multifluid manometer;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.7.s;3.7.s. Analyzing Multifluid manometer;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.8.e;3.8.e. Hydrostatic Force Acting on the Door of Submerged car;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.8.s;3.8.s. Hydrostatic Force Acting on the Door of Submerged car;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.9.e;3.9.e. A Gravity Controlled Cylinderical Gate;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2085;3. Pressure and Fluid Statics;3.9.s;3.9.s. A Gravity Controlled Cylinderical Gate;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.1.e;5.1.e. Water Flow through a Garden Hose Nozzle;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.1.s;5.1.s. Water Flow through a Garden Hose Nozzle;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.12.e;5.12.e. Pumping Power and Frictional Heating in a Pump;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.12.s;5.12.s. Pumping Power and Frictional Heating in a Pump;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.13.e;5.13.e. Hydroelectric Power Generation from a Dam;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.13.s;5.13.s. Hydroelectric Power Generation from a Dam;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.14.e;5.14.e. Fan Selection for Air Cooling of Computer;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.14.s;5.14.s. Fan Selection for Air Cooling of Computer;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.15.e;5.15.e. Pumping water from Lake to a Reservoir;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.15.s;5.15.s. Pumping water from Lake to a Reservoir;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.2.e;5.2.e. Discharge of Water from a Tank;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.2.s;5.2.s. Discharge of Water from a Tank;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.3.e;5.3.e. Performance of Hydraulic Turbine Generator;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.3.s;5.3.s. Performance of Hydraulic Turbine Generator;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.5.e;5.5.e. Spraying Water into the Air;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.5.s;5.5.s. Spraying Water into the Air;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.6.e;5.6.e. Water Discharge from a Large Tank;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.6.s;5.6.s. Water Discharge from a Large Tank;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.7.e;5.7.e. Siphoning Out Gasoline from a Fuel Tank;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.7.s;5.7.s. Siphoning Out Gasoline from a Fuel Tank;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.8.e;5.8.e. Velocity Measurement by a Pitot Tube;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.8.s;5.8.s. Velocity Measurement by a Pitot Tube;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.9.e;5.9.e. The rise of the Ocean Due to Hurricane;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2083;5. Mass Bernoulli and Energy equations;5.9.s;5.9.s. The rise of the Ocean Due to Hurricane;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2374;8. Internal Flow;8.10.e;8.10.e. Measuring Flow rate with an Orifice Meter;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2374;8. Internal Flow;8.10.s;8.10.s. Measuring Flow rate with an Orifice Meter;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2374;8. Internal Flow;8.2.e;8.2.e. Pressure Drop and Head Loss in a Pipe;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2374;8. Internal Flow;8.2.s;8.2.s. Pressure Drop and Head Loss in a Pipe;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2374;8. Internal Flow;8.3.e;8.3.e. Determining the Head Loss in Water pipe;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2374;8. Internal Flow;8.3.s;8.3.s. Determining the Head Loss in Water pipe;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2374;8. Internal Flow;8.4.e;8.4.e. Determining the Diameter of an Air Duct;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2374;8. Internal Flow;8.4.s;8.4.s. Determining the Diameter of an Air Duct;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2374;8. Internal Flow;8.5.e;8.5.e. Determining the Flow Rate of Air in a Duct;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2374;8. Internal Flow;8.5.s;8.5.s. Determining the Flow Rate of Air in a Duct;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2374;8. Internal Flow;8.6.e;8.6.e. Head Loss and Pressure Rise during Gradual Expansion;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2374;8. Internal Flow;8.6.s;8.6.s. Head Loss and Pressure Rise during Gradual Expansion;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2374;8. Internal Flow;8.7.e;8.7.e. Pumping Water through Two Parallel Pipes;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2374;8. Internal Flow;8.7.s;8.7.s. Pumping Water through Two Parallel Pipes;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2374;8. Internal Flow;8.8.e;8.8.e. Gravity Driven Water Flow in a Pipe;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2374;8. Internal Flow;8.8.s;8.8.s. Gravity Driven Water Flow in a Pipe;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2374;8. Internal Flow;8.9.e;8.9.e. Effect of Flushing on Flow a Rate from a Shower;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2374;8. Internal Flow;8.9.s;8.9.s. Effect of Flushing on Flow a Rate from a Shower;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2577;11. External Flow Drag and Lift;11.1e;11.1e. Measuring the Drag Coefficient of a Car;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2577;11. External Flow Drag and Lift;11.1s;11.1s. Measuring the Drag Coefficient of a Car;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2577;11. External Flow Drag and Lift;11.2e;11.2e. Effect of Frontal Area on Fuel Efficiency of a Car;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2577;11. External Flow Drag and Lift;11.2s;11.2s. Effect of Frontal Area on Fuel Efficiency of a Car;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2577;11. External Flow Drag and Lift;11.3e;11.3e. Flow of Hot Oil over a Flat Plate;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2577;11. External Flow Drag and Lift;11.3s;11.3s. Flow of Hot Oil over a Flat Plate;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2577;11. External Flow Drag and Lift;11.4e;11.4e. Drag Force Acting on a Pipe in a River;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2577;11. External Flow Drag and Lift;11.4s;11.4s. Drag Force Acting on a Pipe in a River;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2577;11. External Flow Drag and Lift;11.5e;11.5e. Lift and Drag of commercial Airplane;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2577;11. External Flow Drag and Lift;11.5s;11.5s. Lift and Drag of commercial Airplane;error;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2577;11. External Flow Drag and Lift;11.6e;11.6e. Effect of Spin on Tennis Ball;correct;runtime; -797;Fluid Mechanics Fundamentals And Applications (SIe)(Y. A. Cengel And J. M. Cimbala);2577;11. External Flow Drag and Lift;11.6s;11.6s. Effect of Spin on Tennis Ball;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1927;1. Mole Balances;1.3;1.3. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1928;2. Conversion and Reactor Sizing;2.1;2.1. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1928;2. Conversion and Reactor Sizing;2.2;2.2. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1928;2. Conversion and Reactor Sizing;2.3;2.3. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1928;2. Conversion and Reactor Sizing;2.4;2.4. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1928;2. Conversion and Reactor Sizing;2.5;2.5. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1928;2. Conversion and Reactor Sizing;2.6;2.6. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1928;2. Conversion and Reactor Sizing;2.7;2.7. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1929;3. Rate Laws and Stoichiometry;3.5;3.5. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1930;4. Isothermal Reactor Design;4.1;4.1. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1930;4. Isothermal Reactor Design;4.10;4.10. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1930;4. Isothermal Reactor Design;4.11;4.11. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1930;4. Isothermal Reactor Design;4.2;4.2. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1930;4. Isothermal Reactor Design;4.4;4.4. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1930;4. Isothermal Reactor Design;4.5;4.5. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1930;4. Isothermal Reactor Design;4.6;4.6. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1930;4. Isothermal Reactor Design;4.7;4.7. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1930;4. Isothermal Reactor Design;4.8;4.8. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1930;4. Isothermal Reactor Design;4.9;4.9. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1934;5. Collection and Analysis of Rate Data;5.1;5.1. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1934;5. Collection and Analysis of Rate Data;5.2;5.2. Clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1934;5. Collection and Analysis of Rate Data;5.3;5.3. Clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1934;5. Collection and Analysis of Rate Data;5.4;5.4. Clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1935;6. Multiple Reactions;6.6;6.6. Clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1935;6. Multiple Reactions;6.8;6.8. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1936;7. Nonelementary Reaction Kinetics;7.7;7.7. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1936;7. Nonelementary Reaction Kinetics;7.8;7.8. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1936;7. Nonelementary Reaction Kinetics;7.9;7.9. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1937;8. Steady State Nonisothermal Reactor Design;8.10;8.10. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1937;8. Steady State Nonisothermal Reactor Design;8.11;8.11. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1937;8. Steady State Nonisothermal Reactor Design;8.12;8.12. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1937;8. Steady State Nonisothermal Reactor Design;8.3;8.3. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1937;8. Steady State Nonisothermal Reactor Design;8.4;8.4. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1937;8. Steady State Nonisothermal Reactor Design;8.6;8.6. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1937;8. Steady State Nonisothermal Reactor Design;8.7;8.7. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1937;8. Steady State Nonisothermal Reactor Design;8.8;8.8. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1937;8. Steady State Nonisothermal Reactor Design;8.9;8.9. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1938;9. Unsteady State Nonisothermal Reactor Design;9.1;9.1. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1938;9. Unsteady State Nonisothermal Reactor Design;9.2;9.2. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1938;9. Unsteady State Nonisothermal Reactor Design;9.3;9.3. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1938;9. Unsteady State Nonisothermal Reactor Design;9.4;9.4. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1938;9. Unsteady State Nonisothermal Reactor Design;9.8;9.8. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1939;10. Catalysis and Catalytic Reactors;1.7;1.7. clear;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/800/CH1/EX1.7/: PATH DOES NOT EXIST -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1939;10. Catalysis and Catalytic Reactors;10.3;10.3. clear;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1939;10. Catalysis and Catalytic Reactors;10.5;10.5. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1939;10. Catalysis and Catalytic Reactors;10.7;10.7. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1940;11. External Diffusion Effects on Hetrogeneous Reactions;11.1;11.1. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1940;11. External Diffusion Effects on Hetrogeneous Reactions;11.3;11.3. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1940;11. External Diffusion Effects on Hetrogeneous Reactions;11.4;11.4. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1940;11. External Diffusion Effects on Hetrogeneous Reactions;11.5;11.5. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1941;13. Distributions of Residence Times for Chemical Reactions;13.8;13.8. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1941;13. Distributions of Residence Times for Chemical Reactions;13.9;13.9. clear;error;runtime; -800;Elements Of Chemical Reaction Engineering(H. S. Fogler);1942;14. Models for Nonideal Reactors;14.3;14.3. clear;error;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2548;1. Essential Relational Functions;1.3;1.3. Spectrally analyse randomly generated real signal by FFT processor;correct;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2549;2. Understanding radar fundamentals;2.1;2.1. Distortion product of spurious signals;correct;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2549;2. Understanding radar fundamentals;2.2;2.2. Sensitivity of the system for given noise factor and bandwidth;correct;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2550;3. Antenna physics and radar measurements;3.2;3.2. Doppler shift for given base frequency and target radial velocity;correct;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2550;3. Antenna physics and radar measurements;3.3;3.3. Nominal resolution in range rate and range acceleration;correct;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2550;3. Antenna physics and radar measurements;3.4;3.4. Compensation process;correct;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2551;5. The radar equations;5.1;5.1. Minimum peak transmitter power in pulsed radar;correct;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2551;5. The radar equations;5.2;5.2. Dimension and gain of pyramidal horn;correct;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2551;5. The radar equations;5.3;5.3. Various parameters of the transmitter;correct;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2551;5. The radar equations;5.4;5.4. Maximum range of a transmitter;correct;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2551;5. The radar equations;5.5;5.5. Thermal and quantum noise power;correct;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2551;5. The radar equations;5.6;5.6. Power received by a radar;correct;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2552;6. The ionosphere and its effect on HF skywave propagation;6.1;6.1. Electron density critical frequency and refractive index for each layer of ionosphere;correct;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2552;6. The ionosphere and its effect on HF skywave propagation;6.2;6.2. Refraction angle and range error for the ionosphere;error;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2552;6. The ionosphere and its effect on HF skywave propagation;6.3;6.3. Doppler frequency error for a sensor;correct;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2552;6. The ionosphere and its effect on HF skywave propagation;6.4;6.4. The Debye length for each layer of ionoshere;correct;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2553;7. Skywave radar;7.1;7.1. Radar range of radar for radiating far field;correct;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2553;7. Skywave radar;7.4;7.4. Probability of finding 8kHz adjacent channels for a single sweep;correct;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2554;8. Probability theory and distribution functions;8.2;8.2. Probability of selection of red ball from container;correct;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2554;8. Probability theory and distribution functions;8.4;8.4. Poisson distribution;correct;runtime; -803;Radar System, Peak Detection And Tracking(M. O. Kolawole);2554;8. Probability theory and distribution functions;8.5;8.5. Probability of pulses missing the target;error;runtime; -806;Fluid Mechanics(V. L. Streeter, E. B. Wylie And K. W. Bedford);2309;1. Fluid properties;1.1;1.1. Kinematic viscosity in SI and USC units and Dynamic viscosity in USC units;error;runtime; -806;Fluid Mechanics(V. L. Streeter, E. B. Wylie And K. W. Bedford);2309;1. Fluid properties;1.2;1.2. Power;error;runtime; -806;Fluid Mechanics(V. L. Streeter, E. B. Wylie And K. W. Bedford);2309;1. Fluid properties;1.3;1.3. Density;error;runtime; -806;Fluid Mechanics(V. L. Streeter, E. B. Wylie And K. W. Bedford);2309;1. Fluid properties;1.4;1.4. Bulk modulus of elasticity;error;runtime; -806;Fluid Mechanics(V. L. Streeter, E. B. Wylie And K. W. Bedford);2309;1. Fluid properties;1.5;1.5. Concentration data;error;runtime; -806;Fluid Mechanics(V. L. Streeter, E. B. Wylie And K. W. Bedford);2328;4. Basic Governing differential equations;4.5;4.5. Difference in elevation;error;runtime; -806;Fluid Mechanics(V. L. Streeter, E. B. Wylie And K. W. Bedford);2328;4. Basic Governing differential equations;4.6;4.6. Discharge;error;runtime; -806;Fluid Mechanics(V. L. Streeter, E. B. Wylie And K. W. Bedford);2328;4. Basic Governing differential equations;4.7;4.7. Outflow and associated velocity and Draw down during one day and one week period;error;runtime; -806;Fluid Mechanics(V. L. Streeter, E. B. Wylie And K. W. Bedford);2627;7. External flows;7.1;7.1. Drag;error;runtime; -806;Fluid Mechanics(V. L. Streeter, E. B. Wylie And K. W. Bedford);2627;7. External flows;7.2;7.2. Settling velocity;error;runtime; -806;Fluid Mechanics(V. L. Streeter, E. B. Wylie And K. W. Bedford);2628;8. Ideal fluid flow;8.2;8.2. Dynamic pressure difference and total pressure difference;error;runtime; -806;Fluid Mechanics(V. L. Streeter, E. B. Wylie And K. W. Bedford);2628;8. Ideal fluid flow;8.3;8.3. Velocity components;error;runtime; -806;Fluid Mechanics(V. L. Streeter, E. B. Wylie And K. W. Bedford);2329;10. MEASUREMENTS;10.1;10.1. Coefficient of contraction and coefficient of velocity and coefficient of discharge and losses;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1991;1. Introduction;1.01;1.01. Head addition;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1991;1. Introduction;1.02;1.02. Head addition;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1992;2. Fundamental Concepts;2.02;2.02. Viscosity and stress;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1993;3. Fluid Statics;3.01;3.01. liquid level;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1993;3. Fluid Statics;3.03;3.03. pressure difference;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1993;3. Fluid Statics;3.04;3.04. temperature and pressure;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1993;3. Fluid Statics;3.05;3.05. force and pressure;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1993;3. Fluid Statics;3.06;3.06. force;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1993;3. Fluid Statics;3.07;3.07. force at equilibrium;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1994;4. Basic Equations in Integral form for a Control Volume;4.01;4.01. Velocity;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1994;4. Basic Equations in Integral form for a Control Volume;4.02;4.02. Mass flow;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1994;4. Basic Equations in Integral form for a Control Volume;4.03;4.03. density;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1994;4. Basic Equations in Integral form for a Control Volume;4.04;4.04. Horizontal force;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1994;4. Basic Equations in Integral form for a Control Volume;4.05;4.05. Scale;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1994;4. Basic Equations in Integral form for a Control Volume;4.06;4.06. force exerted per unt;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1994;4. Basic Equations in Integral form for a Control Volume;4.07;4.07. Force to hold;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1994;4. Basic Equations in Integral form for a Control Volume;4.08;4.08. Tension;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1994;4. Basic Equations in Integral form for a Control Volume;4.09;4.09. pressure required;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1994;4. Basic Equations in Integral form for a Control Volume;4.10;4.10. Net force;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1994;4. Basic Equations in Integral form for a Control Volume;4.11;4.11. PLOTTING;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1994;4. Basic Equations in Integral form for a Control Volume;4.12;4.12. Velocity of rocket;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1994;4. Basic Equations in Integral form for a Control Volume;4.14;4.14. Relative speed and friction;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1994;4. Basic Equations in Integral form for a Control Volume;4.16;4.16. Rate of heat;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1994;4. Basic Equations in Integral form for a Control Volume;4.17;4.17. Mass flow rate;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1996;5. Introducton to Differential Analysis of Fluid Motion;5.02;5.02. Rate of change;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1996;5. Introducton to Differential Analysis of Fluid Motion;5.07;5.07. angular and rotation;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1996;5. Introducton to Differential Analysis of Fluid Motion;5.08;5.08. Rates and area;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1996;5. Introducton to Differential Analysis of Fluid Motion;5.09;5.09. Volume flow rate;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1997;6. Incompressible Inviscid Flow;6.01;6.01. Volume flow rate;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1997;6. Incompressible Inviscid Flow;6.02;6.02. Velocity of flow;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1997;6. Incompressible Inviscid Flow;6.03;6.03. prssure required;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1997;6. Incompressible Inviscid Flow;6.04;6.04. Speed and pressure;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1997;6. Incompressible Inviscid Flow;6.05;6.05. flow;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1997;6. Incompressible Inviscid Flow;6.06;6.06. pressure;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1997;6. Incompressible Inviscid Flow;6.08;6.08. temperature;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1997;6. Incompressible Inviscid Flow;6.09;6.09. Streamline flow;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1998;7. Dimensional Analysis and Simlitude;7.04;7.04. speed and force;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1998;7. Dimensional Analysis and Simlitude;7.05;7.05. speed force and power;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1998;7. Dimensional Analysis and Simlitude;7.06;7.06. power and speed;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1999;8. Internal Incompressible Viscous Flow;8.01;8.01. Leakage flow rate;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1999;8. Internal Incompressible Viscous Flow;8.02;8.02. Torque and power;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1999;8. Internal Incompressible Viscous Flow;8.04;8.04. Viscosity of fluid;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1999;8. Internal Incompressible Viscous Flow;8.05;8.05. required;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1999;8. Internal Incompressible Viscous Flow;8.06;8.06. Maximum and power;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1999;8. Internal Incompressible Viscous Flow;8.07;8.07. Volume low;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1999;8. Internal Incompressible Viscous Flow;8.08;8.08. Minimum diameter;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1999;8. Internal Incompressible Viscous Flow;8.09;8.09. Loss Coefficient;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1999;8. Internal Incompressible Viscous Flow;8.10;8.10. Volume and increase;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);1999;8. Internal Incompressible Viscous Flow;8.11;8.11. Diameter and head;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2000;9. External Incompressible Viscous Flow;9.01;9.01. static pressure;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2000;9. External Incompressible Viscous Flow;9.04;9.04. Displacement thickness and stress;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2000;9. External Incompressible Viscous Flow;9.05;9.05. force and power;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2000;9. External Incompressible Viscous Flow;9.06;9.06. Bending moment;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2000;9. External Incompressible Viscous Flow;9.07;9.07. Time required;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2000;9. External Incompressible Viscous Flow;9.08;9.08. Optimum cruise speed;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2000;9. External Incompressible Viscous Flow;9.09;9.09. Aerodynamic and Radius;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2001;10. Fluid Machinery;10.01;10.01. input and power;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2001;10. Fluid Machinery;10.02;10.02. volume and power;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2001;10. Fluid Machinery;10.03;10.03. Pump Power;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2001;10. Fluid Machinery;10.06;10.06. Specific and relation;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2001;10. Fluid Machinery;10.07;10.07. Comparison of head;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2001;10. Fluid Machinery;10.08;10.08. NPSHA and NPSHR;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2001;10. Fluid Machinery;10.1;10.1. Performance curves;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2001;10. Fluid Machinery;10.12;10.12. Power required;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2001;10. Fluid Machinery;10.14;10.14. propeller;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2001;10. Fluid Machinery;10.16;10.16. Actual;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2024;11. Introduction to Compressible Flow;11.01;11.01. Change;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2024;11. Introduction to Compressible Flow;11.03;11.03. Speed of sound;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2024;11. Introduction to Compressible Flow;11.04;11.04. pressure and change;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2025;12. Steady One Dimensional Compressible Flow;12.01;12.01. pressure and area;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2025;12. Steady One Dimensional Compressible Flow;12.02;12.02. Mass flow;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2025;12. Steady One Dimensional Compressible Flow;12.03;12.03. mass and area;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2025;12. Steady One Dimensional Compressible Flow;12.04;12.04. throat;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2025;12. Steady One Dimensional Compressible Flow;12.05;12.05. number and flow;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2025;12. Steady One Dimensional Compressible Flow;12.06;12.06. mass and volume;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2025;12. Steady One Dimensional Compressible Flow;12.07;12.07. length;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2025;12. Steady One Dimensional Compressible Flow;12.08;12.08. velocity and entropy;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2025;12. Steady One Dimensional Compressible Flow;12.09;12.09. Temperature and entropy;error;runtime; -812;Introduction To Fluid Mechanics(R. W. Fox And A. T. McDonald);2025;12. Steady One Dimensional Compressible Flow;12.10;12.10. Temperature;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2116;2. The Foundation of C;2.1;2.1. Program to add two integers;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2116;2. The Foundation of C;2.10;2.10. Program to display a field width according to a user input;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2116;2. The Foundation of C;2.11;2.11. Program to demonstrate the use of asterisk to discard the second integer input by user;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2116;2. The Foundation of C;2.13;2.13. Program to display characters using char function;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2116;2. The Foundation of C;2.14;2.14. Program to print all lowercase letters using char function;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2116;2. The Foundation of C;2.15;2.15. Program to demonstrate the scope of identifiers;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2116;2. The Foundation of C;2.16;2.16. Program to demonstrate the scope of identifiers using float as an additional variable;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2116;2. The Foundation of C;2.17;2.17. Program to demonstrate scope of identifiers;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2116;2. The Foundation of C;2.18;2.18. Program to illustrate the use of automatic variables;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2116;2. The Foundation of C;2.2;2.2. Program to display a message;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2116;2. The Foundation of C;2.20;2.20. Program demonstrating the use of automatic variable;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2116;2. The Foundation of C;2.21;2.21. Program to demonstrate use of static variables;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2116;2. The Foundation of C;2.3;2.3. Program to display a message with expression argument in the printf call;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2116;2. The Foundation of C;2.4;2.4. Program to display a message with expression argument and field width specifiers in the printf call;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2116;2. The Foundation of C;2.5;2.5. Program to print ASCII values using different formats of printf;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2116;2. The Foundation of C;2.6;2.6. Use of increment and decrement operator;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2116;2. The Foundation of C;2.7;2.7. Program to demonstrate scanf;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2116;2. The Foundation of C;2.9;2.9. Program to specify field width;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.1;3.1. Program to illustrate if statement;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.10;3.10. Program to illustrate if else statement;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.11;3.11. Program to print largest of two numbers using if else construct;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.12;3.12. Program to find out if a number is odd or even;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.13;3.13. Program to find out a number is odd or even using bitwise AND;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.14;3.14. Program to test a number for positive negative or zero values;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.15;3.15. Program to find out the heavier coin from the set of four coins the remaining three having identical weights;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.16;3.16. Program to illustrate nested if else;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.17;3.17. Program to show that nested if else can be rewritten as if else if ladder;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.18;3.18. Program to demonstrate if else if ladder;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.19;3.19. Program to print asterick;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.2;3.2. Program to illustrate if statement in a different way;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.20;3.20. Program to print a pattern of numbers;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.21;3.21. Program to check whether an integer is even;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.22;3.22. Program to compute the sum of integers from 1 to 10;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.23;3.23. Program to generate all magic numbers until an upper bound;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.24;3.24. Program to generate number of rows of a pattern;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.25;3.25. Program to generate triangle of rows of pattern;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.26;3.26. Program to compute sum of first 10 natural numbers;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.27;3.27. Program to generate a list of values;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.28;3.28. Program using while loop to compute the sum of integers from 1 to 10;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.29;3.29. Program to print powers of 2;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.30;3.30. Program to compute sum of the cubes of 1 to 10 numbers;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.31;3.31. Program to print a pattern of asterisks in a different way;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.32;3.32. Program to determine value between 1 and 10 using while loop;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.33;3.33. Program to compute the factorial of a number using while loop;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.35;3.35. Program to illustrate the break statement in a for loop;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.36;3.36. Program to illustrate break statement in switch statement;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.37;3.37. Program to illustrate the continue statement;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.4;3.4. Program to check if condition giving different parameters;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.5;3.5. Program to print the largest of two numbers;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.6;3.6. Program to print the largest of three numbers;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.7;3.7. Program to let the user guess a number between 1 and 10 and print a message if the user has guessed correctly;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.8;3.8. Program for grade computation;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2036;3. Control;3.9;3.9. Program to print absolute value of a number;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2266;4. Functions and Recursion;4.1;4.1. Program to analyze working of functions;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2266;4. Functions and Recursion;4.10;4.10. Multiplication through repeated addition recursive function;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2266;4. Functions and Recursion;4.11;4.11. Use of a recursive function to compute the GCD of two positive integers;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2266;4. Functions and Recursion;4.12;4.12. Program to compute a specified fibonacci number using recursion;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2266;4. Functions and Recursion;4.13;4.13. Program to compute a specified fibonacci number using modified recursion;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2266;4. Functions and Recursion;4.2;4.2. Program demonstrating function parameters;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2266;4. Functions and Recursion;4.3;4.3. Program demonstrating function in a different way as prototyping is not supported by scilab;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2266;4. Functions and Recursion;4.4;4.4. Program to find out minimum of two integers;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2266;4. Functions and Recursion;4.5;4.5. Calculate sum of first n positive integers by call by value method;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2266;4. Functions and Recursion;4.6;4.6. Program to demonstrate use of Iterative version of factorial function;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2266;4. Functions and Recursion;4.7;4.7. Program to demonstrate use of recursive version of factorial function;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2266;4. Functions and Recursion;4.8;4.8. Recursive version of the sum of the first n integers;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2272;5. Arrays;5.1;5.1. Program to illustrate the use of one dimensional arrays;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2272;5. Arrays;5.10;5.10. Program to demonstrate use of sscanf;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2272;5. Arrays;5.11;5.11. Program to calculate the length of string entered;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2272;5. Arrays;5.12;5.12. Program to compare two strings;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2272;5. Arrays;5.13;5.13. Program to compare two strings using their locations;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2272;5. Arrays;5.14;5.14. Program to concatenate two strings;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2272;5. Arrays;5.15;5.15. Program demonstrating use of string copy function;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2272;5. Arrays;5.2;5.2. Program to illustrate the use of two dimensional arrays;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2272;5. Arrays;5.3;5.3. Program to add two matrices;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2272;5. Arrays;5.4;5.4. Program to add two matrices using functions;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2272;5. Arrays;5.5;5.5. Program to multiply two matrices;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2272;5. Arrays;5.6;5.6. Program to print the elements of two dimensional array;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2272;5. Arrays;5.7;5.7. Program to reverse an input string and print the ASCII sum of the characters comprising the string;error;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2272;5. Arrays;5.8;5.8. Program to illustrate use of gets and puts functions;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2272;5. Arrays;5.9;5.9. Program to separate each word from input;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2350;7. User Defined Data Types;7.1;7.1. Program to create a structure and access it;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2350;7. User Defined Data Types;7.3;7.3. Program to illustrate structure member passing to and from functions;correct;runtime; -815;C Programming Essentials(K. N. Dey And S. Bandopadhyay);2350;7. User Defined Data Types;7.4;7.4. Program to create a structure and access it using functions;error;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2221;1. Atomic Structure;1.1;1.1. Relative Abundance;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2221;1. Atomic Structure;1.10;1.10. Energy difference between energy levels;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2221;1. Atomic Structure;1.2;1.2. Frequency and Wavenumber;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2221;1. Atomic Structure;1.3;1.3. Velocity of photoelectrons;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2221;1. Atomic Structure;1.4;1.4. Wavelength;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2221;1. Atomic Structure;1.5;1.5. Wavelength of the second line;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2221;1. Atomic Structure;1.6;1.6. Ionization potential;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2221;1. Atomic Structure;1.7;1.7. De Broglie Wavelength;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2221;1. Atomic Structure;1.8;1.8. De Broglie Wavelength;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2221;1. Atomic Structure;1.9;1.9. Uncertainity in position;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2222;2. Nuclear Structure and Radioactivity;2.1;2.1. Half life of a radioactive nuclide;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2222;2. Nuclear Structure and Radioactivity;2.2;2.2. Half life of a radioactive nuclide;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2222;2. Nuclear Structure and Radioactivity;2.3;2.3. Weight of 1Ci;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2222;2. Nuclear Structure and Radioactivity;2.4;2.4. Binding Energy;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2222;2. Nuclear Structure and Radioactivity;2.5;2.5. Age of a Specimen;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2222;2. Nuclear Structure and Radioactivity;2.6;2.6. Age of a Specimen;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.1;4.1. Pressure and Volume of gas;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.10;4.10. Relative density;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.11;4.11. Velocities of Oxygen;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.12;4.12. Velocities of Gas;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.13;4.13. mean free path;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.14;4.14. Number of collissions;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.15;4.15. Collision diameter;error;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.16;4.16. Change in internal energy;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.17;4.17. Degree of vibrational freedom;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.18;4.18. Lowest temperature;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.19;4.19. Viscosity of liquids;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.2;4.2. Volume and temperature of gas;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.20;4.20. Depression in capillary;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.21;4.21. Surface excess concentration;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.22;4.22. length of a molecule;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.23;4.23. Molecular weight;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.24;4.24. Surface area;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.25;4.25. Area per gram;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.26;4.26. Area per gram;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.28;4.28. Surface area;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.29;4.29. Avagadro Number;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.3;4.3. Volume and temperature of gas;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.30;4.30. Diameter of particle;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.31;4.31. Electrokinetic potential;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.32;4.32. Zeta potential;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.33;4.33. Flow of water;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.34;4.34. Flow of water;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.35;4.35. Concentrations and EMF;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.36;4.36. Concentrations;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.37;4.37. unit cell length and wavelength;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.39;4.39. type of cubic unit cell;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.4;4.4. Number of moles;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.5;4.5. Volume of dry gas;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.6;4.6. Partial Pressures of gas;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.7;4.7. Total pressure of mixture;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.8;4.8. Density of hydrogen;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2427;4. States of matter;4.9;4.9. Density of hydrogen;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.1;5.1. Maximum work;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.10;5.10. Standard Enthalpy of formation;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.11;5.11. Standard Enthalpy of formation;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.12;5.12. Heat of formation of water vapour;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.13;5.13. Enthalpy formation of CO2;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.14;5.14. Enthalpy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.15;5.15. Enthalpy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.16;5.16. Enthalpy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.17;5.17. Maximum temperature;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.18;5.18. Maximum temperature and pressure;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.2;5.2. Maximum work;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.20;5.20. Maximum possible efficiency;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.22;5.22. entropy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.23;5.23. Entropy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.24;5.24. Entropy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.25;5.25. Total Entropy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.26;5.26. Entropy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.27;5.27. Standard free energy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.28;5.28. Standard free energy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.29;5.29. Standard free energy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.3;5.3. Enthalpy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.30;5.30. Standard Entropy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.31;5.31. Standard Entropy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.32;5.32. Standard Entropy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.33;5.33. Fugacity;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.34;5.34. Standard Entropy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.35;5.35. Vapour pressure;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.36;5.36. Operating temperature;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.37;5.37. Vapour pressure;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.38;5.38. Standard free energy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.39;5.39. Composition of water gas;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.4;5.4. Final pressure of the system;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.40;5.40. Enthalpy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.41;5.41. value of Kp;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.42;5.42. Vapour pressure;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.44;5.44. Dissociation constant;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.45;5.45. Total pressure;error;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.46;5.46. Dissociation constant;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.47;5.47. Formation of ester;error;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.48;5.48. Equilibrium constant;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.49;5.49. Molecular weight;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.5;5.5. Enthalpy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.50;5.50. Molecular weight;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.51;5.51. Freezing point;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.52;5.52. Quantity of methanol and ethylene;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.53;5.53. Quantity of ice;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.54;5.54. Osmotic pressure;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.55;5.55. Molecular weight;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.56;5.56. Concentration of glucose;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.57;5.57. degree of dissociation;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.58;5.58. Nature of the species;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.6;5.6. Standard Enthalpy of formation;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.7;5.7. Enthalpy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.8;5.8. Heat of formation;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2442;5. THERMODYNAMICS;5.9;5.9. Enthalpy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2441;6. PHASE EQUILIBRIA;6.1;6.1. Normality of solution;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2441;6. PHASE EQUILIBRIA;6.2;6.2. Molality and mole fraction;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2441;6. PHASE EQUILIBRIA;6.3;6.3. Percentage by weight;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2441;6. PHASE EQUILIBRIA;6.4;6.4. Percentage of volume;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2441;6. PHASE EQUILIBRIA;6.5;6.5. Vapour pressure;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2441;6. PHASE EQUILIBRIA;6.6;6.6. Vapour pressure;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2441;6. PHASE EQUILIBRIA;6.7;6.7. Molecular weight;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2441;6. PHASE EQUILIBRIA;6.8;6.8. Efficiency comparison;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2441;6. PHASE EQUILIBRIA;6.9;6.9. Neutralisation;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.1;7.1. Number of electrons per second;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.10;7.10. Solubility of BaSO4;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.11;7.11. Iconic strength;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.12;7.12. Maximum concentration;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.13;7.13. Concentrations of ions;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.14;7.14. Ionization strength;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.15;7.15. Ionization strength;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.18;7.18. Relative strengths;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.19;7.19. PH of the solutions;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.2;7.2. Thickness of the deposit;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.20;7.20. PH and POH of the solutions;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.21;7.21. PH of the solution;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.22;7.22. PH of a buffer solution;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.23;7.23. Hydrolysis constant and degree of hydrolysis;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.25;7.25. Solubility;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.26;7.26. Solubility product;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.27;7.27. Concentrations of ions;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.28;7.28. Concentrations of ions;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.29;7.29. precipitation of cation;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.3;7.3. time of current supply;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.30;7.30. PH of the solution for precipitation;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.31;7.31. Solubility of CaF2;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.32;7.32. dG dH dS of the reaction;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.4;7.4. Cell constant and equivalent conductance;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.5;7.5. Transport number;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.6;7.6. Transport number;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.7;7.7. Ionic conductances and ionic mobilities;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2503;7. ELECTROCHEMISTRY;7.9;7.9. degree of dissociation and Ionization constant;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2504;8. Chemical Kinetics and Catalysis;8.10;8.10. Pseudo first order Rate constant;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2504;8. Chemical Kinetics and Catalysis;8.13;8.13. Order of the reaction;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2504;8. Chemical Kinetics and Catalysis;8.14;8.14. Half life of the reaction;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2504;8. Chemical Kinetics and Catalysis;8.18;8.18. Energy of activation;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2504;8. Chemical Kinetics and Catalysis;8.19;8.19. Ratio of reaction rates;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2504;8. Chemical Kinetics and Catalysis;8.20;8.20. Activation energy;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2504;8. Chemical Kinetics and Catalysis;8.21;8.21. Arrhenius constant;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2504;8. Chemical Kinetics and Catalysis;8.22;8.22. Rate constant;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2504;8. Chemical Kinetics and Catalysis;8.23;8.23. Standard Entropy change;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2504;8. Chemical Kinetics and Catalysis;8.3;8.3. First order rate constant and half life;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2504;8. Chemical Kinetics and Catalysis;8.4;8.4. First order rate constant;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2504;8. Chemical Kinetics and Catalysis;8.5;8.5. Minimum initial activity;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2504;8. Chemical Kinetics and Catalysis;8.7;8.7. Specific reaction rate;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2504;8. Chemical Kinetics and Catalysis;8.8;8.8. Order of the reaction;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2426;9. PHOTOCHEMISTRY;9.1;9.1. Optical path of the cell;correct;runtime; -821;Chemistry In Engineering And Technology Volume 1(J. C. Kuriacose And J. Rajaram);2426;9. PHOTOCHEMISTRY;9.2;9.2. Rate of formation;correct;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2068;1. Mole Balances;1.3;1.3. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2069;2. Conversion and Reactor Sizing;2.1;2.1. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2069;2. Conversion and Reactor Sizing;2.2;2.2. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2069;2. Conversion and Reactor Sizing;2.3;2.3. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2069;2. Conversion and Reactor Sizing;2.4;2.4. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2069;2. Conversion and Reactor Sizing;2.5;2.5. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2069;2. Conversion and Reactor Sizing;2.6;2.6. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2069;2. Conversion and Reactor Sizing;2.7;2.7. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2070;3. Rate Laws and Stoichiometry;3.5;3.5. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2071;4. Isothermal Reactor Design;4.1;4.1. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2071;4. Isothermal Reactor Design;4.10;4.10. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2071;4. Isothermal Reactor Design;4.11;4.11. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2071;4. Isothermal Reactor Design;4.2;4.2. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2071;4. Isothermal Reactor Design;4.4;4.4. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2071;4. Isothermal Reactor Design;4.5;4.5. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2071;4. Isothermal Reactor Design;4.6;4.6. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2071;4. Isothermal Reactor Design;4.7;4.7. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2071;4. Isothermal Reactor Design;4.8;4.8. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2071;4. Isothermal Reactor Design;4.9;4.9. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2072;5. Collection and Analysis of Rate Data;5.1;5.1. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2072;5. Collection and Analysis of Rate Data;5.2;5.2. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2072;5. Collection and Analysis of Rate Data;5.3;5.3. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2072;5. Collection and Analysis of Rate Data;5.4;5.4. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2073;6. Multiple Reactions;6.6;6.6. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2073;6. Multiple Reactions;6.8;6.8. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2074;7. Nonelementary Reaction Kinetics;7.7;7.7. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2074;7. Nonelementary Reaction Kinetics;7.8;7.8. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2074;7. Nonelementary Reaction Kinetics;7.9;7.9. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2075;8. Steady State Nonisothermal Reactor Design;8.10;8.10. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2075;8. Steady State Nonisothermal Reactor Design;8.11;8.11. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2075;8. Steady State Nonisothermal Reactor Design;8.12;8.12. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2075;8. Steady State Nonisothermal Reactor Design;8.3;8.3. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2075;8. Steady State Nonisothermal Reactor Design;8.4;8.4. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2075;8. Steady State Nonisothermal Reactor Design;8.6;8.6. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2075;8. Steady State Nonisothermal Reactor Design;8.7;8.7. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2075;8. Steady State Nonisothermal Reactor Design;8.9;8.9. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2076;9. Unsteady State Nonisothermal Reactor Design;9.1;9.1. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2076;9. Unsteady State Nonisothermal Reactor Design;9.2;9.2. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2076;9. Unsteady State Nonisothermal Reactor Design;9.3;9.3. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2076;9. Unsteady State Nonisothermal Reactor Design;9.4;9.4. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2076;9. Unsteady State Nonisothermal Reactor Design;9.8;9.8. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2077;10. Catalysis and Catalytic Reactors;10.3;10.3. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2077;10. Catalysis and Catalytic Reactors;10.5;10.5. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2077;10. Catalysis and Catalytic Reactors;10.7;10.7. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2077;10. Catalysis and Catalytic Reactors;13.8;13.8. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2078;11. External Diffusion Effects on Hetrogeneous Reactions;11.1;11.1. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2078;11. External Diffusion Effects on Hetrogeneous Reactions;11.3;11.3. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2078;11. External Diffusion Effects on Hetrogeneous Reactions;11.4;11.4. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2078;11. External Diffusion Effects on Hetrogeneous Reactions;11.5;11.5. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2079;13. Distributions of Residence Times for Chemical Reactions;13.8;13.8. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2079;13. Distributions of Residence Times for Chemical Reactions;13.9;13.9. clear;error;runtime; -824;Elements Of Chemical Reaction Engineering(H. S. Fogler);2080;14. Models for Nonideal Reactors;14.3;14.3. clear;error;runtime; -827;Chemistry For Environmental And Engineering Science(C. N. Sawyer, P. L. McCarty And G. F. Parkin);2177;2. Basic Concepts from General Chemistry;2.1a;2.1a. To find the equivalent weight;correct;runtime; -827;Chemistry For Environmental And Engineering Science(C. N. Sawyer, P. L. McCarty And G. F. Parkin);2147;9. Introduction to Water and Wastewater Analysis;9.1.a;9.1.a. To determine the TCE concentration;correct;runtime; -827;Chemistry For Environmental And Engineering Science(C. N. Sawyer, P. L. McCarty And G. F. Parkin);2147;9. Introduction to Water and Wastewater Analysis;9.1.b;9.1.b. To determine the TCE concentration;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2081;1. Introduction;1.2.1;1.2.1. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2082;2. Discrete Time Signals and Systems;2.01.09;2.01.09. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2082;2. Discrete Time Signals and Systems;2.1.09;2.1.09. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2082;2. Discrete Time Signals and Systems;2.1.2;2.1.2. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2082;2. Discrete Time Signals and Systems;2.1.24;2.1.24. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2082;2. Discrete Time Signals and Systems;2.1.25;2.1.25. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2082;2. Discrete Time Signals and Systems;2.1.6;2.1.6. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2082;2. Discrete Time Signals and Systems;2.1.7;2.1.7. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2082;2. Discrete Time Signals and Systems;2.1.8;2.1.8. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2082;2. Discrete Time Signals and Systems;2.1.9;2.1.9. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2086;3. The z Transformation and its Applications to the Analysis of LTI Systems;1.0;1.0. Graphical;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/830/CH1/EX1.0/: PATH DOES NOT EXIST -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2086;3. The z Transformation and its Applications to the Analysis of LTI Systems;3.1.1;3.1.1. Graphical;error;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2086;3. The z Transformation and its Applications to the Analysis of LTI Systems;3.1.2;3.1.2. Graphical;error;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2086;3. The z Transformation and its Applications to the Analysis of LTI Systems;3.1.4;3.1.4. Graphical;error;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2086;3. The z Transformation and its Applications to the Analysis of LTI Systems;3.1.5;3.1.5. Graphical;error;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2086;3. The z Transformation and its Applications to the Analysis of LTI Systems;3.2.01;3.2.01. Graphical;error;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2086;3. The z Transformation and its Applications to the Analysis of LTI Systems;3.2.1;3.2.1. Graphical;error;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2086;3. The z Transformation and its Applications to the Analysis of LTI Systems;3.2.10;3.2.10. Graphical;error;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2086;3. The z Transformation and its Applications to the Analysis of LTI Systems;3.2.2;3.2.2. Graphical;error;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2086;3. The z Transformation and its Applications to the Analysis of LTI Systems;3.2.3;3.2.3. Graphical;error;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2086;3. The z Transformation and its Applications to the Analysis of LTI Systems;3.2.4;3.2.4. Graphical;error;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2086;3. The z Transformation and its Applications to the Analysis of LTI Systems;3.2.6;3.2.6. Graphical;error;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2086;3. The z Transformation and its Applications to the Analysis of LTI Systems;3.2.7;3.2.7. Graphical;error;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2086;3. The z Transformation and its Applications to the Analysis of LTI Systems;3.2.9;3.2.9. Graphical;error;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2087;4. Frequency Analysis of Signal and Systems;4.02.7;4.02.7. Graphical;error;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2087;4. Frequency Analysis of Signal and Systems;4.1.2;4.1.2. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2087;4. Frequency Analysis of Signal and Systems;4.2.07;4.2.07. Graphical;error;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2087;4. Frequency Analysis of Signal and Systems;4.2.7;4.2.7. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2087;4. Frequency Analysis of Signal and Systems;4.3.4;4.3.4. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2087;4. Frequency Analysis of Signal and Systems;4.4.2;4.4.2. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2087;4. Frequency Analysis of Signal and Systems;4.4.4;4.4.4. Graphical;error;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2088;5. Discrete Fourier Transform its Properties and Applications;5.1.2;5.1.2. Graphical;error;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2088;5. Discrete Fourier Transform its Properties and Applications;5.1.3;5.1.3. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2088;5. Discrete Fourier Transform its Properties and Applications;5.2.1;5.2.1. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2088;5. Discrete Fourier Transform its Properties and Applications;5.3.1;5.3.1. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2088;5. Discrete Fourier Transform its Properties and Applications;5.4.1;5.4.1. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2089;6. Efficient Computation of DFT Fast Fourier Transform and Algorithms;6.11;6.11. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2089;6. Efficient Computation of DFT Fast Fourier Transform and Algorithms;6.4.1;6.4.1. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2089;6. Efficient Computation of DFT Fast Fourier Transform and Algorithms;6.4.2;6.4.2. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2089;6. Efficient Computation of DFT Fast Fourier Transform and Algorithms;6.8;6.8. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2090;7. Implementation of Discrete Time System;6.4.17;6.4.17. Graphical;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/830/CH6/EX6.4.17/: PATH DOES NOT EXIST -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2090;7. Implementation of Discrete Time System;7.6.3;7.6.3. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2090;7. Implementation of Discrete Time System;7.7.01;7.7.01. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2090;7. Implementation of Discrete Time System;7.7.1;7.7.1. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;08.3.6;08.3.6. Graphical;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/830/CH08/EX08.3.6/: PATH DOES NOT EXIST -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;1.08;1.08. Graphical;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/830/CH1/EX1.08/: PATH DOES NOT EXIST -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;1.8;1.8. Graphical;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/830/CH1/EX1.8/: PATH DOES NOT EXIST -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;2.8;2.8. Graphical;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/830/CH2/EX2.8/: PATH DOES NOT EXIST -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.03.06;8.03.06. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.03.5;8.03.5. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.03.6;8.03.6. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.10;8.10. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.2.1;8.2.1. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.2.2;8.2.2. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.2.3;8.2.3. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.2.4;8.2.4. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.2.5;8.2.5. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.2.6;8.2.6. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.3.05;8.3.05. Graphical;error;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.3.06;8.3.06. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.3.2;8.3.2. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.3.4;8.3.4. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.3.5;8.3.5. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.3.6;8.3.6. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.3.7;8.3.7. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.4.02;8.4.02. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.4.1;8.4.1. Graphical;error;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.4.2;8.4.2. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.5;8.5. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2094;8. Design of Digital Filters;8.6;8.6. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2091;10. Multirate Digital Signal Processing;10.5.1;10.5.1. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2091;10. Multirate Digital Signal Processing;10.5.2;10.5.2. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2091;10. Multirate Digital Signal Processing;10.6.1;10.6.1. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2091;10. Multirate Digital Signal Processing;10.8.1;10.8.1. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2091;10. Multirate Digital Signal Processing;10.8.2;10.8.2. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2091;10. Multirate Digital Signal Processing;10.9.1;10.9.1. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2092;11. Linear Predictions and Optimum Linear Filter;11.6.1;11.6.1. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2093;12. Power Spectrum Estimation;12.1.1;12.1.1. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2093;12. Power Spectrum Estimation;12.1.2;12.1.2. Graphical;correct;runtime; -830;Digital Signal Processing: Principle, Algorithms And Applications(J. G. Proakis And D. G. Manolakis);2093;12. Power Spectrum Estimation;12.5.1;12.5.1. Graphical;correct;runtime; -833;Electrical Machines(M. V. Despande);2157;1. Single phase transformer Principle and Constructions;1.1;1.1. Find the n ratio and load current referred to high voltage side and load impedance on low voltage side for full load and impedance referred to high voltage side;correct;runtime; -833;Electrical Machines(M. V. Despande);2157;1. Single phase transformer Principle and Constructions;1.2;1.2. Find Power factor on no load and active current and magnetising current and copper loss in the primary winding and core loss;correct;runtime; -833;Electrical Machines(M. V. Despande);2157;1. Single phase transformer Principle and Constructions;1.3;1.3. Find number of turns per limb on the high voltage and and low voltage sides;correct;runtime; -833;Electrical Machines(M. V. Despande);2157;1. Single phase transformer Principle and Constructions;1.4;1.4. Calculate equivalent resistance and reactance of lv side in terms of hv side And equivalent resistance and reactance of hv side in terms of lv side And total resistance and reactance of transformer in terms of hv side And total r and x in terms of lv side;correct;runtime; -833;Electrical Machines(M. V. Despande);2157;1. Single phase transformer Principle and Constructions;1.5;1.5. Find terminal voltage on load and voltage on load at high voltage terminals and efficiency of transformer;correct;runtime; -833;Electrical Machines(M. V. Despande);2157;1. Single phase transformer Principle and Constructions;1.6;1.6. Find impedance and percentage resistance and reactance;correct;runtime; -833;Electrical Machines(M. V. Despande);2158;2. Single phase transformer Operation and Testings;2.1;2.1. Find all day efficiency and commercial efficiency on full load and efficiency on half load;correct;runtime; -833;Electrical Machines(M. V. Despande);2158;2. Single phase transformer Operation and Testings;2.2;2.2. Find Efficiency of transformer at half load at and At what load will the efficiency be maximum and maximum;correct;runtime; -833;Electrical Machines(M. V. Despande);2158;2. Single phase transformer Operation and Testings;2.3;2.3. Find Percentage resistance and Regulation for power factors unity lagging and leading;correct;runtime; -833;Electrical Machines(M. V. Despande);2158;2. Single phase transformer Operation and Testings;2.4;2.4. Find Regulation on full load and at power factor lagging;correct;runtime; -833;Electrical Machines(M. V. Despande);2158;2. Single phase transformer Operation and Testings;2.5;2.5. Find Ro and Xo and Resistance reffered to lv side and Reactance reffered to lv side;correct;runtime; -833;Electrical Machines(M. V. Despande);2158;2. Single phase transformer Operation and Testings;2.6;2.6. Find voltage for hv voltage side on full load and at power factor lagging when secondary terminal voltage is 240 volts;correct;runtime; -833;Electrical Machines(M. V. Despande);2158;2. Single phase transformer Operation and Testings;2.7;2.7. Calculate ZXR reffered to hv side and Regulaton on full load at power factor lagging and Terminal voltage on lv side on full load at pf lagging and Efficiency of transformer when current 250A pf lagging is load connected to lv side and voltage at hv side;correct;runtime; -833;Electrical Machines(M. V. Despande);2158;2. Single phase transformer Operation and Testings;2.8;2.8. Determine Efficiency and Regulation at loading conditions;correct;runtime; -833;Electrical Machines(M. V. Despande);2158;2. Single phase transformer Operation and Testings;2.9;2.9. Find how they will share 750KVA load at power factor lagging;correct;runtime; -833;Electrical Machines(M. V. Despande);2159;3. Three Phase Transformer Operation And Testing;3.1;3.1. Find Secondary line voltage Line Current and output power for deltadelta and starstar and deltastar and stardelta;correct;runtime; -833;Electrical Machines(M. V. Despande);2159;3. Three Phase Transformer Operation And Testing;3.2;3.2. Calculate Phase and Line currents in High voltage and Low voltage windings of transformer;correct;runtime; -833;Electrical Machines(M. V. Despande);2159;3. Three Phase Transformer Operation And Testing;3.3;3.3. Find possible voltage ratio and output for connections BC11500V and AC2300V and BC2300V and AC11500V;correct;runtime; -833;Electrical Machines(M. V. Despande);2162;4. Elements of Transformer Design;4.1;4.1. Find Voltage per turn and area of core and area of conductor for lv and area of conductor for hv and Number of turns in lv and Number of turns in hv and Window area and Yoke and approx frame size and Copper used in windings;correct;runtime; -833;Electrical Machines(M. V. Despande);2162;4. Elements of Transformer Design;4.2;4.2. Find Voltage per turn and Area of core and Area of conductor for hv and Number of turns per phase in hv winding and Area of conductor in lv winding and Number of turns in lv winding and Window area and Yoke and frame size and copper used;correct;runtime; -833;Electrical Machines(M. V. Despande);2164;7. Principle And Construction of DC Machines;7.10;7.10. Calculate the speed of the motor when it is loaded and takes 60A from the mains;correct;runtime; -833;Electrical Machines(M. V. Despande);2164;7. Principle And Construction of DC Machines;7.11;7.11. Calculate Power and torque developed;correct;runtime; -833;Electrical Machines(M. V. Despande);2164;7. Principle And Construction of DC Machines;7.12;7.12. Determine per pole Number of cross magnetising ampereturns and Demagnetising ampereturns;correct;runtime; -833;Electrical Machines(M. V. Despande);2164;7. Principle And Construction of DC Machines;7.13;7.13. Find the time of Commutation;correct;runtime; -833;Electrical Machines(M. V. Despande);2164;7. Principle And Construction of DC Machines;7.14;7.14. Find average reactance voltage produce due to commutation;correct;runtime; -833;Electrical Machines(M. V. Despande);2164;7. Principle And Construction of DC Machines;7.15;7.15. Calculate the number of turns needed on each commutating pole;correct;runtime; -833;Electrical Machines(M. V. Despande);2164;7. Principle And Construction of DC Machines;7.3;7.3. Find effect of change in connection on voltage and current and output;correct;runtime; -833;Electrical Machines(M. V. Despande);2164;7. Principle And Construction of DC Machines;7.6;7.6. Select a two circuit armature winding for a dc machine;correct;runtime; -833;Electrical Machines(M. V. Despande);2164;7. Principle And Construction of DC Machines;7.7;7.7. Find Emf generated at 750rpm for lap wound And emf generated at 600rpm for wave wound And Speed to be driven for 400V for same flux per pole;correct;runtime; -833;Electrical Machines(M. V. Despande);2164;7. Principle And Construction of DC Machines;7.8;7.8. Calculate Total armature current And Current per armature path And Generated emf;correct;runtime; -833;Electrical Machines(M. V. Despande);2164;7. Principle And Construction of DC Machines;7.9;7.9. Find the speed at which it will run as a motor;correct;runtime; -833;Electrical Machines(M. V. Despande);2168;8. DC Machines Operations and Testing;8.10;8.10. Calculate efficiency of motor and generator;correct;runtime; -833;Electrical Machines(M. V. Despande);2168;8. DC Machines Operations and Testing;8.11;8.11. Calculate efficiency of motor;correct;runtime; -833;Electrical Machines(M. V. Despande);2168;8. DC Machines Operations and Testing;8.12;8.12. Find efficiency of motor;correct;runtime; -833;Electrical Machines(M. V. Despande);2168;8. DC Machines Operations and Testing;8.2;8.2. Find the current and voltage required;correct;runtime; -833;Electrical Machines(M. V. Despande);2168;8. DC Machines Operations and Testing;8.3;8.3. Find the resistance required;correct;runtime; -833;Electrical Machines(M. V. Despande);2168;8. DC Machines Operations and Testing;8.5;8.5. Find Speed at full load torque And Speed at double full load torque And Stalling torque;correct;runtime; -833;Electrical Machines(M. V. Despande);2168;8. DC Machines Operations and Testing;8.6;8.6. Find Input to generator from prime mover on full load and Efficiency on full load and Load current at which generator efficiency is maximum;correct;runtime; -833;Electrical Machines(M. V. Despande);2168;8. DC Machines Operations and Testing;8.7;8.7. Calculate Efficiency on full load and Efficiency on 40A input and Efficiency on 25A input and Full load speed regulation;correct;runtime; -833;Electrical Machines(M. V. Despande);2169;9. Elements of DC Machine Design;9.1;9.1. Find the dimensions of D and L;correct;runtime; -833;Electrical Machines(M. V. Despande);2169;9. Elements of DC Machine Design;9.2;9.2. Find values of the 5 steps in a 6 stud starter for a dc shunt motor;correct;runtime; -833;Electrical Machines(M. V. Despande);2170;11. Three Phase Induction Motors Principle and Characteristics;11.1;11.1. Find Number of poles and Percentage slip;correct;runtime; -833;Electrical Machines(M. V. Despande);2170;11. Three Phase Induction Motors Principle and Characteristics;11.10;11.10. Calculate Percentage slip And Rotor copper loss And Output from the rotor And Efficiency;correct;runtime; -833;Electrical Machines(M. V. Despande);2170;11. Three Phase Induction Motors Principle and Characteristics;11.11;11.11. Find Equivalent rotor current per phase And Stator current per phase And Power factor And Rotor input And Rotor copper losses And Torque And Mechanical power output from rotor And Stator input And Efficiency;correct;runtime; -833;Electrical Machines(M. V. Despande);2170;11. Three Phase Induction Motors Principle and Characteristics;11.12;11.12. Find Equivalent rotor current per phase And Stator current per phase And Power factor And Rotor input And copper losses And Torque And Mechanical power output from rotor And Stator input And Efficiency Solve it by APPROXIMATE equivalent circuit method;correct;runtime; -833;Electrical Machines(M. V. Despande);2170;11. Three Phase Induction Motors Principle and Characteristics;11.13;11.13. Find Equivalent rotor current And Stator current And Power factor And Stator input And Rotor input And Efficiency;correct;runtime; -833;Electrical Machines(M. V. Despande);2170;11. Three Phase Induction Motors Principle and Characteristics;11.2;11.2. Find Speed of motor And Percentage Slip;correct;runtime; -833;Electrical Machines(M. V. Despande);2170;11. Three Phase Induction Motors Principle and Characteristics;11.3;11.3. Calculate Number of poles And Slip And Slip for full load torque if total resistance in rotor circuit is doubled;correct;runtime; -833;Electrical Machines(M. V. Despande);2170;11. Three Phase Induction Motors Principle and Characteristics;11.4;11.4. Calculate Mechanical power output And Torque And Maximum Torque And Speed at maximum torque And Power output when torque is maximum;correct;runtime; -833;Electrical Machines(M. V. Despande);2170;11. Three Phase Induction Motors Principle and Characteristics;11.5;11.5. Find Speed of the motor And Speed at which torque will be maximum And Ratio of maximum to full load torque;correct;runtime; -833;Electrical Machines(M. V. Despande);2170;11. Three Phase Induction Motors Principle and Characteristics;11.6;11.6. Calculate Speed at which mechanical power from rotor will be maximum And Maximum power;correct;runtime; -833;Electrical Machines(M. V. Despande);2170;11. Three Phase Induction Motors Principle and Characteristics;11.7;11.7. Find Current per phase in the rotor when rotor is at standstill and star connected impedance per phase is connected in series with rotor And when rotor runs at 3 percentage slip with short circuit at the slip rings;correct;runtime; -833;Electrical Machines(M. V. Despande);2170;11. Three Phase Induction Motors Principle and Characteristics;11.8;11.8. Find Percentage reduction in stator voltage and the power factor of the rotor circuit;correct;runtime; -833;Electrical Machines(M. V. Despande);2170;11. Three Phase Induction Motors Principle and Characteristics;11.9;11.9. Find the rotor copper loss per phase if motor is running at slip of 4 percent Mechanical power developed;correct;runtime; -833;Electrical Machines(M. V. Despande);2171;12. Three Phase Induction Motor Operation And Testing;12.1;12.1. Calculate No load power factor And Core friction loss And rm And power factor on short circuit And Equivalent impedance in series circuit And Rotor resistance referred to stator And Stator leakage reactance And Rotor leakage reactance referred to stator;correct;runtime; -833;Electrical Machines(M. V. Despande);2171;12. Three Phase Induction Motor Operation And Testing;12.11;12.11. Calculate external resistance per phase;correct;runtime; -833;Electrical Machines(M. V. Despande);2171;12. Three Phase Induction Motor Operation And Testing;12.12;12.12. Find the dimensions of D and L;correct;runtime; -833;Electrical Machines(M. V. Despande);2171;12. Three Phase Induction Motor Operation And Testing;12.2;12.2. Find Starting current And Starting torque;correct;runtime; -833;Electrical Machines(M. V. Despande);2171;12. Three Phase Induction Motor Operation And Testing;12.5;12.5. Find starting current in terms of full load current;correct;runtime; -833;Electrical Machines(M. V. Despande);2171;12. Three Phase Induction Motor Operation And Testing;12.7;12.7. Find starting torque in terms of full load torque;correct;runtime; -833;Electrical Machines(M. V. Despande);2171;12. Three Phase Induction Motor Operation And Testing;12.8;12.8. Find the Percentage tappings required;correct;runtime; -833;Electrical Machines(M. V. Despande);2171;12. Three Phase Induction Motor Operation And Testing;12.9;12.9. Find the line current at start;correct;runtime; -833;Electrical Machines(M. V. Despande);2172;13. Synchronous Machines;13.1;13.1. Find the frequency of voltage generated;correct;runtime; -833;Electrical Machines(M. V. Despande);2172;13. Synchronous Machines;13.12;13.12. Calculate synchronous reactance and synchronous impedance per phase;correct;runtime; -833;Electrical Machines(M. V. Despande);2172;13. Synchronous Machines;13.13;13.13. Estimate terminal voltage for Same excitation And Load current at power factor lagging;correct;runtime; -833;Electrical Machines(M. V. Despande);2172;13. Synchronous Machines;13.2;13.2. Find Speed And number of poles;correct;runtime; -833;Electrical Machines(M. V. Despande);2172;13. Synchronous Machines;13.3;13.3. Find distribution factor of winding;correct;runtime; -833;Electrical Machines(M. V. Despande);2172;13. Synchronous Machines;13.4;13.4. Find coil span factor;correct;runtime; -833;Electrical Machines(M. V. Despande);2172;13. Synchronous Machines;13.5;13.5. Find frequency And Phase emf And Line emf;correct;runtime; -833;Electrical Machines(M. V. Despande);2172;13. Synchronous Machines;13.6;13.6. Find number of armature conductors in series per phase;correct;runtime; -833;Electrical Machines(M. V. Despande);2173;14. Synchronous Machines Generators;14.1;14.1. Find the excitation voltage in per unit;correct;runtime; -833;Electrical Machines(M. V. Despande);2173;14. Synchronous Machines Generators;14.10;14.10. Find Load supplied by second machine and its power factor And Power factor of total load;correct;runtime; -833;Electrical Machines(M. V. Despande);2173;14. Synchronous Machines Generators;14.2;14.2. Find regulation by Two reaction method and Synchronous impedance method;correct;runtime; -833;Electrical Machines(M. V. Despande);2173;14. Synchronous Machines Generators;14.3;14.3. Find Regulation and resultant excitation;correct;runtime; -833;Electrical Machines(M. V. Despande);2173;14. Synchronous Machines Generators;14.5;14.5. Find the regulation of the machine;correct;runtime; -833;Electrical Machines(M. V. Despande);2173;14. Synchronous Machines Generators;14.6;14.6. Find Synchronising power on full load And Synchronising torque;correct;runtime; -833;Electrical Machines(M. V. Despande);2173;14. Synchronous Machines Generators;14.9;14.9. Find Armature current of second machine And Power factor of ecach machine;correct;runtime; -833;Electrical Machines(M. V. Despande);2174;15. Synchronous Motors;15.6;15.6. Find Input power in KVA And Power factor;correct;runtime; -833;Electrical Machines(M. V. Despande);2174;15. Synchronous Motors;15.7;15.7. Find how much KVA should be supplied by synchronous motor And Power factor of synchronous motor;correct;runtime; -833;Electrical Machines(M. V. Despande);2174;15. Synchronous Motors;15.8;15.8. Find Power alternator can supply And Power factor of synchronous motor And Load taken by motor;correct;runtime; -833;Electrical Machines(M. V. Despande);2174;15. Synchronous Motors;15.9;15.9. Find efficiency of machine;correct;runtime; -833;Electrical Machines(M. V. Despande);2175;16. Single Phase Induction Motors;16.1;16.1. Find Input Current And Power factor And Input power And Torque due to forward revolving field And Torque due to backward revovlving field And Net torque and Output And Efficiency;correct;runtime; -833;Electrical Machines(M. V. Despande);2175;16. Single Phase Induction Motors;16.2;16.2. Find equivalent circuit resistance;correct;runtime; -833;Electrical Machines(M. V. Despande);2176;17. AC Commutator Motors;17.1;17.1. Find Speed And Power factor of motor;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2118;1. Definitions and Principles;1.1;1.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2119;2. Fluid Statics and its Application;2.1;2.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2119;2. Fluid Statics and its Application;2.2;2.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2120;4. Basic Equations of Fluid Flow;4.1;4.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2120;4. Basic Equations of Fluid Flow;4.2;4.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2120;4. Basic Equations of Fluid Flow;4.3;4.3. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2120;4. Basic Equations of Fluid Flow;4.4;4.4. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2121;5. Flow of Incompressible Fluids in Conduits and Thin Layers;5.1;5.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2122;6. Flow of Compressible Fluids;6.1;6.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2122;6. Flow of Compressible Fluids;6.2;6.2. clear;error;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2122;6. Flow of Compressible Fluids;6.3;6.3. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2123;7. Flow Past Immersed Bodies;7.1;7.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2123;7. Flow Past Immersed Bodies;7.2;7.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2123;7. Flow Past Immersed Bodies;7.3;7.3. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2124;8. Transportation and Metering of Fluids;8.1;8.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2124;8. Transportation and Metering of Fluids;8.2;8.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2124;8. Transportation and Metering of Fluids;8.3;8.3. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2124;8. Transportation and Metering of Fluids;8.4;8.4. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2124;8. Transportation and Metering of Fluids;8.5;8.5. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2124;8. Transportation and Metering of Fluids;8.6;8.6. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2125;9. Agitation and Mixing of Liquids;9.1;9.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2125;9. Agitation and Mixing of Liquids;9.2;9.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2125;9. Agitation and Mixing of Liquids;9.3;9.3. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2125;9. Agitation and Mixing of Liquids;9.4;9.4. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2125;9. Agitation and Mixing of Liquids;9.5;9.5. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2125;9. Agitation and Mixing of Liquids;9.6;9.6. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2125;9. Agitation and Mixing of Liquids;9.7;9.7. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2125;9. Agitation and Mixing of Liquids;9.8;9.8. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2126;10. Heat Transfer by Conduction;10.1;10.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2126;10. Heat Transfer by Conduction;10.2;10.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2126;10. Heat Transfer by Conduction;10.3;10.3. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2126;10. Heat Transfer by Conduction;10.4;10.4. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2126;10. Heat Transfer by Conduction;10.5;10.5. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2127;11. Principles of Heat Flow in Fluids;11.1;11.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2128;12. Heat Transfer to Fluids without Phase Change;12.1;12.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2128;12. Heat Transfer to Fluids without Phase Change;12.2;12.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2128;12. Heat Transfer to Fluids without Phase Change;12.3;12.3. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2128;12. Heat Transfer to Fluids without Phase Change;12.4;12.4. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2129;13. Heat Transfer to Fluids with Phase Change;13.1;13.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2129;13. Heat Transfer to Fluids with Phase Change;13.2;13.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2130;14. Radiation Heat Transfer;14.1;14.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2131;15. Heat Exchange Equipment;15.1;15.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2131;15. Heat Exchange Equipment;15.2;15.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2131;15. Heat Exchange Equipment;15.3;15.3. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2131;15. Heat Exchange Equipment;15.4;15.4. clear;error;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2132;16. Evaporation;16.1;16.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2132;16. Evaporation;16.2;16.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2132;16. Evaporation;16.3;16.3. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2133;17. Equilibrium Stage Operations;17.1;17.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2133;17. Equilibrium Stage Operations;17.2;17.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2134;18. Distillation;18.1;18.1. clear;warning;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2134;18. Distillation;18.2;18.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2134;18. Distillation;18.3;18.3. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2134;18. Distillation;18.4;18.4. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2134;18. Distillation;18.6;18.6. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2134;18. Distillation;18.7;18.7. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2134;18. Distillation;18.8;18.8. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2135;19. Introduction to Multicomponent Distillation;19.2;19.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2135;19. Introduction to Multicomponent Distillation;19.3;19.3. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2135;19. Introduction to Multicomponent Distillation;19.4;19.4. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2135;19. Introduction to Multicomponent Distillation;19.5;19.5. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2136;20. Leaching and Extraction;20.1;20.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2136;20. Leaching and Extraction;20.2;20.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2136;20. Leaching and Extraction;20.3;20.3. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2137;21. Principles of Diffusion and Mass Transer between Phases;21.1;21.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2137;21. Principles of Diffusion and Mass Transer between Phases;21.2;21.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2137;21. Principles of Diffusion and Mass Transer between Phases;21.3;21.3. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2137;21. Principles of Diffusion and Mass Transer between Phases;21.4;21.4. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2137;21. Principles of Diffusion and Mass Transer between Phases;21.5;21.5. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2137;21. Principles of Diffusion and Mass Transer between Phases;21.6;21.6. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2138;22. Gas Absorption;22.1;22.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2138;22. Gas Absorption;22.2;22.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2138;22. Gas Absorption;22.3;22.3. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2138;22. Gas Absorption;22.4;22.4. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2138;22. Gas Absorption;22.5;22.5. clear;error;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2138;22. Gas Absorption;22.6;22.6. clear;error;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2139;23. Humidification Operations;23.1;23.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2139;23. Humidification Operations;23.3;23.3. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2140;24. Drying of Solids;24.1;24.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2140;24. Drying of Solids;24.2;24.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2140;24. Drying of Solids;24.3;24.3. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2140;24. Drying of Solids;24.4;24.4. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2141;25. Adsorption;25.1;25.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2141;25. Adsorption;25.2;25.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2141;25. Adsorption;25.3;25.3. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2141;25. Adsorption;25.4;25.4. clear;error;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2142;26. Membrane Separation Processes;26.1;26.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2142;26. Membrane Separation Processes;26.4;26.4. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2142;26. Membrane Separation Processes;26.5;26.5. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2143;27. Crystallization;27.1;27.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2143;27. Crystallization;27.2;27.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2143;27. Crystallization;27.3;27.3. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2143;27. Crystallization;27.4;27.4. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2143;27. Crystallization;27.5;27.5. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2143;27. Crystallization;27.6;27.6. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2144;28. Properties Handling and Mixing of Particulate Soilds;28.1;28.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2144;28. Properties Handling and Mixing of Particulate Soilds;28.2;28.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2145;29. Size Reduction;29.1;29.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2145;29. Size Reduction;29.2;29.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2146;30. Mechanical Separations;30.1;30.1. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2146;30. Mechanical Separations;30.2;30.2. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2146;30. Mechanical Separations;30.3;30.3. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2146;30. Mechanical Separations;30.4;30.4. clear;correct;runtime; -839;Unit Operations Of Chemical Engineering(W. L. McCabe, J. C. Smith And P. Harriot);2146;30. Mechanical Separations;30.5;30.5. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2148;1. Signals and Systems;0.15;0.15. clear;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/842/CH0/EX0.15/: PATH DOES NOT EXIST -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2148;1. Signals and Systems;01.13;01.13. clear;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/842/CH01/EX01.13/: PATH DOES NOT EXIST -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2148;1. Signals and Systems;1.1;1.1. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2148;1. Signals and Systems;1.12;1.12. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2148;1. Signals and Systems;1.13;1.13. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2148;1. Signals and Systems;1.14;1.14. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2148;1. Signals and Systems;1.15;1.15. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2148;1. Signals and Systems;1.16;1.16. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2148;1. Signals and Systems;1.17;1.17. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2148;1. Signals and Systems;1.18;1.18. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2148;1. Signals and Systems;1.2;1.2. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2148;1. Signals and Systems;1.20;1.20. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2148;1. Signals and Systems;1.3;1.3. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2148;1. Signals and Systems;1.4;1.4. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2148;1. Signals and Systems;1.6;1.6. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2149;2. Linear Time Invariant Systems;2.1;2.1. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2149;2. Linear Time Invariant Systems;2.3;2.3. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2149;2. Linear Time Invariant Systems;2.4;2.4. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2149;2. Linear Time Invariant Systems;2.5;2.5. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2149;2. Linear Time Invariant Systems;2.6;2.6. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2149;2. Linear Time Invariant Systems;2.7;2.7. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2149;2. Linear Time Invariant Systems;2.8;2.8. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2150;3. Fourier Series Repreentation of Periodic Signals;3.10;3.10. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2150;3. Fourier Series Repreentation of Periodic Signals;3.11;3.11. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2150;3. Fourier Series Repreentation of Periodic Signals;3.12;3.12. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2150;3. Fourier Series Repreentation of Periodic Signals;3.13;3.13. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2150;3. Fourier Series Repreentation of Periodic Signals;3.14;3.14. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2150;3. Fourier Series Repreentation of Periodic Signals;3.15;3.15. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2150;3. Fourier Series Repreentation of Periodic Signals;3.2;3.2. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2150;3. Fourier Series Repreentation of Periodic Signals;3.3;3.3. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2150;3. Fourier Series Repreentation of Periodic Signals;3.4;3.4. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2150;3. Fourier Series Repreentation of Periodic Signals;3.5;3.5. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2150;3. Fourier Series Repreentation of Periodic Signals;3.6;3.6. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2150;3. Fourier Series Repreentation of Periodic Signals;3.7;3.7. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2150;3. Fourier Series Repreentation of Periodic Signals;3.8;3.8. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2154;4. The Cotntinuous Time Fourier Transform;4.1;4.1. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2154;4. The Cotntinuous Time Fourier Transform;4.12;4.12. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2154;4. The Cotntinuous Time Fourier Transform;4.18;4.18. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2154;4. The Cotntinuous Time Fourier Transform;4.2;4.2. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2154;4. The Cotntinuous Time Fourier Transform;4.22;4.22. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2154;4. The Cotntinuous Time Fourier Transform;4.23;4.23. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2154;4. The Cotntinuous Time Fourier Transform;4.4;4.4. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2154;4. The Cotntinuous Time Fourier Transform;4.5;4.5. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2154;4. The Cotntinuous Time Fourier Transform;4.6;4.6. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2154;4. The Cotntinuous Time Fourier Transform;4.7;4.7. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2154;4. The Cotntinuous Time Fourier Transform;4.8;4.8. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2154;4. The Cotntinuous Time Fourier Transform;4.9;4.9. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2160;5. The Discreet Time Fourier Transform;5.1;5.1. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2160;5. The Discreet Time Fourier Transform;5.12;5.12. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2160;5. The Discreet Time Fourier Transform;5.15;5.15. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2160;5. The Discreet Time Fourier Transform;5.2;5.2. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2160;5. The Discreet Time Fourier Transform;5.3;5.3. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2160;5. The Discreet Time Fourier Transform;5.5;5.5. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2160;5. The Discreet Time Fourier Transform;5.6;5.6. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2160;5. The Discreet Time Fourier Transform;5.7;5.7. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2160;5. The Discreet Time Fourier Transform;5.9;5.9. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2161;6. Time and Frequency Characterization of Signals and Systems;6.1;6.1. clear;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2161;6. Time and Frequency Characterization of Signals and Systems;6.3;6.3. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2161;6. Time and Frequency Characterization of Signals and Systems;6.4;6.4. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2161;6. Time and Frequency Characterization of Signals and Systems;6.5;6.5. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2163;7. Sampling;7.1;7.1. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2163;7. Sampling;7.2;7.2. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2163;7. Sampling;7.3;7.3. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2163;7. Sampling;7.4;7.4. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2163;7. Sampling;7.5;7.5. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.1;9.1. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.10;9.10. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.11;9.11. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.12;9.12. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.13;9.13. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.14;9.14. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.15;9.15. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.16;9.16. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.17;9.17. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.18;9.18. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.19;9.19. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.2;9.2. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.20;9.20. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.21;9.21. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.25;9.25. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.3;9.3. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.31;9.31. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.33;9.33. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.34;9.34. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.35;9.35. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.36;9.36. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.37;9.37. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.38;9.38. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.4;9.4. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.5;9.5. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.6;9.6. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.7;9.7. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.8;9.8. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2165;9. The Laplace Transform;9.9;9.9. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2166;10. The Z Transform;10.1;10.1. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2166;10. The Z Transform;10.10;10.10. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2166;10. The Z Transform;10.11;10.11. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2166;10. The Z Transform;10.12;10.12. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2166;10. The Z Transform;10.13;10.13. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2166;10. The Z Transform;10.18;10.18. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2166;10. The Z Transform;10.19;10.19. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2166;10. The Z Transform;10.2;10.2. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2166;10. The Z Transform;10.23;10.23. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2166;10. The Z Transform;10.25;10.25. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2166;10. The Z Transform;10.3;10.3. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2166;10. The Z Transform;10.33;10.33. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2166;10. The Z Transform;10.34;10.34. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2166;10. The Z Transform;10.36;10.36. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2166;10. The Z Transform;10.37;10.37. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2166;10. The Z Transform;10.4;10.4. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2166;10. The Z Transform;10.5;10.5. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2166;10. The Z Transform;10.6;10.6. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2166;10. The Z Transform;10.7;10.7. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2166;10. The Z Transform;10.9;10.9. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2167;11. Linear Feedback Systems;11.05;11.05. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2167;11. Linear Feedback Systems;11.09;11.09. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2167;11. Linear Feedback Systems;11.1;11.1. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2167;11. Linear Feedback Systems;11.2;11.2. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2167;11. Linear Feedback Systems;11.3;11.3. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2167;11. Linear Feedback Systems;11.5;11.5. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2167;11. Linear Feedback Systems;11.6;11.6. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2167;11. Linear Feedback Systems;11.7;11.7. clear;error;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2167;11. Linear Feedback Systems;11.8;11.8. clear;correct;runtime; -842;Signals And Systems(A. V. Oppenheim, A. S. Willsky And S. H. Nawab);2167;11. Linear Feedback Systems;11.9;11.9. clear;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2339;1. Basics in Computing;1.1;1.1. Conversion of Decimal to Binary;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2339;1. Basics in Computing;1.2;1.2. Conversion of Binary to Decimal;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2339;1. Basics in Computing;1.3;1.3. Conversion of Decimal to Binary and Octal;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2239;2. Solution of Algebraic and Transcendental Equations;2.1;2.1. Root using Bisection Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2239;2. Solution of Algebraic and Transcendental Equations;2.10;2.10. Newton Formula;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2239;2. Solution of Algebraic and Transcendental Equations;2.11;2.11. Newton Raphson Extended Formula;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2239;2. Solution of Algebraic and Transcendental Equations;2.12;2.12. Root using Muller Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2239;2. Solution of Algebraic and Transcendental Equations;2.13;2.13. Graeffe Root Squaring Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2239;2. Solution of Algebraic and Transcendental Equations;2.2;2.2. Root using Regula Falsi Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2239;2. Solution of Algebraic and Transcendental Equations;2.3;2.3. Root using Regula Falsi Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2239;2. Solution of Algebraic and Transcendental Equations;2.4;2.4. Root using Regula Falsi Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2239;2. Solution of Algebraic and Transcendental Equations;2.5;2.5. Root using Method of Iteration;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2239;2. Solution of Algebraic and Transcendental Equations;2.6;2.6. Root using Method of Iteration;warning;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2239;2. Solution of Algebraic and Transcendental Equations;2.7;2.7. Root using Newton Raphson Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2239;2. Solution of Algebraic and Transcendental Equations;2.8;2.8. Root using Newton Raphson Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2239;2. Solution of Algebraic and Transcendental Equations;2.9;2.9. Newton Scheme of Iteration;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2340;3. Solution of Linear System of Equations and Matrix Inversion;3.1;3.1. Gauss Elimination Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2340;3. Solution of Linear System of Equations and Matrix Inversion;3.10;3.10. Matrix Inverse using Gauss Jordan Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2340;3. Solution of Linear System of Equations and Matrix Inversion;3.2;3.2. Gauss Elimination Method with Partial Pivoting;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2340;3. Solution of Linear System of Equations and Matrix Inversion;3.3;3.3. Gauss Elimination Method with Partial Pivoting;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2340;3. Solution of Linear System of Equations and Matrix Inversion;3.4;3.4. Gauss Jordan Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2340;3. Solution of Linear System of Equations and Matrix Inversion;3.5;3.5. Crout Reduction Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2340;3. Solution of Linear System of Equations and Matrix Inversion;3.6;3.6. Jacobi Iterative Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2340;3. Solution of Linear System of Equations and Matrix Inversion;3.7;3.7. Gauss Seidel Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2340;3. Solution of Linear System of Equations and Matrix Inversion;3.8;3.8. Relaxation Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2340;3. Solution of Linear System of Equations and Matrix Inversion;3.9;3.9. Matrix Inverse using Gauss Elimination Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2341;4. Eigenvalue Problems;4.1;4.1. Eigenvalues and Eigenvectors;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2341;4. Eigenvalue Problems;4.2;4.2. Eigenvalues and Eigenvectors using Jacobi Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2341;4. Eigenvalue Problems;4.3;4.3. Eigenvalues using Jacobi Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2341;4. Eigenvalue Problems;4.4;4.4. Eigenvalues and Eigenvectors using Jacobi Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2342;5. Curve Fitting;5.1;5.1. Method of Group Averages;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2342;5. Curve Fitting;5.10;5.10. Method of Moments;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2342;5. Curve Fitting;5.2;5.2. Method of Group Averages;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2342;5. Curve Fitting;5.3;5.3. Method of Group Averages;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2342;5. Curve Fitting;5.4;5.4. Method of Least Squares;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2342;5. Curve Fitting;5.5;5.5. Method of Least Squares;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2342;5. Curve Fitting;5.6;5.6. Method of Least Squares;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2342;5. Curve Fitting;5.7;5.7. Method of Least Squares;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2342;5. Curve Fitting;5.8;5.8. Principle of Least Squares;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2342;5. Curve Fitting;5.9;5.9. Method of Moments;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.1;6.1. Forward Difference Table;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.10;6.10. Newton Forward Difference Interpolation Formula;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.11;6.11. Newton Forward Difference Interpolation Formula;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.12;6.12. Newton Backward Difference Interpolation Formula;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.13;6.13. Newton Backward Difference Interpolation Formula;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.14;6.14. Lagrange Interpolation Formula;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.15;6.15. Lagrange Interpolation Formula;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.16;6.16. Lagrange and Newton Divided Difference Interpolation Formulae;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.17;6.17. Newton Divided Difference Interpolation Formulae;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.18;6.18. Identity Proof for Newton and Lagrange Interpolation Formulae;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.19;6.19. Interpolation in Two Dimensions;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.2;6.2. Expression for Finite Difference Elements;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.20;6.20. Cubic Spline Curve;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.21;6.21. Cubic Spline Curve;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.22;6.22. Minima of a Tabulated Function;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.23;6.23. Maxima of a Tabulated Function;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.24;6.24. Determination of Function Value;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.3;6.3. Expression for Finite Difference Elements;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.4;6.4. Expression for Finite Difference Elements;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.5;6.5. Proof of Relation;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.6;6.6. Proofs of given Relations;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.7;6.7. Proof for Commutation of given Operations;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.8;6.8. Newton Forward Difference Interpolation Formula;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2343;6. Interpolation;6.9;6.9. Newton Forward Difference Interpolation Formula;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2344;7. Numerical Differentiation and Integration;7.1;7.1. Determination of Differential Function Value;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2344;7. Numerical Differentiation and Integration;7.10;7.10. Integral using Simpson One Third Rule;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2344;7. Numerical Differentiation and Integration;7.11;7.11. Romberg Integration Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2344;7. Numerical Differentiation and Integration;7.12;7.12. Double Integral using Trapezoidal Rule;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2344;7. Numerical Differentiation and Integration;7.13;7.13. Double Integral using Trapezoidal Rule;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2344;7. Numerical Differentiation and Integration;7.14;7.14. One Point Gauss Legendre Quadrature Formula;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2344;7. Numerical Differentiation and Integration;7.15;7.15. Two Point Gauss Legendre Quadrature Formula;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2344;7. Numerical Differentiation and Integration;7.16;7.16. Four Point Gauss Legendre Quadrature Formula;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2344;7. Numerical Differentiation and Integration;7.2;7.2. Determination of Differential Function Value;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2344;7. Numerical Differentiation and Integration;7.3;7.3. Determination of Differential Function Value;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2344;7. Numerical Differentiation and Integration;7.4;7.4. Determination of Differential Function Value;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2344;7. Numerical Differentiation and Integration;7.5;7.5. Richardson Extrapolation Limit;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2344;7. Numerical Differentiation and Integration;7.6;7.6. Integral using Trapezoidal and Simpson One Third Rule;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2344;7. Numerical Differentiation and Integration;7.7;7.7. Integral using Simpson One Third Rule;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2344;7. Numerical Differentiation and Integration;7.8;7.8. Integral using Trapezoidal and Simpson One Third Rule;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2344;7. Numerical Differentiation and Integration;7.9;7.9. Integral using Simpson One Third Rule;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2345;8. Ordinary Differential Equations;8.1;8.1. Initial Value Problem using Taylor Series Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2345;8. Ordinary Differential Equations;8.2;8.2. Initial Value Problem using Euler Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2345;8. Ordinary Differential Equations;8.3;8.3. Initial Value Problem using Modified Euler Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2345;8. Ordinary Differential Equations;8.4;8.4. Initial Value Problem using Second Order Runge Kutta Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2345;8. Ordinary Differential Equations;8.5;8.5. Initial Value Problem using Fourth Order Runge Kutta Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2345;8. Ordinary Differential Equations;8.6;8.6. Van Der Pol Equation using Fourth Order Runge Kutta Equation;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2345;8. Ordinary Differential Equations;8.7;8.7. Milne Predictor Corrector Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2345;8. Ordinary Differential Equations;8.8;8.8. Milne Predictor Corrector Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2345;8. Ordinary Differential Equations;8.9;8.9. Adam Moulton Predictor Corrector Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2346;9. Parabolic Partial Differential Equations;9.1;9.1. Taylor Series Expansion;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2346;9. Parabolic Partial Differential Equations;9.2;9.2. Initial Boundary Value Problem using Explicit Finite Difference Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2346;9. Parabolic Partial Differential Equations;9.3;9.3. Initial Boundary Value Problem using Explicit Finite Difference Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2346;9. Parabolic Partial Differential Equations;9.4;9.4. Crank Nicolson Finite Difference Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2346;9. Parabolic Partial Differential Equations;9.5;9.5. Crank Nicolson Finite Difference Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2346;9. Parabolic Partial Differential Equations;9.6;9.6. Crank Nicolson Scheme for Diffusion Equation;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2346;9. Parabolic Partial Differential Equations;9.7;9.7. Alternate Direction Implicit Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2347;10. Elliptical Partial Differential Equations;10.1;10.1. Laplace Equation using Five Point Formulae;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2347;10. Elliptical Partial Differential Equations;10.2;10.2. Temperature in Two Dimensional Geometry;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2347;10. Elliptical Partial Differential Equations;10.3;10.3. Laplace Equation in Two Dimension using Five Point Formulae;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2347;10. Elliptical Partial Differential Equations;10.4;10.4. Poisson Equation using Liebmann Iterative Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2347;10. Elliptical Partial Differential Equations;10.5;10.5. Laplace Equation using Liebmann Over Relaxation Method;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2348;11. Hyperbolic Partial Differential Equations;11.1;11.1. Initial Value Problem using Wave Equation;correct;runtime; -845;Numerical Methods For Scientists And Engineers(K. S. Rao);2348;11. Hyperbolic Partial Differential Equations;11.2;11.2. Initial Value Problem using Wave Equation;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2182;1. First chapter;1.1;1.1. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2182;1. First chapter;1.2;1.2. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2182;1. First chapter;1.4;1.4. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2182;1. First chapter;1.5;1.5. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2182;1. First chapter;1.6;1.6. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2182;1. First chapter;1.7;1.7. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2183;2. Second chapter;2.1;2.1. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2183;2. Second chapter;2.2;2.2. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2183;2. Second chapter;2.3;2.3. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2183;2. Second chapter;2.4;2.4. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2183;2. Second chapter;2.5;2.5. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2184;3. Third chapter;3.1;3.1. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2184;3. Third chapter;3.2;3.2. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2184;3. Third chapter;3.3;3.3. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2184;3. Third chapter;3.4;3.4. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2184;3. Third chapter;3.5;3.5. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2184;3. Third chapter;3.6;3.6. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2184;3. Third chapter;3.7;3.7. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2184;3. Third chapter;3.8;3.8. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2185;4. Fourth chapter;4.1;4.1. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2185;4. Fourth chapter;4.3;4.3. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2185;4. Fourth chapter;4.4;4.4. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2185;4. Fourth chapter;4.5;4.5. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2185;4. Fourth chapter;4.6;4.6. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2185;4. Fourth chapter;4.7;4.7. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2185;4. Fourth chapter;4.8;4.8. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2185;4. Fourth chapter;4.9;4.9. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2186;5. Fifth chapter;5.1;5.1. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2186;5. Fifth chapter;5.2;5.2. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2186;5. Fifth chapter;5.3;5.3. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2186;5. Fifth chapter;5.4;5.4. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2186;5. Fifth chapter;5.5;5.5. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2186;5. Fifth chapter;5.6;5.6. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2187;6. Sixth chapter;6.1;6.1. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2187;6. Sixth chapter;6.2;6.2. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2187;6. Sixth chapter;6.3;6.3. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2187;6. Sixth chapter;6.4;6.4. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2187;6. Sixth chapter;6.5;6.5. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2187;6. Sixth chapter;6.6;6.6. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2187;6. Sixth chapter;6.7;6.7. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2188;7. Seventh chapter;7.1;7.1. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2188;7. Seventh chapter;7.2;7.2. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2188;7. Seventh chapter;7.3;7.3. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2188;7. Seventh chapter;7.4;7.4. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2189;8. Eight chapter;8.1;8.1. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2189;8. Eight chapter;8.2;8.2. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2189;8. Eight chapter;8.3;8.3. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2189;8. Eight chapter;8.4;8.4. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2189;8. Eight chapter;8.5;8.5. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2189;8. Eight chapter;8.6;8.6. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2189;8. Eight chapter;8.7;8.7. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2189;8. Eight chapter;8.8;8.8. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2189;8. Eight chapter;8.9;8.9. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2190;9. Ninth chapter;9.1;9.1. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2190;9. Ninth chapter;9.2;9.2. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2191;10. Tenth chapter;10.1;10.1. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2191;10. Tenth chapter;10.10;10.10. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2191;10. Tenth chapter;10.11;10.11. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2191;10. Tenth chapter;10.12;10.12. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2191;10. Tenth chapter;10.2;10.2. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2191;10. Tenth chapter;10.3;10.3. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2191;10. Tenth chapter;10.5;10.5. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2191;10. Tenth chapter;10.6;10.6. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2191;10. Tenth chapter;10.7;10.7. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2191;10. Tenth chapter;10.8;10.8. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2191;10. Tenth chapter;10.9;10.9. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2192;11. Eleventh chapter;11.1;11.1. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2192;11. Eleventh chapter;11.10;11.10. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2192;11. Eleventh chapter;11.2;11.2. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2192;11. Eleventh chapter;11.3;11.3. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2192;11. Eleventh chapter;11.6;11.6. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2192;11. Eleventh chapter;11.7;11.7. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2192;11. Eleventh chapter;11.8;11.8. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2192;11. Eleventh chapter;11.9;11.9. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2193;12. Twelve chapter;12.1;12.1. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2193;12. Twelve chapter;12.2;12.2. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2193;12. Twelve chapter;12.3;12.3. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2193;12. Twelve chapter;12.4;12.4. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2193;12. Twelve chapter;12.5;12.5. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2193;12. Twelve chapter;12.6;12.6. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2193;12. Twelve chapter;12.7;12.7. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2194;13. Thirteen chapter;13.1;13.1. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2194;13. Thirteen chapter;13.2;13.2. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2194;13. Thirteen chapter;13.3;13.3. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2194;13. Thirteen chapter;13.4;13.4. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2194;13. Thirteen chapter;13.5;13.5. clear;correct;runtime; -848;Optical Fiber Communication(G. Keiser);2195;14. Fourteen chapter;14.10;14.10. clear;warning;runtime; -851;Digital Communication(S. Haykin);2199;1. Introduction;1.2;1.2. clear;correct;runtime; -851;Digital Communication(S. Haykin);2200;2. Fundamental Limit on Performance;2.1;2.1. clear;correct;runtime; -851;Digital Communication(S. Haykin);2200;2. Fundamental Limit on Performance;2.2;2.2. clear;correct;runtime; -851;Digital Communication(S. Haykin);2200;2. Fundamental Limit on Performance;2.3;2.3. clear;correct;runtime; -851;Digital Communication(S. Haykin);2200;2. Fundamental Limit on Performance;2.4;2.4. clear;correct;runtime; -851;Digital Communication(S. Haykin);2200;2. Fundamental Limit on Performance;2.5;2.5. clear;correct;runtime; -851;Digital Communication(S. Haykin);2200;2. Fundamental Limit on Performance;2.6;2.6. clear;correct;runtime; -851;Digital Communication(S. Haykin);2200;2. Fundamental Limit on Performance;2.7;2.7. clear;correct;runtime; -851;Digital Communication(S. Haykin);2201;3. Detection and Estimation;3.1;3.1. clear;correct;runtime; -851;Digital Communication(S. Haykin);2201;3. Detection and Estimation;3.2;3.2. clear;correct;runtime; -851;Digital Communication(S. Haykin);2201;3. Detection and Estimation;3.29;3.29. clear;correct;runtime; -851;Digital Communication(S. Haykin);2201;3. Detection and Estimation;3.3;3.3. clear;correct;runtime; -851;Digital Communication(S. Haykin);2201;3. Detection and Estimation;3.4;3.4. clear;correct;runtime; -851;Digital Communication(S. Haykin);2201;3. Detection and Estimation;3.6;3.6. clear;correct;runtime; -851;Digital Communication(S. Haykin);2202;4. Sampling Process;4.1;4.1. clear;error;runtime; -851;Digital Communication(S. Haykin);2202;4. Sampling Process;4.3;4.3. clear;correct;runtime; -851;Digital Communication(S. Haykin);2203;5. Waveform Coding Techniques;05.13;05.13. clear;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/851/CH05/EX05.13/: PATH DOES NOT EXIST -851;Digital Communication(S. Haykin);2203;5. Waveform Coding Techniques;5.1;5.1. clear;correct;runtime; -851;Digital Communication(S. Haykin);2203;5. Waveform Coding Techniques;5.13;5.13. clear;error;runtime; -851;Digital Communication(S. Haykin);2203;5. Waveform Coding Techniques;5.2;5.2. clear;correct;runtime; -851;Digital Communication(S. Haykin);2203;5. Waveform Coding Techniques;5.3;5.3. clear;correct;runtime; -851;Digital Communication(S. Haykin);2203;5. Waveform Coding Techniques;5.5;5.5. clear;correct;runtime; -851;Digital Communication(S. Haykin);2204;6. Baseband Shaping for Data Transmission;06.01;06.01. clear;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/851/CH06/EX06.01/: PATH DOES NOT EXIST -851;Digital Communication(S. Haykin);2204;6. Baseband Shaping for Data Transmission;06.1;06.1. clear;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/851/CH06/EX06.1/: PATH DOES NOT EXIST -851;Digital Communication(S. Haykin);2204;6. Baseband Shaping for Data Transmission;6.01;6.01. clear;correct;runtime; -851;Digital Communication(S. Haykin);2204;6. Baseband Shaping for Data Transmission;6.1;6.1. clear;correct;runtime; -851;Digital Communication(S. Haykin);2204;6. Baseband Shaping for Data Transmission;6.15;6.15. clear;error;runtime; -851;Digital Communication(S. Haykin);2204;6. Baseband Shaping for Data Transmission;6.2;6.2. clear;error;runtime; -851;Digital Communication(S. Haykin);2204;6. Baseband Shaping for Data Transmission;6.3;6.3. clear;error;runtime; -851;Digital Communication(S. Haykin);2204;6. Baseband Shaping for Data Transmission;6.4;6.4. clear;error;runtime; -851;Digital Communication(S. Haykin);2204;6. Baseband Shaping for Data Transmission;6.6;6.6. clear;error;runtime; -851;Digital Communication(S. Haykin);2204;6. Baseband Shaping for Data Transmission;6.7;6.7. clear;error;runtime; -851;Digital Communication(S. Haykin);2204;6. Baseband Shaping for Data Transmission;6.9;6.9. clear;error;runtime; -851;Digital Communication(S. Haykin);2205;7. Digital Modulation Techniques;7.01;7.01. clear;error;runtime; -851;Digital Communication(S. Haykin);2205;7. Digital Modulation Techniques;7.02;7.02. clear;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -851;Digital Communication(S. Haykin);2205;7. Digital Modulation Techniques;7.06;7.06. clear;correct;runtime; -851;Digital Communication(S. Haykin);2205;7. Digital Modulation Techniques;7.1;7.1. clear;correct;runtime; -851;Digital Communication(S. Haykin);2205;7. Digital Modulation Techniques;7.12.7.2;7.12.7.2. clear;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -851;Digital Communication(S. Haykin);2205;7. Digital Modulation Techniques;7.2;7.2. clear;correct;runtime; -851;Digital Communication(S. Haykin);2205;7. Digital Modulation Techniques;7.29;7.29. clear;error;runtime; -851;Digital Communication(S. Haykin);2205;7. Digital Modulation Techniques;7.3;7.3. clear;error;runtime; -851;Digital Communication(S. Haykin);2205;7. Digital Modulation Techniques;7.30;7.30. clear;error;runtime; -851;Digital Communication(S. Haykin);2205;7. Digital Modulation Techniques;7.31;7.31. clear;error;runtime; -851;Digital Communication(S. Haykin);2205;7. Digital Modulation Techniques;7.4;7.4. clear;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -851;Digital Communication(S. Haykin);2205;7. Digital Modulation Techniques;7.4.7.20;7.4.7.20. clear;correct;runtime; -851;Digital Communication(S. Haykin);2205;7. Digital Modulation Techniques;7.41;7.41. clear;correct;runtime; -851;Digital Communication(S. Haykin);2205;7. Digital Modulation Techniques;7.6;7.6. clear;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -851;Digital Communication(S. Haykin);2205;7. Digital Modulation Techniques;7.7;7.7. clear;correct;runtime; -851;Digital Communication(S. Haykin);2206;8. Error Control Coding;8.1;8.1. clear;correct;runtime; -851;Digital Communication(S. Haykin);2206;8. Error Control Coding;8.11;8.11. clear;correct;runtime; -851;Digital Communication(S. Haykin);2206;8. Error Control Coding;8.2;8.2. clear;correct;runtime; -851;Digital Communication(S. Haykin);2206;8. Error Control Coding;8.3;8.3. clear;correct;runtime; -851;Digital Communication(S. Haykin);2206;8. Error Control Coding;8.4;8.4. clear;correct;runtime; -851;Digital Communication(S. Haykin);2206;8. Error Control Coding;8.5;8.5. clear;correct;runtime; -851;Digital Communication(S. Haykin);2206;8. Error Control Coding;8.6;8.6. clear;correct;runtime; -851;Digital Communication(S. Haykin);2206;8. Error Control Coding;8.7;8.7. clear;error;runtime; -851;Digital Communication(S. Haykin);2206;8. Error Control Coding;8.8;8.8. clear;correct;runtime; -851;Digital Communication(S. Haykin);2207;9. Spread Spectrum Modulation;9.1;9.1. clear;error;runtime; -851;Digital Communication(S. Haykin);2207;9. Spread Spectrum Modulation;9.2;9.2. clear;error;runtime; -851;Digital Communication(S. Haykin);2207;9. Spread Spectrum Modulation;9.3;9.3. clear;correct;runtime; -851;Digital Communication(S. Haykin);2207;9. Spread Spectrum Modulation;9.4.9.5;9.4.9.5. clear;correct;runtime; -851;Digital Communication(S. Haykin);2207;9. Spread Spectrum Modulation;9.4.96;9.4.96. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2208;1. Vector Analysis;1.1;1.1. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2208;1. Vector Analysis;1.2;1.2. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2208;1. Vector Analysis;1.3;1.3. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2208;1. Vector Analysis;1.4;1.4. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2209;2. Columbs Law and Electric Field Intensity;2.1;2.1. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2209;2. Columbs Law and Electric Field Intensity;2.2;2.2. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2209;2. Columbs Law and Electric Field Intensity;2.3;2.3. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2210;3. Electric Flux Density Gausss Law and Divergence;3.1;3.1. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2210;3. Electric Flux Density Gausss Law and Divergence;3.2;3.2. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2210;3. Electric Flux Density Gausss Law and Divergence;3.3;3.3. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2210;3. Electric Flux Density Gausss Law and Divergence;3.4;3.4. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2210;3. Electric Flux Density Gausss Law and Divergence;3.5;3.5. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2211;4. Energy and Potential;4.1;4.1. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2211;4. Energy and Potential;4.2;4.2. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2211;4. Energy and Potential;4.3;4.3. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2212;5. Current and Conductors;5.1;5.1. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2212;5. Current and Conductors;5.2;5.2. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2212;5. Current and Conductors;5.3;5.3. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2213;6. Dielectrics and Capacitance;6.1;6.1. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2213;6. Dielectrics and Capacitance;6.2;6.2. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2213;6. Dielectrics and Capacitance;6.3;6.3. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2214;7. Poissons and Laplaces Equation;7.1;7.1. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2214;7. Poissons and Laplaces Equation;7.2;7.2. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2214;7. Poissons and Laplaces Equation;7.3;7.3. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2214;7. Poissons and Laplaces Equation;7.4;7.4. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2214;7. Poissons and Laplaces Equation;7.5;7.5. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2215;8. The Steady Magnetic Field;8.1;8.1. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2215;8. The Steady Magnetic Field;8.2;8.2. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2215;8. The Steady Magnetic Field;8.3;8.3. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2216;9. Magnetic Forces Materials and Inductance;9.1;9.1. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2216;9. Magnetic Forces Materials and Inductance;9.2;9.2. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2216;9. Magnetic Forces Materials and Inductance;9.3;9.3. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2216;9. Magnetic Forces Materials and Inductance;9.4;9.4. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2216;9. Magnetic Forces Materials and Inductance;9.5;9.5. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2216;9. Magnetic Forces Materials and Inductance;9.6;9.6. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2216;9. Magnetic Forces Materials and Inductance;9.7;9.7. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2216;9. Magnetic Forces Materials and Inductance;9.8;9.8. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2216;9. Magnetic Forces Materials and Inductance;9.9;9.9. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2217;11. Transmission Lines;11.1;11.1. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2217;11. Transmission Lines;11.10;11.10. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2217;11. Transmission Lines;11.11;11.11. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2217;11. Transmission Lines;11.12;11.12. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2217;11. Transmission Lines;11.2;11.2. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2217;11. Transmission Lines;11.3;11.3. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2217;11. Transmission Lines;11.4;11.4. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2217;11. Transmission Lines;11.5;11.5. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2217;11. Transmission Lines;11.6;11.6. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2217;11. Transmission Lines;11.7;11.7. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2217;11. Transmission Lines;11.8;11.8. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2217;11. Transmission Lines;11.9;11.9. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2218;12. The Uniform Plane Wave;12.1;12.1. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2218;12. The Uniform Plane Wave;12.2;12.2. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2218;12. The Uniform Plane Wave;12.3;12.3. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2218;12. The Uniform Plane Wave;12.4;12.4. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2218;12. The Uniform Plane Wave;12.5;12.5. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2218;12. The Uniform Plane Wave;12.6;12.6. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2218;12. The Uniform Plane Wave;12.7;12.7. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2219;13. Plane Wave Reflection and Dispersion;13.1;13.1. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2219;13. Plane Wave Reflection and Dispersion;13.10;13.10. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2219;13. Plane Wave Reflection and Dispersion;13.11;13.11. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2219;13. Plane Wave Reflection and Dispersion;13.2;13.2. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2219;13. Plane Wave Reflection and Dispersion;13.3;13.3. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2219;13. Plane Wave Reflection and Dispersion;13.4;13.4. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2219;13. Plane Wave Reflection and Dispersion;13.5;13.5. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2219;13. Plane Wave Reflection and Dispersion;13.6;13.6. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2219;13. Plane Wave Reflection and Dispersion;13.7;13.7. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2219;13. Plane Wave Reflection and Dispersion;13.8;13.8. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2219;13. Plane Wave Reflection and Dispersion;13.9;13.9. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2220;14. Guided Wave and Radiation;14.1;14.1. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2220;14. Guided Wave and Radiation;14.2;14.2. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2220;14. Guided Wave and Radiation;14.3;14.3. clear;error;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2220;14. Guided Wave and Radiation;14.4;14.4. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2220;14. Guided Wave and Radiation;14.5;14.5. clear;correct;runtime; -854;Engineering Electromagnetics(W. H. Hayt And J. A. Buck);2220;14. Guided Wave and Radiation;14.6;14.6. clear;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2710;1. Introduction;1.1;1.1. Air composition;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2710;1. Introduction;1.10;1.10. Flow relation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2710;1. Introduction;1.11;1.11. Average Velocity;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2710;1. Introduction;1.12;1.12. Velocity determination;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2710;1. Introduction;1.13;1.13. Velocity determination;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2710;1. Introduction;1.14;1.14. Dimensional analysis;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2710;1. Introduction;1.15;1.15. Dimensional analysis;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2710;1. Introduction;1.16;1.16. Dynamic similarity;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2710;1. Introduction;1.17;1.17. Dynamic similarity;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2710;1. Introduction;1.18;1.18. Nomographic chart;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2710;1. Introduction;1.19;1.19. Calculation using Nomograph;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2710;1. Introduction;1.2;1.2. Volume calculation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2710;1. Introduction;1.3;1.3. Gas Composition;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2710;1. Introduction;1.4;1.4. Volume calculation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2710;1. Introduction;1.5;1.5. Amount of CO2 released;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2710;1. Introduction;1.6;1.6. Vapor pressure;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2710;1. Introduction;1.7;1.7. Duhring Plot calculations;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2710;1. Introduction;1.8;1.8. Vapor Pressure of Mixture;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2710;1. Introduction;1.9;1.9. Vapor pressure;error;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.1;2.1. Ideal gas system;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.10;2.10. Precipitation of KClO3;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.11;2.11. Solubility of CO2;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.12;2.12. Vapor pressure calculation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.13;2.13. Boiling point calculation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.14;2.14. Colligative properties;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.15;2.15. Huggins Equation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.16;2.16. Molecular Formula;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.17;2.17. Molecular Formula;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.18;2.18. Molecular Formula;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.19;2.19. Molecular Formula;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.2;2.2. Mixture properties;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.20;2.20. Metal deposition;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.21;2.21. EMF of cell;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.22;2.22. EMF of cell;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.23;2.23. EMF of cell;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.24;2.24. Silver deposition;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.25;2.25. Electroplating time;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.26;2.26. Water hardness;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.27;2.27. Water hardness;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.28;2.28. Water hardness;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.29;2.29. Mixture composition;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.3;2.3. Equivalent metal mass;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.30;2.30. Mixture composition;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.31;2.31. Mixture properties;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.32;2.32. Humidity;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.4;2.4. Purity of Sodium Hydroxide;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.5;2.5. Carbon content formulation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.6;2.6. Combustion of gas;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.7;2.7. Sulphuric acid preparation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.8;2.8. Molarity Molality Normality Calculation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2715;2. Physico Chemical Calculations;2.9;2.9. Normality calculation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.1;3.1. Coal consumption;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.10;3.10. Crystallization;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.11;3.11. crystallization;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.12;3.12. Drying;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.13;3.13. Conditioning of air;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.14;3.14. Ammonia Synthesis;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.15;3.15. Enthalpy calculation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.16;3.16. Enthalpy calculation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.17;3.17. Enthalpy of formation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.18;3.18. Combustion;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.19;3.19. Heat of reaction;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.2;3.2. Nitric acid preparation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.20;3.20. Heat transfer;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.21;3.21. Calorific value;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.22;3.22. Coal combustion;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.23;3.23. Coal combustion;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.24;3.24. Petrol combustion;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.25;3.25. Air supply;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.26;3.26. CO2 cooling;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.27;3.27. Heating area;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.28;3.28. Distillation column;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.29;3.29. Crystallization;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.3;3.3. HCl production;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.30;3.30. Combustion;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.4;3.4. Acetylene consumption;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.5;3.5. Screen effectiveness;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.6;3.6. Absorption;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.7;3.7. Extraction;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.8;3.8. Distillation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2747;3. Material and Energy Balances;3.9;3.9. Distillation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.1;4.1. Water compressibility;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.10;4.10. Temperature rise;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.11;4.11. Bernoulli equation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.12;4.12. Power requirements;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.13;4.13. Hagen Poiseulle equation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.14;4.14. Pressure Head calculation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.15;4.15. Level difference calculation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.16;4.16. Energy cost calculation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.17;4.17. Pressure loss;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.18;4.18. Pressure gradient;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.19;4.19. Flow rate;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.2;4.2. Isothermal Compressibility;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.20;4.20. Pipe dimensions;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.21;4.21. Pressure gradient;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.22;4.22. Minimum fluidization velocity;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.23;4.23. Pumping of fluids;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.3;4.3. Viscosity;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.4;4.4. Streamline flow;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.5;4.5. Frictional losses;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.6;4.6. Velocity profile;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.7;4.7. Velocity profile;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.8;4.8. Boundary layer;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2714;4. Flow Of Fluids;4.9;4.9. Pipe flow;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2807;5. Heat Transfer;5.1;5.1. Heat conduction;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2807;5. Heat Transfer;5.10;5.10. Earth Temperature;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2807;5. Heat Transfer;5.11;5.11. Equilibrium temperature;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2807;5. Heat Transfer;5.12;5.12. Equilibrium temperature;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2807;5. Heat Transfer;5.13;5.13. Temperature calculation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2807;5. Heat Transfer;5.14;5.14. Solar constant;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2807;5. Heat Transfer;5.15;5.15. Evaporator;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2807;5. Heat Transfer;5.16;5.16. Evaporator;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2807;5. Heat Transfer;5.17;5.17. Evaporator;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2807;5. Heat Transfer;5.2;5.2. Heat conduction;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2807;5. Heat Transfer;5.3;5.3. Heat conduction through sphere;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2807;5. Heat Transfer;5.4;5.4. Composite wall;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2807;5. Heat Transfer;5.5;5.5. Composite Pipeline;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2807;5. Heat Transfer;5.6;5.6. Parellel Resistance;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2807;5. Heat Transfer;5.7;5.7. Heat transfer coefficient;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2807;5. Heat Transfer;5.8;5.8. Heat transfer coefficient;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2807;5. Heat Transfer;5.9;5.9. Earth Temperature;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.1;6.1. Diffusivity;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.10;6.10. Equilibrium Composition;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.11;6.11. Vapor Liquid Equilibrium;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.12;6.12. Distillation Column;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.13;6.13. Distillation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.14;6.14. Steam Distillation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.15;6.15. Mcabe Thiele Method;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.16;6.16. Liquid liquid extraction;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.17;6.17. Liquid liquid extraction;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.18;6.18. Humidity calculation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.19;6.19. Drying operation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.2;6.2. Absorption;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.20;6.20. Crystallization;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.21;6.21. Crystallization;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.3;6.3. Equimolar counter diffusion;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.4;6.4. Resistane to diffusion;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.5;6.5. Vapor diffusion;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.6;6.6. Flux of HCl;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.7;6.7. Vaporization;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.8;6.8. Gas Absorption;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2857;6. Mass Transfer;6.9;6.9. Equilibrium Composition;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2832;7. Chemical Kinetics;7.1;7.1. Constant volume reaction;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2832;7. Chemical Kinetics;7.10;7.10. Equilibrium conversion;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2832;7. Chemical Kinetics;7.11;7.11. Equilibrium conversion;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2832;7. Chemical Kinetics;7.12;7.12. Concentration calculation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2832;7. Chemical Kinetics;7.13;7.13. Equilibrium conversion;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2832;7. Chemical Kinetics;7.14;7.14. Equilibrium shifts;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2832;7. Chemical Kinetics;7.15;7.15. Rate equation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2832;7. Chemical Kinetics;7.16;7.16. Rate of reaction;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2832;7. Chemical Kinetics;7.2;7.2. Rate of reaction;error;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2832;7. Chemical Kinetics;7.3;7.3. Rate of reaction;error;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2832;7. Chemical Kinetics;7.4;7.4. Order of reaction;error;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2832;7. Chemical Kinetics;7.5;7.5. Rate Expression;error;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2832;7. Chemical Kinetics;7.6;7.6. Volume function;error;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2832;7. Chemical Kinetics;7.7;7.7. Pressure time relation;error;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2832;7. Chemical Kinetics;7.8;7.8. Entropy changes;error;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2832;7. Chemical Kinetics;7.9;7.9. Hydrocarbon cracking;error;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2855;8. Measuring Devices;8.1;8.1. Specific gravity;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2855;8. Measuring Devices;8.10;8.10. Pitot tube;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2855;8. Measuring Devices;8.11;8.11. Rotameter capacity;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2855;8. Measuring Devices;8.12;8.12. Flow rate calculation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2855;8. Measuring Devices;8.2;8.2. Specific gravity;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2855;8. Measuring Devices;8.3;8.3. Specific gravity;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2855;8. Measuring Devices;8.4;8.4. Mixture density;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2855;8. Measuring Devices;8.5;8.5. Viscosity calculation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2855;8. Measuring Devices;8.6;8.6. Solution viscosity;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2855;8. Measuring Devices;8.7;8.7. Flow rate calculation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2855;8. Measuring Devices;8.8;8.8. Venturi meter;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2855;8. Measuring Devices;8.9;8.9. Venturi meter;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2856;9. Computers and their application;9.1;9.1. Coiled tube pressure drop;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2856;9. Computers and their application;9.2;9.2. Heat exchanger pressure drop;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2856;9. Computers and their application;9.3;9.3. Heat exchanger area;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2856;9. Computers and their application;9.4;9.4. Batch distillation;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2856;9. Computers and their application;9.5;9.5. Gas mixture exit temperature;correct;runtime; -858;Introduction To Chemical Engineering(S. K. Ghoshal, S. K. Sanyal And S. Datta);2856;9. Computers and their application;9.6;9.6. Friction factor calculation;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2271;1. Pulse Fundamentals;1.1;1.1. Find Pulse amplitude PRF PW Duty cycle and MS ratio;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2271;1. Pulse Fundamentals;1.2;1.2. Determine Pulse amplitude tilt rise time fall time PW PRF mark to space ratio and duty cycle and tilt;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2271;1. Pulse Fundamentals;1.3;1.3. Determine average voltage level;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2271;1. Pulse Fundamentals;1.4;1.4. Determine the upper 3 db frequency of the amplifier;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2271;1. Pulse Fundamentals;1.5;1.5. Determine Minimum upper cut frequency and Minimum pulse width and duty cycle;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2271;1. Pulse Fundamentals;1.6;1.6. Calculate Rise time in output waveform and Minimum upper cut off frequency and displayed rise time;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2271;1. Pulse Fundamentals;1.7;1.7. Calculate lowest input frequency;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2271;1. Pulse Fundamentals;1.8;1.8. Determine upper cutoff frequency and lower cutoff frequency;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2271;1. Pulse Fundamentals;1.9;1.9. Determine upper cutoff frequency and lower cutoff frequency;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2273;2. Resistive Capacitive RC Circuits;2.10;2.10. Calculate output voltage for 10 V and 1 ms PW and 10 V and 2 ms PW and 20 V and 1 ms PW;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2273;2. Resistive Capacitive RC Circuits;2.11;2.11. Calculate output voltage for 10 V and 20 V;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2273;2. Resistive Capacitive RC Circuits;2.12;2.12. Calculate amplitude of output waveform for Rise time and Fall time;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2273;2. Resistive Capacitive RC Circuits;2.3;2.3. Calculate voltage after 8ms;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2273;2. Resistive Capacitive RC Circuits;2.4;2.4. Determine Ec at given time;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2273;2. Resistive Capacitive RC Circuits;2.5;2.5. Calculate Rise time and time for capacitor to charge to required amount and time required for complete charging;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2273;2. Resistive Capacitive RC Circuits;2.6;2.6. Calculate minimum square wave frequency;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2273;2. Resistive Capacitive RC Circuits;2.7;2.7. Determine fastest rise time;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2273;2. Resistive Capacitive RC Circuits;2.8;2.8. Calculate voltage at 14 ms;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2273;2. Resistive Capacitive RC Circuits;2.9;2.9. Determine max and min voltage at which capacitor voltage will settle;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2278;3. Diode Switching;3.1;3.1. Calculate Resistance and Forward Current and Power dissipation and Peak Reverse Voltage;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2278;3. Diode Switching;3.10;3.10. Calculate Capacitance C1and C2 and Diode reverse recovery time and input voltage;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2278;3. Diode Switching;3.3;3.3. Calculate resistance and amplitude of output signal;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2278;3. Diode Switching;3.4;3.4. Calculate Resistance and diode forward current;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2278;3. Diode Switching;3.5;3.5. Calculate Resistance;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2278;3. Diode Switching;3.6;3.6. Find Zener voltage and Resistance;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2278;3. Diode Switching;3.7;3.7. Calculate Capacitance and Resistance;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2278;3. Diode Switching;3.8;3.8. Find Capacitance and Resistance required to design the circuit;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2278;3. Diode Switching;3.9;3.9. Calculate Capacitance and Resistance and Zener Voltage;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2279;4. Transistor Switching;4.1;4.1. Determine hfe and hfe for changed resistor;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2279;4. Transistor Switching;4.10;4.10. Determine output voltage when Device is cut off and Device is switched on;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2279;4. Transistor Switching;4.2;4.2. Calculate the transistor power dissipation at Cutoff and Saturation and When Vce is 2V;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2279;4. Transistor Switching;4.3;4.3. Calculate Vce before input pulse is applied and at end of delay time and at end of turn on time and Total time;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2279;4. Transistor Switching;4.4;4.4. Determine Capacitance that can give max turn on time and Max frequency;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2279;4. Transistor Switching;4.5;4.5. Calculate Rc and Rb;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2279;4. Transistor Switching;4.6;4.6. Determine maximum value of capacitor;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2279;4. Transistor Switching;4.7;4.7. Design a transistor determining Rc and Rb and amplitude of output waveform;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2279;4. Transistor Switching;4.8;4.8. Calculate Rc and Rb and Cc;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2279;4. Transistor Switching;4.9;4.9. Determine required capacitance;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2281;5. IC Operational Amplifiers In Switching Circuits;5.1;5.1. Design a non inverting amplifier by determining Required resistances and output voltage;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2281;5. IC Operational Amplifiers In Switching Circuits;5.3;5.3. Design an inverter by determining input resistance and current and capacitance;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2281;5. IC Operational Amplifiers In Switching Circuits;5.4;5.4. Design a differentiating circuit by determining required resistances and capacitance;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2281;5. IC Operational Amplifiers In Switching Circuits;5.5;5.5. Calculate lowest operating frequency for circuit;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2282;6. Schmitt Trigger Circuits and Voltage Comparators;6.1;6.1. Determine schmitt trigger circuit components for designing it;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2282;6. Schmitt Trigger Circuits and Voltage Comparators;6.2;6.2. Find circuit components for designing a schmitt trigger circuit;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2282;6. Schmitt Trigger Circuits and Voltage Comparators;6.3;6.3. Determine Largest speed up capacitance;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2282;6. Schmitt Trigger Circuits and Voltage Comparators;6.4;6.4. Calculate R1 and R2 and Actual UTP and LTP;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2282;6. Schmitt Trigger Circuits and Voltage Comparators;6.5;6.5. Design Schmitt circuit components R1 and R2 and R3 and R4 and R5;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2282;6. Schmitt Trigger Circuits and Voltage Comparators;6.6;6.6. Design a non inverting schmitt trigger circuit;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2283;7. Monostable And Astable Multivibrators;7.1;7.1. Design a collector coupled monostable multivibrator by determining rc and rb and r2 and r1 and vb1;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2283;7. Monostable And Astable Multivibrators;7.2;7.2. Find capacitance;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2283;7. Monostable And Astable Multivibrators;7.3;7.3. Design a monostable multivibrator using op amp 741;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2283;7. Monostable And Astable Multivibrators;7.4;7.4. Design a astable multivibrator;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2283;7. Monostable And Astable Multivibrators;7.5;7.5. Design a astable multivibrator using 741 op amp;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2283;7. Monostable And Astable Multivibrators;7.6;7.6. Design a astable multivibrator using 311 comparator;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2284;8. IC Timer Circuits;8.1;8.1. Design a 555 monostable circuit;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2284;8. IC Timer Circuits;8.2;8.2. Design a 555 astable multivibrator;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2284;8. IC Timer Circuits;8.3;8.3. Determine actual PRF and duty cycle;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2284;8. IC Timer Circuits;8.4;8.4. Design a square wave generator using 7555 CMOS;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2287;9. Ramp Pulse and Function Generators;9.1;9.1. Design RC ramp generator;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2287;9. Ramp Pulse and Function Generators;9.12;9.12. Design a pulse generator using 8038 IC;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2287;9. Ramp Pulse and Function Generators;9.13;9.13. Calculate output maximum and minimum frequencies;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2287;9. Ramp Pulse and Function Generators;9.2;9.2. Design a linear ramp generator;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2287;9. Ramp Pulse and Function Generators;9.4;9.4. Determine Rs max and Rs min and minimum drain source voltage;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2287;9. Ramp Pulse and Function Generators;9.5;9.5. Design a UJT relaxation oscillator and find peak to peak output amplitude;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2287;9. Ramp Pulse and Function Generators;9.6;9.6. Design a transistor bootstrap ramp generator;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2287;9. Ramp Pulse and Function Generators;9.9;9.9. Calculate drain current;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2288;10. Basic Logic Gates and Logic Functions;10.1;10.1. Determine low and high voltage outputs and resistance for desinging the gate circuit;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2288;10. Basic Logic Gates and Logic Functions;10.2;10.2. Find minimum value of the resistance to design OR Gate;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2289;11. Logic Circuits;11.3;11.3. Determine output for given logic circuit;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2290;12. Integrated Circuit Logic Gates;12.1;12.1. Determine fan out for DTL NAND gate;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2290;12. Integrated Circuit Logic Gates;12.2;12.2. Determine Resistance to drive inputs of 5 TTL gates;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2290;12. Integrated Circuit Logic Gates;12.4;12.4. Design a interface circuit for CMOS;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2291;13. Bistable Multivibrators Flip Flops;13.1;13.1. Design a collector coupled bistable multivibrator;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2291;13. Bistable Multivibrators Flip Flops;13.4;13.4. Determine the capacitance for flip flop design and triggering frequency;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2292;14. Digital Counting and Measurement;14.1;14.1. Determine Resistors Rc and Rb;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2292;14. Digital Counting and Measurement;14.5;14.5. Determine meter indication when time base uses 6 decade counter and 4 decade counter;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2292;14. Digital Counting and Measurement;14.6;14.6. Determine required current;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2293;15. Sampling Conversion Modulation and Multiplexing;15.1;15.1. Determine the errors due to Rs and Rd;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2293;15. Sampling Conversion Modulation and Multiplexing;15.2;15.2. Determine capacitance and minimum acquisition time;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2293;15. Sampling Conversion Modulation and Multiplexing;15.3;15.3. Determine the error due to capacitance;correct;runtime; -863;Solid State Pulse Circuits(D. A. Bell);2293;15. Sampling Conversion Modulation and Multiplexing;15.4;15.4. Calculate the output voltage;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2604;2. Principles of Statics;2.1;2.1. chapter 2 example 1;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2604;2. Principles of Statics;2.2;2.2. chapter 2 example 2;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2604;2. Principles of Statics;2.3;2.3. chapter 2 example 3;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2604;2. Principles of Statics;2.4;2.4. chapter 2 example 4;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2605;3. Normal Force Shear Force Bending Moment and Torsion;3.1;3.1. chapter 3 example 1;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2605;3. Normal Force Shear Force Bending Moment and Torsion;3.12;3.12. chapter 3 example 12;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2605;3. Normal Force Shear Force Bending Moment and Torsion;3.2;3.2. chapter 3 example 2;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2605;3. Normal Force Shear Force Bending Moment and Torsion;3.3;3.3. chapter 3 example 3;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2607;4. Analysis of Pin jointed Trusses;4.2;4.2. chapter 4 example 2;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2607;4. Analysis of Pin jointed Trusses;4.3;4.3. chapter 4 example 3;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2607;4. Analysis of Pin jointed Trusses;4.4;4.4. chapter 4 example 4;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2607;4. Analysis of Pin jointed Trusses;4.6;4.6. chapter 4 example 6;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2609;5. Cables;5.1;5.1. chapter 5 example 1;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2609;5. Cables;5.2;5.2. chapter 5 example 2;error;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2609;5. Cables;5.4;5.4. chapter 5 example 4;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2609;5. Cables;5.5;5.5. chapter 5 example 5;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2611;6. Arches;6.1;6.1. chapter 6 example 1;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2611;6. Arches;6.2;6.2. chapter 6 example 2;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2613;7. Stress and Strain;7.1;7.1. chapter 7 example 1;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2613;7. Stress and Strain;7.2;7.2. chapter 7 example 2;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2613;7. Stress and Strain;7.3;7.3. chapter 7 example 3;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2613;7. Stress and Strain;7.4;7.4. chapter 7 example 4;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2613;7. Stress and Strain;7.5;7.5. chapter 7 example 5;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2613;7. Stress and Strain;7.6;7.6. chapter 7 example 6;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2613;7. Stress and Strain;7.7;7.7. chapter 7 example 7;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2613;7. Stress and Strain;7.8;7.8. chapter 7 example 8;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2618;9. Bending of Beams;9.1;9.1. chapter 9 example 1;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2618;9. Bending of Beams;9.2;9.2. chapter 9 example 2;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2618;9. Bending of Beams;9.3;9.3. chapter 9 example 3;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2618;9. Bending of Beams;9.4;9.4. chapter 9 example 4;error;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2618;9. Bending of Beams;9.5;9.5. chapter 9 example 5;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2618;9. Bending of Beams;9.6;9.6. chapter 9 example 6;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2618;9. Bending of Beams;9.8;9.8. chapter 9 example 8;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2619;11. Torsion of Beams;11.1;11.1. chapter 11 example 1;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2619;11. Torsion of Beams;11.2;11.2. chapter 11 example 2;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2619;11. Torsion of Beams;12.8;12.8. chapter 12 example 8;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2620;12. Composite Beams;12.1;12.1. chapter 12 example 1;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2620;12. Composite Beams;12.10;12.10. chapter 12 example 10;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2620;12. Composite Beams;12.11;12.11. chapter 12 example 11;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2620;12. Composite Beams;12.2;12.2. chapter 12 example 2;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2620;12. Composite Beams;12.3;12.3. chapter 12 example 3;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2620;12. Composite Beams;12.4;12.4. chapter 12 example 4;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2620;12. Composite Beams;12.5;12.5. chapter 12 example 5;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2620;12. Composite Beams;12.6;12.6. chapter 12 example 6;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2620;12. Composite Beams;12.7;12.7. chapter 12 example 7;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2620;12. Composite Beams;12.8;12.8. chapter 12 example 8;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2620;12. Composite Beams;12.9;12.9. chapter 12 example 9;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2621;14. Complex stress and Strain;14.1;14.1. chapter 14 example 1;error;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2621;14. Complex stress and Strain;14.10;14.10. chapter 14 example 10;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2621;14. Complex stress and Strain;14.2;14.2. chapter 14 example 2;error;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2621;14. Complex stress and Strain;14.3;14.3. chapter 14 example 3;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2621;14. Complex stress and Strain;14.5;14.5. chapter 14 example 5;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2621;14. Complex stress and Strain;14.6;14.6. chapter 14 example 6;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2621;14. Complex stress and Strain;14.7;14.7. chapter 14 example 7;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2621;14. Complex stress and Strain;14.8;14.8. chapter 14 example 8;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2621;14. Complex stress and Strain;14.9;14.9. chapter 14 example 9;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2622;15. Virtual Work and Energy Methods;15.3;15.3. chapter 15 example 3;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2623;16. Analysis of Statically Indeterminate Structures;16.1;16.1. chapter 16 example 1;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2623;16. Analysis of Statically Indeterminate Structures;16.13;16.13. chapter 16 example 13;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2623;16. Analysis of Statically Indeterminate Structures;16.18;16.18. chapter 16 example 18;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2623;16. Analysis of Statically Indeterminate Structures;16.19;16.19. chapter 16 example 19;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2623;16. Analysis of Statically Indeterminate Structures;16.2;16.2. chapter 16 example 2;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2623;16. Analysis of Statically Indeterminate Structures;16.20;16.20. chapter 16 example 20;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2623;16. Analysis of Statically Indeterminate Structures;16.21;16.21. chapter 16 example 21;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2623;16. Analysis of Statically Indeterminate Structures;16.22;16.22. chapter 16 example 22;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2623;16. Analysis of Statically Indeterminate Structures;16.23;16.23. chapter 16 example 23;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2623;16. Analysis of Statically Indeterminate Structures;16.3;16.3. chapter 16 example 3;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2623;16. Analysis of Statically Indeterminate Structures;16.4;16.4. chapter 16 example 4;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2623;16. Analysis of Statically Indeterminate Structures;16.7;16.7. chapter 16 example 7;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2624;18. Plastic Analysis of Beams and Frames;18.1;18.1. chapter 18 example 1;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2624;18. Plastic Analysis of Beams and Frames;18.2;18.2. chapter 18 example 2;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2624;18. Plastic Analysis of Beams and Frames;18.3;18.3. chapter 18 example 3;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2624;18. Plastic Analysis of Beams and Frames;18.7;18.7. chapter 18 example 7;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2625;20. Influenece Lines;20.1;20.1. chapter 20 example 1;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2625;20. Influenece Lines;20.2;20.2. chapter 20 example 2;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2625;20. Influenece Lines;20.3;20.3. chapter 20 example 3;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2625;20. Influenece Lines;20.4;20.4. chapter 20 example 4;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2625;20. Influenece Lines;20.6;20.6. chapter 20 example 6;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2625;20. Influenece Lines;20.7;20.7. chapter 20 example 7;correct;runtime; -866;Structural And Stress Analysis(T. H. G. Megson);2625;20. Influenece Lines;20.8;20.8. chapter 20 example 8;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2588;1. Introduction;1.1;1.1. chapter 1 example 1;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2588;1. Introduction;1.2;1.2. chapter 1 example 2;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2588;1. Introduction;1.3;1.3. chapter 1 example 3;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2588;1. Introduction;1.4;1.4. chapter 1 example 4;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2588;1. Introduction;1.5;1.5. chapter 1 example 5;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2588;1. Introduction;1.6;1.6. chapter 1 example 6;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2589;2. Force Systems Components Resultants Equivalence;2.3;2.3. chapter 2 example 3;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2589;2. Force Systems Components Resultants Equivalence;2.4;2.4. chapter 2 example 4;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2589;2. Force Systems Components Resultants Equivalence;2.5;2.5. chapter 2 example 5;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2589;2. Force Systems Components Resultants Equivalence;2.6;2.6. chapter 2 example 6;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2589;2. Force Systems Components Resultants Equivalence;2.7;2.7. chapter 2 example 7;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2589;2. Force Systems Components Resultants Equivalence;2.8;2.8. chapter 2 example 8;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2589;2. Force Systems Components Resultants Equivalence;2.9;2.9. chapter 2 example 9;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2590;3. Center of Gravity;3.1;3.1. chapter 3 example 1;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2590;3. Center of Gravity;3.2;3.2. chapter 3 example 2;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2590;3. Center of Gravity;3.3;3.3. chapter 3 example 3;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2590;3. Center of Gravity;3.4;3.4. chapter 3 example 4;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2590;3. Center of Gravity;3.5;3.5. chapter 3 example 5;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2591;4. Equilibrium;4.3;4.3. chapter 4 example 3;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2591;4. Equilibrium;4.4;4.4. chapter 4 example 4;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2591;4. Equilibrium;4.5;4.5. chapter 4 example 5;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2591;4. Equilibrium;4.6;4.6. chapter 4 example 6;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2591;4. Equilibrium;4.7;4.7. chapter 4 example 7;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2592;5. Force Analysis of Structures;5.1;5.1. chapter 5 example 1;error;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2592;5. Force Analysis of Structures;5.2;5.2. chapter 5 example 2;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2593;6. Friction;6.1;6.1. chapter 6 example 1;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2593;6. Friction;6.2;6.2. chapter 6 example 2;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2593;6. Friction;6.3;6.3. chapter 6 example 3;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2593;6. Friction;6.4;6.4. chapter 6 example 4;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2593;6. Friction;6.5;6.5. chapter 6 example 5;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2593;6. Friction;6.6;6.6. chapter 6 example 6;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2593;6. Friction;6.7;6.7. chapter 6 example 7;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2593;6. Friction;6.8;6.8. chapter 6 example 8;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2594;7. Moment of Inertia;7.1;7.1. chapter 7 example 1;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2594;7. Moment of Inertia;7.2;7.2. chapter 7 example 2;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2594;7. Moment of Inertia;7.3;7.3. chapter 7 example 3;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2594;7. Moment of Inertia;7.4;7.4. chapter 7 example 4;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2594;7. Moment of Inertia;7.5;7.5. chapter 7 example 5;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2594;7. Moment of Inertia;7.6;7.6. chapter 7 example 6;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2594;7. Moment of Inertia;7.8;7.8. chapter 7 example 8;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2595;8. Concept of Stress;8.1;8.1. chapter 8 example 1;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2595;8. Concept of Stress;8.2;8.2. chapter 8 example 2;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2595;8. Concept of Stress;8.3;8.3. chapter 8 example 3;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2595;8. Concept of Stress;8.4;8.4. chapter 8 example 4;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2595;8. Concept of Stress;8.5;8.5. chapter 8 example 5;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2595;8. Concept of Stress;8.6;8.6. chapter 8 example 6;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2595;8. Concept of Stress;8.7;8.7. chapter 8 example 7;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2595;8. Concept of Stress;8.8;8.8. chapter 8 example 8;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2596;9. Concept of Strain;9.1;9.1. chapter 9 example 1;error;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2596;9. Concept of Strain;9.10;9.10. chapter 9 example 10;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2596;9. Concept of Strain;9.11;9.11. chapter 9 example 11;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2596;9. Concept of Strain;9.2;9.2. chapter 9 example 2;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2596;9. Concept of Strain;9.4;9.4. chapter 9 example 4;error;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2596;9. Concept of Strain;9.5;9.5. chapter 9 example 5;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2596;9. Concept of Strain;9.6;9.6. chapter 9 example 6;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2596;9. Concept of Strain;9.7;9.7. chapter 9 example 7;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2596;9. Concept of Strain;9.8;9.8. chapter 9 example 8;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2596;9. Concept of Strain;9.9;9.9. chapter 9 example 9;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2597;10. Torsion;10.1;10.1. chapter 10 example 1;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2597;10. Torsion;10.10;10.10. chapter 10 example 10;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2597;10. Torsion;10.11;10.11. chapter 10 example 11;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2597;10. Torsion;10.2;10.2. chapter 10 example 2;error;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2597;10. Torsion;10.3;10.3. chapter 10 example 3;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2597;10. Torsion;10.4;10.4. chapter 10 example 4;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2597;10. Torsion;10.5;10.5. chapter 10 example 5;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2597;10. Torsion;10.6;10.6. chapter 10 example 6;error;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2597;10. Torsion;10.7;10.7. chapter 10 example 7;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2597;10. Torsion;10.8;10.8. chapter 10 example 8;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2598;12. Stresses in Beam;12.1;12.1. chapter 12 example 1;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2598;12. Stresses in Beam;12.10;12.10. chapter 12 example 10;error;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2598;12. Stresses in Beam;12.2;12.2. chapter 12 example 2;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2598;12. Stresses in Beam;12.3;12.3. chapter 12 example 3;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2598;12. Stresses in Beam;12.4;12.4. chapter 12 example 4;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2598;12. Stresses in Beam;12.5;12.5. chapter 12 example 5;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2598;12. Stresses in Beam;12.6;12.6. chapter 12 example 6;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2598;12. Stresses in Beam;12.7;12.7. chapter 12 example 7;error;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2598;12. Stresses in Beam;12.8;12.8. chapter 12 example 8;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2598;12. Stresses in Beam;12.9;12.9. chapter 12 example 9;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2599;13. Deflection in Beams;13.1;13.1. chapter 13 example 1;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2599;13. Deflection in Beams;13.2;13.2. chapter 13 example 2;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2599;13. Deflection in Beams;13.3;13.3. chapter 13 example 3;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2599;13. Deflection in Beams;13.5;13.5. chapter 13 example 5;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2599;13. Deflection in Beams;13.6;13.6. chapter 13 example 6;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2599;13. Deflection in Beams;13.7;13.7. chapter 13 example 7;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2599;13. Deflection in Beams;13.8;13.8. chapter 13 example 8;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2599;13. Deflection in Beams;13.9;13.9. chapter 13 example 9;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2601;14. Combined Loading;14.1;14.1. chapter 14 example 1;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2601;14. Combined Loading;14.10;14.10. chapter 14 example 10;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2601;14. Combined Loading;14.11;14.11. chapter 14 example 11;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2601;14. Combined Loading;14.12;14.12. chapter 14 example 12;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2601;14. Combined Loading;14.13;14.13. chapter 14 example 13;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2601;14. Combined Loading;14.2;14.2. chapter 14 example 2;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2601;14. Combined Loading;14.3;14.3. chapter 14 example 3;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2601;14. Combined Loading;14.4;14.4. chapter 14 example 4;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2601;14. Combined Loading;14.5;14.5. chapter 14 example 5;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2601;14. Combined Loading;14.6;14.6. chapter 14 example 6;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2601;14. Combined Loading;14.7;14.7. chapter 14 example 7;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2601;14. Combined Loading;14.8;14.8. chapter 14 example 8;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2601;14. Combined Loading;14.9;14.9. chapter 14 example 9;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2602;15. Welded Bolted and Riveted Connection;15.1;15.1. chapter 15 example 1;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2602;15. Welded Bolted and Riveted Connection;15.2;15.2. chapter 15 example 2;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2602;15. Welded Bolted and Riveted Connection;15.3;15.3. chapter 15 example 3;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2602;15. Welded Bolted and Riveted Connection;15.4;15.4. chapter 15 example 4;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2602;15. Welded Bolted and Riveted Connection;15.5;15.5. chapter 15 example 5;error;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2602;15. Welded Bolted and Riveted Connection;15.6;15.6. chapter 15 example 6;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2602;15. Welded Bolted and Riveted Connection;15.7;15.7. chapter 15 example 7;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2603;16. Columns;16.1;16.1. chapter 16 example 1;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2603;16. Columns;16.2;16.2. chapter 16 example 2;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2603;16. Columns;16.3;16.3. chapter 16 example 3;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2603;16. Columns;16.4;16.4. chapter 16 example 4;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2603;16. Columns;16.5;16.5. chapter 16 example 5;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2603;16. Columns;16.6;16.6. chapter 16 example 6;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2603;16. Columns;16.7;16.7. chapter 16 example 7;correct;runtime; -869;Statics And Strength Of Materials(I. J. Levinson);2603;16. Columns;16.8;16.8. chapter 16 example 8;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2304;1. Measurement measurement units and standards and standards;1.3;1.3. find system accuracy system precision;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2304;1. Measurement measurement units and standards and standards;1.5;1.5. Find resolution of the meter;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2356;2. Errors and their analysis;2.1;2.1. Find maximum and minimum value of resistor;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2356;2. Errors and their analysis;2.10;2.10. Find volume percentage error and absolute error;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2356;2. Errors and their analysis;2.11;2.11. Find unknown resistance percent error and error in ohm;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2356;2. Errors and their analysis;2.12;2.12. Find arithmetic mean;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2356;2. Errors and their analysis;2.13;2.13. Find deviation;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2356;2. Errors and their analysis;2.14;2.14. Find deviation;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2356;2. Errors and their analysis;2.15;2.15. find arithmetic mean standard deviation and probable error of onereading;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2356;2. Errors and their analysis;2.16;2.16. Find a arithmetic mean b deviation of each value c algebric sum of deviation d average deviation e standard deviation;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2356;2. Errors and their analysis;2.17;2.17. find a arithmetic mean b deviation from mean c average deviation d standard deviation e variance f probable reading of one error;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2356;2. Errors and their analysis;2.2;2.2. Find limiting error in percentage;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2356;2. Errors and their analysis;2.3;2.3. Find unknown resistance relative limiting error in percentage and in ohms;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2356;2. Errors and their analysis;2.4;2.4. Find limiting error;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2356;2. Errors and their analysis;2.5;2.5. Find magnitude of limiting error fot R1 and R2;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2356;2. Errors and their analysis;2.6;2.6. Find error in computed value of power dissipation;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2356;2. Errors and their analysis;2.7;2.7. find the limiting error for the power calculated;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2356;2. Errors and their analysis;2.8;2.8. Find limiting error;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2356;2. Errors and their analysis;2.9;2.9. Find limiting error when measured voltage is a V1 b V2;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2403;3. Transducers;3.2;3.2. Find change in resistance;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2403;3. Transducers;3.3;3.3. Find output voltage of an ac LVDT for a minus point 3 inch b minus point 25 inch;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2403;3. Transducers;3.4;3.4. Find sensitivity of LVDT;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2403;3. Transducers;3.5;3.5. Find output voltage;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2403;3. Transducers;3.6;3.6. Find a Sensitivity of LVDT b sensitivity of entire setup c resolution of the instrument;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2403;3. Transducers;3.7;3.7. Find value of capacitance after application of pressure;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2403;3. Transducers;3.8;3.8. Find thermoelectric sensitivity and emf developed;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2403;3. Transducers;3.9;3.9. Find value of protection resistance;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2409;4. Bridge measurement;4.1;4.1. Find value of unknown resistance and fractional uncertainty in its value;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2409;4. Bridge measurement;4.10;4.10. find value of arm CD;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2409;4. Bridge measurement;4.11;4.11. find value of arm CD;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2409;4. Bridge measurement;4.12;4.12. find value of arm AD;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2409;4. Bridge measurement;4.13;4.13. find value of frequency of the bridge arm resistance of arm AD;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2409;4. Bridge measurement;4.2;4.2. Find output voltage;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2409;4. Bridge measurement;4.3;4.3. Find temperature at which thevenin voltage is 50mV;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2409;4. Bridge measurement;4.4;4.4. Find deflection of the galvenometer;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2409;4. Bridge measurement;4.5;4.5. Find limiting value of unknown resistance;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2409;4. Bridge measurement;4.6;4.6. Find magnitude and phase angle of Z4 arm;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2409;4. Bridge measurement;4.7;4.7. find value of unknown inductance resistance and Q for maxwell bridge;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2409;4. Bridge measurement;4.8;4.8. find relative permittivity of specimen;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2409;4. Bridge measurement;4.9;4.9. Find equivalent parallel resistance and capacitance;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2410;5. Analog meters;5.1;5.1. Find terminal voltage when load impedance is a 10 ohm b 20 ohm c 40 ohm;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2410;5. Analog meters;5.10;5.10. Find reading of voltmeter and percentage error when a sensitivity of voltmeter is 100 kilo ohm per volt b sensitivity of voltmeter is 500 kilo ohm per volt;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2410;5. Analog meters;5.11;5.11. Find a value of R1 and R2 b change in value of R2 c half scale deflection;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2410;5. Analog meters;5.12;5.12. Find R1 and Rsh;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2410;5. Analog meters;5.13;5.13. Find value of required multiplier resistance;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2410;5. Analog meters;5.14;5.14. Find value of multiplier resistance;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2410;5. Analog meters;5.15;5.15. Find value of multiplier resistance;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2410;5. Analog meters;5.2;5.2. Find load current when varible load are a 100 ohm b10 ohm;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2410;5. Analog meters;5.3;5.3. Find equivalant voltage source of the ac current source;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2410;5. Analog meters;5.4;5.4. Find equivalant current source;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2410;5. Analog meters;5.5;5.5. Find value of shunt resistance for ammeter;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2410;5. Analog meters;5.6;5.6. Find value of shunt resistance for the range a 0 to 1A b 0 to 5A c 0 to 10A;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2410;5. Analog meters;5.8;5.8. Find the value of multiplier resistance for the range a 0 to 10V b 0 to 50V c 0 to 100V d 0 to 200V;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2410;5. Analog meters;5.9;5.9. Find the value of multiplier resistance for the range a 0 to 10V b 0 to 50V c 0 to 100V d 0 to 200V using sensitivity method;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2411;6. data converters;6.1;6.1. Find output voltage for a binary input a 1111 b 1100;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2411;6. data converters;6.10;6.10. Find input voltage;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2411;6. data converters;6.11;6.11. Find a output voltage after 1 sec b fall time of reference voltage waveform;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2411;6. data converters;6.2;6.2. Find output voltage;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2411;6. data converters;6.3;6.3. Find output voltage if input is 101101111;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2411;6. data converters;6.4;6.4. Find values of a LSB b MSB c full scale output;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2411;6. data converters;6.5;6.5. Find resolution and voltage;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2411;6. data converters;6.6;6.6. Find conversion time required for invertor;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2411;6. data converters;6.9;6.9. Find total number of pulses and display reading;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2412;7. Display devices and digital systems;7.1;7.1. convert 1101 into decimal;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2412;7. Display devices and digital systems;7.2;7.2. convert 17 octal into decimal;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2412;7. Display devices and digital systems;7.20;7.20. Find input frequency applied to the system;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2412;7. Display devices and digital systems;7.21;7.21. find frequency of the system;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2412;7. Display devices and digital systems;7.22;7.22. find frequency time period of the system;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2412;7. Display devices and digital systems;7.23;7.23. Find a resolution of the voltmeter b display of point 6368 in voltmeter on the 10V range c display of point 6368 in voltmeter on the 1V range;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2412;7. Display devices and digital systems;7.24;7.24. Find a resolution of the voltmeter b display of 16 point 58 in voltmeter on the 10V range c display of point 7254 in voltmeter on the 1V and 10V range;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2412;7. Display devices and digital systems;7.25;7.25. find out range of measured reading;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2412;7. Display devices and digital systems;7.3;7.3. convert 1E hexadecimal into decimal;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2425;8. cathode ray oscilloscope;8.1;8.1. find deflection sensitivity of CRO;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2425;8. cathode ray oscilloscope;8.10;8.10. what will be the setting of time base knob;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2425;8. cathode ray oscilloscope;8.11;8.11. Find ratio of frequencies of vertical and horizontal signals;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2425;8. cathode ray oscilloscope;8.12;8.12. find phase angle;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2425;8. cathode ray oscilloscope;8.13;8.13. Find bandwidth of CRO;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2425;8. cathode ray oscilloscope;8.2;8.2. Find peak to peak amplitude of the signal and frequency of the signal;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2425;8. cathode ray oscilloscope;8.3;8.3. Find amplitude of the waveform;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2425;8. cathode ray oscilloscope;8.4;8.4. Find rms value of signal under test;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2425;8. cathode ray oscilloscope;8.5;8.5. Find value of current;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2425;8. cathode ray oscilloscope;8.6;8.6. Find value of current;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2425;8. cathode ray oscilloscope;8.7;8.7. Find peak amplitude and frequency of the signal;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2425;8. cathode ray oscilloscope;8.8;8.8. Find frequency of horizontal signal;correct;runtime; -876;Electronic Measurements And Instrumentation(P. Sharma);2425;8. cathode ray oscilloscope;8.9;8.9. Find frequency of the waveform;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2306;1. Introduction to Electronic Communciations;1.1;1.1. Convert the absolute power ratio of 200 to a power gain in dB;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2306;1. Introduction to Electronic Communciations;1.10;1.10. Convert the following temperatures in kelvin;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2306;1. Introduction to Electronic Communciations;1.11;1.11. Determine thermal noise power in watts and dBm rms noise voltage for 100 ohm internal resistance and 100 ohm load resistance;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2306;1. Introduction to Electronic Communciations;1.12;1.12. Determine 2nd 3rd and 12th Harmonics for a 1kHz repeative wave percent second order third order and total harmonics distortion;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2306;1. Introduction to Electronic Communciations;1.13;1.13. Determine first three harmonics present in the output for each input frequency cross product frequencies produced for value m and of 1 and 2;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2306;1. Introduction to Electronic Communciations;1.14;1.14. Determine the information carrying capacity of a communication channel if the bandwidth of the channel is 100MHz and signal to noise ratio is 30dB and signal to noise ratio is increased by 4 times over 30dB;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2306;1. Introduction to Electronic Communciations;1.15;1.15. Determine the signal to noise power ratio;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2306;1. Introduction to Electronic Communciations;1.16;1.16. Determine Input SN ratio Output SN ratio Noise factor and noise figure;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2306;1. Introduction to Electronic Communciations;1.17;1.17. Determine the total noise figure;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2306;1. Introduction to Electronic Communciations;1.18;1.18. Determine noise figure for an equivalent noise temperature of 75 K and equivalent noise temperature for a noise figure of 6dB;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2306;1. Introduction to Electronic Communciations;1.3;1.3. Convert the following absolute powers to dBm;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2306;1. Introduction to Electronic Communciations;1.4;1.4. Convert the following into absolute power;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2306;1. Introduction to Electronic Communciations;1.5;1.5. Determine The input power in dBm output power in watts and dBm the dB gain of each of the three stages and the overall gain in dB;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2306;1. Introduction to Electronic Communciations;1.6;1.6. Find the overall of the threestage system in dB the output power of the system in dBm for an input power of 100uW;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2306;1. Introduction to Electronic Communciations;1.7;1.7. Determine the total power when a signal with a power level if 20dBm is combined with a second signal of with a power level of 21dBm;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2306;1. Introduction to Electronic Communciations;1.8;1.8. Determine the corresponding wavelength ranges for the following ITUT specified frequecny bands Medium Frequenices Ultra High Frequenices Very High Frequencies;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2306;1. Introduction to Electronic Communciations;1.9;1.9. Determine the Shannon limit for information capacity;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2334;2. Signal Analysis and Mixing;2.3;2.3. Determine the dc component the peak amplitude of the 10 harmonics plot the sin x by x function sketch the frequency spectrum;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2335;3. Oscillator Phase Locked Loops and Frequency Synthesizer;3.1;3.1. Determine the frequency of operation if the temperature increases by 10 degree C decreases by 5 degree C;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2335;3. Oscillator Phase Locked Loops and Frequency Synthesizer;3.2;3.2. Determine PLL open loop gain change in VCO frequency necessary to achieve lock PLL output voltage phase detector output voltage static phase error;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2380;4. Amplitude Modulation Transmission;4.1;4.1. Determine frequency limits for the upper and lower sidebands bandwidth upper and lower side frequencies produced when the modulating signal is a single frequency 3kHz tone draw the frequency spectrum;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2380;4. Amplitude Modulation Transmission;4.2;4.2. Determine upper and lower frequencies modulation coefficient and percent modulation peak amplitude of the modulation carrier and the upper and lower side frequency voltages maximum and minimum amplitudes of the envelope;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2380;4. Amplitude Modulation Transmission;4.3;4.3. Obtain the total average power of the modulated signal in dB watts and dBm the peak and RMS voltages of the modulated signal;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2380;4. Amplitude Modulation Transmission;4.4;4.4. Determine 1 power of the carrier and the upper and lower sidebands 2 total sideband power 3 total power of the modulated wave 4 change m for 1 to 3;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2380;4. Amplitude Modulation Transmission;4.5;4.5. Find the power in each sideband of a DSBFC signal;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2380;4. Amplitude Modulation Transmission;4.6;4.6. Determine 1 maximum and minimum voltage gains 2 maximum and minimum amplitude for Vout;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2380;4. Amplitude Modulation Transmission;4.7;4.7. Determine carrier frequency AND upper and lower side frequencies;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2381;5. Amplitude Modulation Reception;5.1;5.1. Determine the improvement in the noise figure for a receiver with an RF bandwidth equal to 200kHz and an IF bandwidth equal to 10kHz;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2381;5. Amplitude Modulation Reception;5.2;5.2. Determine the bandwidth at the low and high ends of RF spectrum;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2381;5. Amplitude Modulation Reception;5.3;5.3. Determine the IF carrier upper side frequency and lower side frequency;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2381;5. Amplitude Modulation Reception;5.5;5.5. Determine 1 image frequency 2 image frequency rejection ratio for a Q of 120 for the tuned circuit in the preselector of the receiver 3 IFRR if the preselector of 2 is followed by another RF tuned of IFR;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2381;5. Amplitude Modulation Reception;5.6;5.6. Determine 1 local oscillator frequency 2 image frequency 3 IFRR for a preselector Q of 160 4 preselector Q required to achieve the IFRR as that achieved for an RF carrier of 600kHz;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2381;5. Amplitude Modulation Reception;5.7;5.7. Calculate 2 IFRR 2 IFRR in dB 3 IFRR for an IF of 455kHz 4 Q of primary and secondary circuit of the IF transformer is 40 and 50 so find critcal coupling factor;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2381;5. Amplitude Modulation Reception;5.8;5.8. Determine the net receiver gain and the audio signal level;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2382;6. Single Sideband Communication Systems;6.1;6.1. Determine the quality factor necessary for a single sideband filter with a 1MHz carrier frequency 80dB unwanted sideband suppression and the following frequency spectrum;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2382;6. Single Sideband Communication Systems;6.2;6.2. Determine demodulated first IF frequency band and demodulated information frequency band and demodulated information frequency band if the RF local oscillator frequency drift;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2382;6. Single Sideband Communication Systems;6.3;6.3. Determine the demodulated first IF frequency band and demodulated information frequency band and demodulated information frequency band;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2382;6. Single Sideband Communication Systems;6.4;6.4. Determine for a single sideband suppressed carrier transmission the output frequency spectrum and a load resistance and the PEP and average power;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2450;7. Amplitude Modulation Transmission;7.1;7.1. Determine 1 the peak frequency deviation and modulation index for an FM modulator 2 the peak phase deviation for a PM modulation;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2450;7. Amplitude Modulation Transmission;7.11;7.11. Determine 1 master oscillator centre frequency 2 frequency deviation at output for a frequency deviation of 75kHz at antenna 3 deviation ratio for fm 4 deviation ratio of antenna;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2450;7. Amplitude Modulation Transmission;7.2;7.2. Determine 1 carrier frequency 2 modulation frequency 3 modulation index 4 peak phase deviation;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2450;7. Amplitude Modulation Transmission;7.3;7.3. Determine 1 Number of sets of significant side frequenices 2 Amplitude of the frequencies 3 Draw the spectrum;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2450;7. Amplitude Modulation Transmission;7.4;7.4. Determine 1 actual minimum bandwidth from the Bessel function table 2 approximate minimum bandwidth using Carsons rule 3 plot the output frequency spectrum for the Bessel approximation;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2450;7. Amplitude Modulation Transmission;7.5;7.5. Determine the deviation ratio and bandwidth for 1 the worst case modulation index 2 an equal modulation index;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2450;7. Amplitude Modulation Transmission;7.6;7.6. Determine 1 the modulation indexes and sketch the output spectrum 2 change the modulating signal amplitude to 4Vp for 1 3 change the modulating signal frequency to 1kHz for 1;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2450;7. Amplitude Modulation Transmission;7.7;7.7. Determine 1 the unmodulated carrier power for the FM modulator 2 the total power in the angle modulated wave;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2450;7. Amplitude Modulation Transmission;7.8;7.8. Determine 1 frequency of the demodulated interference signal 2 peak phase and frequency deviations due to the interfering signal 3 voltage signal to noise ratio at the output of the demodulator;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2383;8. Angle Modulation Reception and FM Stereo;8.1;8.1. Determine the peak output voltage;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2383;8. Angle Modulation Reception and FM Stereo;8.2;8.2. Determin the minimum receive carrier power necessary to achieve a postdetection signal to noise ratio 37dB;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2383;8. Angle Modulation Reception and FM Stereo;8.3;8.3. Determine the pre and postdetection SN ratios;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2383;8. Angle Modulation Reception and FM Stereo;8.4;8.4. Determine the minimum receive signal level;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2462;9. Digital Modulation;9.15;9.15. Determine the minimum bandwidth required;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2462;9. Digital Modulation;9.2;9.2. Determine the peak frequency deviation minimum bandwidth baud rate for a binary FSK signal;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2462;9. Digital Modulation;9.3;9.3. Determine the minimum bandwidth for the FSK signal;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2451;10. Digital Transmission;10.1;10.1. Determine the largest value capacitor that can be used in figure;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2451;10. Digital Transmission;10.3;10.3. Determine the quantized voltage quantization error and PCM code;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2451;10. Digital Transmission;10.4;10.4. Calculate 1 the resolution and quantization error 2 the coding efficiency for a resolution;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2451;10. Digital Transmission;10.8;10.8. Determine the minimum line speed in bits per second to transmit speech signal of 1 a 7 bit PCM 2 an 8 bit PCM;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2463;12. Metallic Cable Transmission Media;12.1;12.1. Determine the characteristic impedance for an air dielectric two wire parallel transmission line;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2463;12. Metallic Cable Transmission Media;12.2;12.2. Determine the characteristic impedence for coaxial cable;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2463;12. Metallic Cable Transmission Media;12.3;12.3. Determine the characteristic impedence for coaxial cable;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2463;12. Metallic Cable Transmission Media;12.4;12.4. Determine the velocity of propagation and the velocity factor;error;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2463;12. Metallic Cable Transmission Media;12.5;12.5. Determine reflection coefficient and SWR;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2463;12. Metallic Cable Transmission Media;12.6;12.6. Determine the physical length and characterictic impedence for a quarter wavelength transformer;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2463;12. Metallic Cable Transmission Media;12.7;12.7. How far down the cable is the impairment;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2463;12. Metallic Cable Transmission Media;12.8;12.8. Determine the time elapsed from the beginning of the pulse to the reception of the echo;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2471;13. Optical Fiber Transmission Media;13.1;13.1. Determine the angle of refraction;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2471;13. Optical Fiber Transmission Media;13.2;13.2. Calculate the refractive index of the cladding;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2471;13. Optical Fiber Transmission Media;13.3;13.3. Calculated the optical power;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2471;13. Optical Fiber Transmission Media;13.4;13.4. Calculate the maximum data rate through a 6 km long step index fibre;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2471;13. Optical Fiber Transmission Media;13.5;13.5. Determine the maximum digital transmission rates for return to zero and nonreturn to zero;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2471;13. Optical Fiber Transmission Media;13.6;13.6. Determine th optical power received in dBm and watts;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2473;14. Electromagnetic Wave Propagation;14.1;14.1. Determine power density from source at 1000m and 2000m;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2473;14. Electromagnetic Wave Propagation;14.2;14.2. Determine the height of the receiving antenna and the maximum transmission distance;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2473;14. Electromagnetic Wave Propagation;14.3;14.3. Determine the fade margin;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2474;15. Antennas and Waveguides;15.1;15.1. Determine antenna efficiency antenna gain radiated power in watts dBm dBW and EIRP in watts dBm dBW;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2474;15. Antennas and Waveguides;15.2;15.2. Determine the antenna input radiated power EIRP and receive power density;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2474;15. Antennas and Waveguides;15.3;15.3. Determine captured power in dBm and watts;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2474;15. Antennas and Waveguides;15.4;15.4. Determine beamwidth transmit and receive power gain and EIRP;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2474;15. Antennas and Waveguides;15.5;15.5. Determine Cutoff frequency and wavelength group and phase velocity;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2474;15. Antennas and Waveguides;15.6;15.6. Determine the cutoff frequency and the characteristic of TE10;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2475;17. The Telephone Circuit;17.1;17.1. Determine the power level in dBm and the difference between them;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2499;19. Cellular Telephone Concepts;19.1;19.1. Determine the number of channels per cluster and total channel capacity;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2499;19. Cellular Telephone Concepts;19.2;19.2. Determine for a cell area;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2499;19. Cellular Telephone Concepts;19.3;19.3. Determine the following;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2500;20. Cellular Telephone Systems;20.1;20.1. Determine the transmit and receive carrier frequencies for AMPS channels 3 and 91;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2500;20. Cellular Telephone Systems;20.2;20.2. Determine the transmit power for a CDMA;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2501;24. Microwave Radio Communications and System Gain;24.1;24.1. Determine the free space path loss in dB;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2501;24. Microwave Radio Communications and System Gain;24.2;24.2. Determine the frequency of operation of the microwave link;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2501;24. Microwave Radio Communications and System Gain;24.3;24.3. Determine the noise power;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2501;24. Microwave Radio Communications and System Gain;24.4;24.4. Determine the minimum receive carrier power and the minimum transmit power;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2501;24. Microwave Radio Communications and System Gain;24.5;24.5. Determine the following;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2502;25. Satellite Communication;25.2;25.2. Determine the energy per bit for a transmission rate of 50Mbps;correct;runtime; -881;Electronic Communications Systems: Fundamentals Through Advanced(W. Tomasi);2502;25. Satellite Communication;25.5;25.5. Determine the noise density and equivalent noise temperature;correct;runtime; -884;Chemistry(R. Chang);2375;1. Chemistry The Study of Change;1.1;1.1. Computation of density from mass and volume;correct;runtime; -884;Chemistry(R. Chang);2375;1. Chemistry The Study of Change;1.2;1.2. Computation of mass from density and volume;correct;runtime; -884;Chemistry(R. Chang);2375;1. Chemistry The Study of Change;1.3;1.3. Conversion among temperature scales;correct;runtime; -884;Chemistry(R. Chang);2375;1. Chemistry The Study of Change;1.5;1.5. Significant figures;correct;runtime; -884;Chemistry(R. Chang);2375;1. Chemistry The Study of Change;1.6;1.6. Dimensional Analysis;correct;runtime; -884;Chemistry(R. Chang);2375;1. Chemistry The Study of Change;1.7;1.7. Dimensional Analysis;correct;runtime; -884;Chemistry(R. Chang);2375;1. Chemistry The Study of Change;1.8;1.8. Dimensional Analysis;correct;runtime; -884;Chemistry(R. Chang);2376;3. Mass Relationships in Chemical Reactions;3.1;3.1. Average Atomic Mass;correct;runtime; -884;Chemistry(R. Chang);2376;3. Mass Relationships in Chemical Reactions;3.10;3.10. mass of an element in a given compound;correct;runtime; -884;Chemistry(R. Chang);2376;3. Mass Relationships in Chemical Reactions;3.13;3.13. mass of an compound produced from certain mass of a given compound;correct;runtime; -884;Chemistry(R. Chang);2376;3. Mass Relationships in Chemical Reactions;3.14;3.14. amount of reactants and products;correct;runtime; -884;Chemistry(R. Chang);2376;3. Mass Relationships in Chemical Reactions;3.15;3.15. limiting and excess reagent;correct;runtime; -884;Chemistry(R. Chang);2376;3. Mass Relationships in Chemical Reactions;3.16;3.16. amount of reactants and products;correct;runtime; -884;Chemistry(R. Chang);2376;3. Mass Relationships in Chemical Reactions;3.2;3.2. Computation of number of moles from mass;correct;runtime; -884;Chemistry(R. Chang);2376;3. Mass Relationships in Chemical Reactions;3.3;3.3. Computation of mass from moles;correct;runtime; -884;Chemistry(R. Chang);2376;3. Mass Relationships in Chemical Reactions;3.4;3.4. Computation of number of atoms from mass;correct;runtime; -884;Chemistry(R. Chang);2376;3. Mass Relationships in Chemical Reactions;3.5;3.5. Computation of molecular mass of a compound;correct;runtime; -884;Chemistry(R. Chang);2376;3. Mass Relationships in Chemical Reactions;3.6;3.6. Computation of moles from mass of a compound;correct;runtime; -884;Chemistry(R. Chang);2376;3. Mass Relationships in Chemical Reactions;3.7;3.7. Computation of number of atoms from mass of a compound;correct;runtime; -884;Chemistry(R. Chang);2376;3. Mass Relationships in Chemical Reactions;3.8;3.8. Percentage composition of a compound;correct;runtime; -884;Chemistry(R. Chang);2376;3. Mass Relationships in Chemical Reactions;3.9;3.9. empirical formula of a compound from percentage composition;correct;runtime; -884;Chemistry(R. Chang);2377;4. Reactions in aqueous solutions;4.10;4.10. Acid Base Titrations;correct;runtime; -884;Chemistry(R. Chang);2377;4. Reactions in aqueous solutions;4.11;4.11. Acid Base Titrations;correct;runtime; -884;Chemistry(R. Chang);2377;4. Reactions in aqueous solutions;4.12;4.12. Redox Titrations;correct;runtime; -884;Chemistry(R. Chang);2377;4. Reactions in aqueous solutions;4.6;4.6. Computation of mass from concentration and volume;correct;runtime; -884;Chemistry(R. Chang);2377;4. Reactions in aqueous solutions;4.7;4.7. Computation of volume from concentration and mass;correct;runtime; -884;Chemistry(R. Chang);2377;4. Reactions in aqueous solutions;4.8;4.8. Dilution of solution;correct;runtime; -884;Chemistry(R. Chang);2377;4. Reactions in aqueous solutions;4.9;4.9. Gravimetric Analysis;correct;runtime; -884;Chemistry(R. Chang);2378;5. Gases;5.1;5.1. Pressure Units;correct;runtime; -884;Chemistry(R. Chang);2378;5. Gases;5.10;5.10. Computation of Molar Mass;correct;runtime; -884;Chemistry(R. Chang);2378;5. Gases;5.11;5.11. Gas Stoichiometry;correct;runtime; -884;Chemistry(R. Chang);2378;5. Gases;5.12;5.12. Gas Stoichiometry;correct;runtime; -884;Chemistry(R. Chang);2378;5. Gases;5.13;5.13. Gas Stoichiometry;correct;runtime; -884;Chemistry(R. Chang);2378;5. Gases;5.14;5.14. Daltons Law of Partial Pressures;correct;runtime; -884;Chemistry(R. Chang);2378;5. Gases;5.15;5.15. Daltons Law of Partial Pressures;correct;runtime; -884;Chemistry(R. Chang);2378;5. Gases;5.16;5.16. Root Mean Square velocity;correct;runtime; -884;Chemistry(R. Chang);2378;5. Gases;5.17;5.17. Gas Effusion;correct;runtime; -884;Chemistry(R. Chang);2378;5. Gases;5.18;5.18. deviation from ideal behaviour;correct;runtime; -884;Chemistry(R. Chang);2378;5. Gases;5.2;5.2. Pressure Units;correct;runtime; -884;Chemistry(R. Chang);2378;5. Gases;5.3;5.3. Ideal Gas Equation;correct;runtime; -884;Chemistry(R. Chang);2378;5. Gases;5.4;5.4. Ideal Gas Equation;correct;runtime; -884;Chemistry(R. Chang);2378;5. Gases;5.5;5.5. Ideal Gas Equation;correct;runtime; -884;Chemistry(R. Chang);2378;5. Gases;5.6;5.6. Ideal Gas Equation;correct;runtime; -884;Chemistry(R. Chang);2378;5. Gases;5.7;5.7. Ideal Gas Equation;correct;runtime; -884;Chemistry(R. Chang);2378;5. Gases;5.8;5.8. Density Calulations;correct;runtime; -884;Chemistry(R. Chang);2378;5. Gases;5.9;5.9. Computation of Molar Mass of Gaseous substance;correct;runtime; -884;Chemistry(R. Chang);2379;6. Thermochemistry;6.1;6.1. work done by gas;correct;runtime; -884;Chemistry(R. Chang);2379;6. Thermochemistry;6.2;6.2. change in energy of a gas;correct;runtime; -884;Chemistry(R. Chang);2379;6. Thermochemistry;6.3;6.3. heat produced in a reaction;correct;runtime; -884;Chemistry(R. Chang);2379;6. Thermochemistry;6.4;6.4. change in internal energy in a reaction;correct;runtime; -884;Chemistry(R. Chang);2379;6. Thermochemistry;6.5;6.5. amount of heat absorbed;correct;runtime; -884;Chemistry(R. Chang);2379;6. Thermochemistry;6.6;6.6. calculation of molar heat of combustion;correct;runtime; -884;Chemistry(R. Chang);2379;6. Thermochemistry;6.7;6.7. calculation of specific heat;correct;runtime; -884;Chemistry(R. Chang);2379;6. Thermochemistry;6.8;6.8. calculation of heat of neutralization;correct;runtime; -884;Chemistry(R. Chang);2394;7. Quantum Theory and the Electronic Structure of Atoms;7.1;7.1. calculation of speed of a wave;correct;runtime; -884;Chemistry(R. Chang);2394;7. Quantum Theory and the Electronic Structure of Atoms;7.2;7.2. calculation of frequency of a wave;correct;runtime; -884;Chemistry(R. Chang);2394;7. Quantum Theory and the Electronic Structure of Atoms;7.3;7.3. calculation of energy of a photon;correct;runtime; -884;Chemistry(R. Chang);2394;7. Quantum Theory and the Electronic Structure of Atoms;7.4;7.4. calculation of wavelength of a photon from an electronic transition;correct;runtime; -884;Chemistry(R. Chang);2394;7. Quantum Theory and the Electronic Structure of Atoms;7.5;7.5. calculation of wavelength of a particle;correct;runtime; -884;Chemistry(R. Chang);2395;11. Intermolecular Forces and Liquids and Solids;11.3;11.3. calculation of atomic radius;correct;runtime; -884;Chemistry(R. Chang);2395;11. Intermolecular Forces and Liquids and Solids;11.4;11.4. diffraction;correct;runtime; -884;Chemistry(R. Chang);2395;11. Intermolecular Forces and Liquids and Solids;11.6;11.6. density of ionic crystals;correct;runtime; -884;Chemistry(R. Chang);2395;11. Intermolecular Forces and Liquids and Solids;11.7;11.7. molar heat of vaporisation;correct;runtime; -884;Chemistry(R. Chang);2395;11. Intermolecular Forces and Liquids and Solids;11.8;11.8. molar heat of vaporisation and overall energy required;correct;runtime; -884;Chemistry(R. Chang);2396;12. Physical Properties of solutions;12.10;12.10. computation of molar mass of a sample from freezing point depression;correct;runtime; -884;Chemistry(R. Chang);2396;12. Physical Properties of solutions;12.11;12.11. computation of molar mass of a sample from osmotic pressure;correct;runtime; -884;Chemistry(R. Chang);2396;12. Physical Properties of solutions;12.12;12.12. computation of vant hoff factor;correct;runtime; -884;Chemistry(R. Chang);2396;12. Physical Properties of solutions;12.2;12.2. computation of concentration of a solution;correct;runtime; -884;Chemistry(R. Chang);2396;12. Physical Properties of solutions;12.3;12.3. computation of molality of a solution;correct;runtime; -884;Chemistry(R. Chang);2396;12. Physical Properties of solutions;12.4;12.4. computation of molality from density and molarity;correct;runtime; -884;Chemistry(R. Chang);2396;12. Physical Properties of solutions;12.5;12.5. computation of molality from mass percent;correct;runtime; -884;Chemistry(R. Chang);2396;12. Physical Properties of solutions;12.6;12.6. computation of solubility of gases in liquid;correct;runtime; -884;Chemistry(R. Chang);2396;12. Physical Properties of solutions;12.7;12.7. computation of vapor pressure lowering;correct;runtime; -884;Chemistry(R. Chang);2396;12. Physical Properties of solutions;12.8;12.8. computation of freezing point depression and boiling point elevation;correct;runtime; -884;Chemistry(R. Chang);2396;12. Physical Properties of solutions;12.9;12.9. computation of molar concentration from osmotic pressure;correct;runtime; -884;Chemistry(R. Chang);2397;13. Chemical Kinetics;13.2;13.2. computation of reaction rates using stoichiometry;correct;runtime; -884;Chemistry(R. Chang);2397;13. Chemical Kinetics;13.3;13.3. computation of reaction rates using initial rate data;correct;runtime; -884;Chemistry(R. Chang);2397;13. Chemical Kinetics;13.4;13.4. calculations for first order reactions;correct;runtime; -884;Chemistry(R. Chang);2397;13. Chemical Kinetics;13.5;13.5. calculation of rate constant from time and pressure data;correct;runtime; -884;Chemistry(R. Chang);2397;13. Chemical Kinetics;13.6;13.6. calculation of half life of first order reactions from rate constant;correct;runtime; -884;Chemistry(R. Chang);2397;13. Chemical Kinetics;13.7;13.7. calculation for second order reactions;correct;runtime; -884;Chemistry(R. Chang);2397;13. Chemical Kinetics;13.8;13.8. calculation of activation energy from rate constant and Temperature data;correct;runtime; -884;Chemistry(R. Chang);2397;13. Chemical Kinetics;13.9;13.9. calculation of rate constant at a given temperature;correct;runtime; -884;Chemistry(R. Chang);2398;14. Chemical Equilibrium;14.10;14.10. computation of equilibrium concentration;correct;runtime; -884;Chemistry(R. Chang);2398;14. Chemical Equilibrium;14.11;14.11. Application of Le chateliers Principle;correct;runtime; -884;Chemistry(R. Chang);2398;14. Chemical Equilibrium;14.2;14.2. computation of equilibrium constant;correct;runtime; -884;Chemistry(R. Chang);2398;14. Chemical Equilibrium;14.3;14.3. computation of component pressure from equilibrium constant;correct;runtime; -884;Chemistry(R. Chang);2398;14. Chemical Equilibrium;14.4;14.4. computation of Kp from Kc;correct;runtime; -884;Chemistry(R. Chang);2398;14. Chemical Equilibrium;14.6;14.6. computation of Kp and Kc;correct;runtime; -884;Chemistry(R. Chang);2398;14. Chemical Equilibrium;14.8;14.8. Predicting the direction of a reaction;correct;runtime; -884;Chemistry(R. Chang);2398;14. Chemical Equilibrium;14.9;14.9. computation of equilibrium concentration;correct;runtime; -884;Chemistry(R. Chang);2399;15. Acids and Bases;15.10;15.10. Computation of pH for weak base of given molarity;correct;runtime; -884;Chemistry(R. Chang);2399;15. Acids and Bases;15.11;15.11. Computation of concentration of all the species in solution of Oxalic acid;correct;runtime; -884;Chemistry(R. Chang);2399;15. Acids and Bases;15.13;15.13. Computation of pH for a solution of salt of weak acid and strong base;correct;runtime; -884;Chemistry(R. Chang);2399;15. Acids and Bases;15.2;15.2. computation of hydronium ion concentration from hydroxide ion concentration;correct;runtime; -884;Chemistry(R. Chang);2399;15. Acids and Bases;15.3;15.3. Computation of pH of a solution from hydonium ion concentration;correct;runtime; -884;Chemistry(R. Chang);2399;15. Acids and Bases;15.4;15.4. Computation of hydronium ion concentration from pH;correct;runtime; -884;Chemistry(R. Chang);2399;15. Acids and Bases;15.5;15.5. Computation of pH of a solution from hydroxide ion concentration;correct;runtime; -884;Chemistry(R. Chang);2399;15. Acids and Bases;15.6;15.6. Computation of pH of solutions for solutions of given concentrations;correct;runtime; -884;Chemistry(R. Chang);2399;15. Acids and Bases;15.8;15.8. Computation of pH for weak acid;correct;runtime; -884;Chemistry(R. Chang);2399;15. Acids and Bases;15.9;15.9. Computation of ionisation constant from pH of a weak acid;correct;runtime; -884;Chemistry(R. Chang);2401;16. Acid Base Equilibria and Solubility Equilibria;16.1;16.1. Computation of pH using common ion effect;correct;runtime; -884;Chemistry(R. Chang);2401;16. Acid Base Equilibria and Solubility Equilibria;16.10;16.10. Predicting precipitation reactions;correct;runtime; -884;Chemistry(R. Chang);2401;16. Acid Base Equilibria and Solubility Equilibria;16.11;16.11. separation by fractional precipitation;correct;runtime; -884;Chemistry(R. Chang);2401;16. Acid Base Equilibria and Solubility Equilibria;16.12;16.12. common ion effect and solubility;correct;runtime; -884;Chemistry(R. Chang);2401;16. Acid Base Equilibria and Solubility Equilibria;16.14;16.14. calculation of Concentration for precipitation;correct;runtime; -884;Chemistry(R. Chang);2401;16. Acid Base Equilibria and Solubility Equilibria;16.15;16.15. Computation of concentration at complex ion equilibrium;correct;runtime; -884;Chemistry(R. Chang);2401;16. Acid Base Equilibria and Solubility Equilibria;16.16;16.16. Computation of molar solubility in complex ion solution;correct;runtime; -884;Chemistry(R. Chang);2401;16. Acid Base Equilibria and Solubility Equilibria;16.3;16.3. Computation of pH using common ion effect;correct;runtime; -884;Chemistry(R. Chang);2401;16. Acid Base Equilibria and Solubility Equilibria;16.5;16.5. Computation of pH in a titration of weak acid and strong base;correct;runtime; -884;Chemistry(R. Chang);2401;16. Acid Base Equilibria and Solubility Equilibria;16.6;16.6. Computation of pH in a titration of weak base and strong acid at equivalence point;correct;runtime; -884;Chemistry(R. Chang);2401;16. Acid Base Equilibria and Solubility Equilibria;16.8;16.8. Computation of Ksp from solubility;correct;runtime; -884;Chemistry(R. Chang);2401;16. Acid Base Equilibria and Solubility Equilibria;16.9;16.9. Computation of solubility from Ksp;correct;runtime; -884;Chemistry(R. Chang);2402;17. Chemistry in the atmosphere;17.1;17.1. computation of wavelength of a photon from energy;correct;runtime; -884;Chemistry(R. Chang);2402;17. Chemistry in the atmosphere;17.3;17.3. Radioactive decay and half life;correct;runtime; -884;Chemistry(R. Chang);2404;18. Entropy Free Energy and Equilibrium;18.2;18.2. Entropy changes in the system;correct;runtime; -884;Chemistry(R. Chang);2404;18. Entropy Free Energy and Equilibrium;18.4;18.4. free energy changes in the system;correct;runtime; -884;Chemistry(R. Chang);2404;18. Entropy Free Energy and Equilibrium;18.5;18.5. entropy changes in the system for phase transitions;correct;runtime; -884;Chemistry(R. Chang);2404;18. Entropy Free Energy and Equilibrium;18.6;18.6. computation of equilibrium constant from free energy of a rxn;correct;runtime; -884;Chemistry(R. Chang);2404;18. Entropy Free Energy and Equilibrium;18.7;18.7. computation of free energy of a rxn from equilibrium constant;correct;runtime; -884;Chemistry(R. Chang);2404;18. Entropy Free Energy and Equilibrium;18.8;18.8. computation of free energy of a rxn from conc of components;correct;runtime; -884;Chemistry(R. Chang);2405;19. Electrochemistry;19.3;19.3. computation of standard emf of a cell;correct;runtime; -884;Chemistry(R. Chang);2405;19. Electrochemistry;19.4;19.4. computation of equilibrium constant for a reaction;correct;runtime; -884;Chemistry(R. Chang);2405;19. Electrochemistry;19.5;19.5. computation of standard free energy change for a reaction;correct;runtime; -884;Chemistry(R. Chang);2405;19. Electrochemistry;19.6;19.6. computation of standard free energy change for a reaction;correct;runtime; -884;Chemistry(R. Chang);2405;19. Electrochemistry;19.7;19.7. computation of concentration of component from cell potential;correct;runtime; -884;Chemistry(R. Chang);2405;19. Electrochemistry;19.9;19.9. quantitative aspects of electrolysis;correct;runtime; -884;Chemistry(R. Chang);2406;23. Nuclear Chemistry;23.2;23.2. calculation of nuclear binding energy;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2646;1. Introduction;1.1;1.1. Mass;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2646;1. Introduction;1.2;1.2. Shear stress;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2646;1. Introduction;1.3;1.3. Surface tension;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2646;1. Introduction;1.4;1.4. speed conversion;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2646;1. Introduction;1.5;1.5. Time conversion;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2646;1. Introduction;1.6;1.6. Acceleration;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2646;1. Introduction;1.7;1.7. Electrolysis;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2631;2. Fluid statics;2.1;2.1. Specific weight;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2631;2. Fluid statics;2.10;2.10. Thickness;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2631;2. Fluid statics;2.11;2.11. Payload;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2631;2. Fluid statics;2.12;2.12. Fraction of block inside water;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2631;2. Fluid statics;2.13;2.13. Gauge pressure;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2631;2. Fluid statics;2.14;2.14. Pressure difference;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2631;2. Fluid statics;2.15;2.15. Gauge pressure;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2631;2. Fluid statics;2.16;2.16. Pressure difference;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2631;2. Fluid statics;2.17;2.17. Gauge pressure;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2631;2. Fluid statics;2.18;2.18. Angle;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2631;2. Fluid statics;2.19;2.19. Height of liquid;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2631;2. Fluid statics;2.2;2.2. Pressure at depth;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2631;2. Fluid statics;2.20;2.20. Thickness;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2631;2. Fluid statics;2.3;2.3. Gauge pressure;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2631;2. Fluid statics;2.4;2.4. Density of air;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2631;2. Fluid statics;2.5;2.5. Pressure at height;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2631;2. Fluid statics;2.6;2.6. Pressure;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2631;2. Fluid statics;2.7;2.7. Pressure;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2631;2. Fluid statics;2.8;2.8. Force;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2631;2. Fluid statics;2.9;2.9. Thickness;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2632;3. The balance equation and mass balance;3.11;3.11. volumetric flow rate;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2632;3. The balance equation and mass balance;3.4;3.4. volumetric flow rate;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2632;3. The balance equation and mass balance;3.5;3.5. Velocity and Mass flow rate;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2632;3. The balance equation and mass balance;3.6;3.6. Velocity and Mass flow rate;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2632;3. The balance equation and mass balance;3.7;3.7. Time required;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2632;3. The balance equation and mass balance;3.8;3.8. Steady state pressure;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2632;3. The balance equation and mass balance;3.9;3.9. Velocity of rising water;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2638;4. The first law of thermodynamics;4.1;4.1. Change in potential energy;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2638;4. The first law of thermodynamics;4.2;4.2. Kinetic energy;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2638;4. The first law of thermodynamics;4.3;4.3. Kinetic energy;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2638;4. The first law of thermodynamics;4.4;4.4. Change in internal energy;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2638;4. The first law of thermodynamics;4.5;4.5. Work;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2638;4. The first law of thermodynamics;4.6;4.6. Mass consumed in nuclear reactor;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2637;5. Bernoulli Equation;5.1;5.1. Increase in temperature;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2637;5. Bernoulli Equation;5.10;5.10. Pressure difference;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2637;5. Bernoulli Equation;5.11;5.11. volumetric flow rate;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2637;5. Bernoulli Equation;5.12;5.12. Absolute pressure;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2637;5. Bernoulli Equation;5.13;5.13. Pressure at throat;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2637;5. Bernoulli Equation;5.2;5.2. Velocity;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2637;5. Bernoulli Equation;5.3;5.3. Velocity;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2637;5. Bernoulli Equation;5.4;5.4. Velocity;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2637;5. Bernoulli Equation;5.5;5.5. Velocity;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2637;5. Bernoulli Equation;5.6;5.6. Velocity;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2637;5. Bernoulli Equation;5.7;5.7. Velocity;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2637;5. Bernoulli Equation;5.8;5.8. volumetric flow rate;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2637;5. Bernoulli Equation;5.9;5.9. volumetric flow rate;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2636;6. Fluid friction in steady on dimentional flow;6.1;6.1. Pressure drop;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2636;6. Fluid friction in steady on dimentional flow;6.10;6.10. Pressure difference;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2636;6. Fluid friction in steady on dimentional flow;6.11;6.11. Pressure drop;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2636;6. Fluid friction in steady on dimentional flow;6.12;6.12. Pressure drop;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2636;6. Fluid friction in steady on dimentional flow;6.13;6.13. Leakage rate;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2636;6. Fluid friction in steady on dimentional flow;6.2;6.2. Viscosity;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2636;6. Fluid friction in steady on dimentional flow;6.3;6.3. Fanning friction factor;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2636;6. Fluid friction in steady on dimentional flow;6.4;6.4. Gauge pressure;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2636;6. Fluid friction in steady on dimentional flow;6.5;6.5. volumetric flow rate;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2636;6. Fluid friction in steady on dimentional flow;6.6;6.6. Pressure difference;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2636;6. Fluid friction in steady on dimentional flow;6.8;6.8. Power;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2636;6. Fluid friction in steady on dimentional flow;6.9;6.9. Pressure drop;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2635;7. The momentum balance;7.10;7.10. Mass flow rate;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2635;7. The momentum balance;7.12;7.12. Velocity;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2635;7. The momentum balance;7.15;7.15. Velocity;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2635;7. The momentum balance;7.16;7.16. Verticle downward velocity;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2635;7. The momentum balance;7.17;7.17. ratio of weight of aircraft to engine;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2635;7. The momentum balance;7.18;7.18. Torque;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2635;7. The momentum balance;7.2;7.2. Velocity;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2635;7. The momentum balance;7.3;7.3. Force;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2635;7. The momentum balance;7.4;7.4. Force;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2635;7. The momentum balance;7.5;7.5. Force;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2635;7. The momentum balance;7.6;7.6. Force;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2635;7. The momentum balance;7.7;7.7. Support forces;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2635;7. The momentum balance;7.8;7.8. Thrust;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2635;7. The momentum balance;7.9;7.9. Specific impulse;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2633;8. One dimentional high velocity gas flow;8.1;8.1. Speed of sound;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2633;8. One dimentional high velocity gas flow;8.12;8.12. Temperature and pressure of gas;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2633;8. One dimentional high velocity gas flow;8.13;8.13. Temperature and velocity of air;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2633;8. One dimentional high velocity gas flow;8.14;8.14. Ratio of area of nozzle;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2633;8. One dimentional high velocity gas flow;8.2;8.2. Speed of sound;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2633;8. One dimentional high velocity gas flow;8.3;8.3. Temperature of gas;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2633;8. One dimentional high velocity gas flow;8.4;8.4. Speed of sound;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2633;8. One dimentional high velocity gas flow;8.5;8.5. Pressure and density;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2633;8. One dimentional high velocity gas flow;8.6;8.6. Cross sectional area;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2633;8. One dimentional high velocity gas flow;8.7;8.7. Cross sectional area;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2633;8. One dimentional high velocity gas flow;8.8;8.8. Cross sectional area;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2633;8. One dimentional high velocity gas flow;8.9;8.9. Temperature of gas;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2634;10. Pumps compressors and turbines;10.1;10.1. Efficiency of pump;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2634;10. Pumps compressors and turbines;10.2;10.2. Elevation;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2634;10. Pumps compressors and turbines;10.3;10.3. Work;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2634;10. Pumps compressors and turbines;10.4;10.4. Work;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2634;10. Pumps compressors and turbines;10.5;10.5. Pump head;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2634;10. Pumps compressors and turbines;10.6;10.6. Pump head;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2634;10. Pumps compressors and turbines;10.7;10.7. Pressure rise;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2634;10. Pumps compressors and turbines;10.8;10.8. Efficiency of compressor;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2639;11. Flow through porous media;11.1;11.1. volumetric flow rate;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2639;11. Flow through porous media;11.2;11.2. Pressure gradient;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2639;11. Flow through porous media;11.3;11.3. Permeability;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2640;12. Gas liquid flow;12.1;12.1. Eta and slip velocity;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2641;13. Non newtonian fluid flow in circular pipes;13.1;13.1. Pressure gradient;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2641;13. Non newtonian fluid flow in circular pipes;13.3;13.3. Fanning friction factor and reynolds number by power law;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2641;13. Non newtonian fluid flow in circular pipes;13.4;13.4. Pressure gradient;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2641;13. Non newtonian fluid flow in circular pipes;13.5;13.5. Headstrom Reynold number and fanning friction factor;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2642;15. Two and three dimentional fluid mechanics;15.4;15.4. Time required;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2643;17. The boundary layer;17.1;17.1. Boundary layer thickness;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2643;17. The boundary layer;17.2;17.2. Force;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2643;17. The boundary layer;17.3;17.3. Laminar sublayer and buffer layer;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2643;17. The boundary layer;17.4;17.4. Boundary layer thickness and drag;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2647;18. Turbulence;18.2;18.2. Energy per unit mass and dissipation rate;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2647;18. Turbulence;18.3;18.3. Turbulence;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2647;18. Turbulence;18.4;18.4. Kolmogorov scale;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2647;18. Turbulence;18.7;18.7. turbulent kinematic viscosity;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2644;19. Mixing;19.1;19.1. Time required for mixing;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2644;19. Mixing;19.2;19.2. Power required;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2644;19. Mixing;19.3;19.3. Impeller speed;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2644;19. Mixing;19.4;19.4. Time required for blending;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2644;19. Mixing;19.5;19.5. Concentration;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2644;19. Mixing;19.6;19.6. Concentration;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2644;19. Mixing;19.7;19.7. Extent of mixing;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2644;19. Mixing;19.8;19.8. width of jet and entrainment ratio;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2644;19. Mixing;19.9;19.9. Concentration;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2645;20. Computational fluid dynamics;20.1;20.1. fist and second derivative of fluid flow;correct;runtime; -896;Fluid Mechanics For Chemical Engineers(N. D. Nevers);2645;20. Computational fluid dynamics;20.3;20.3. Grid velocities;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2468;1. Fundamentals of Mass transfer;1.1;1.1. MOLECULAR MASS TRANSFER;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2468;1. Fundamentals of Mass transfer;1.10;1.10. Diffusion Coefficients in the System Acetone Benzene;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2468;1. Fundamentals of Mass transfer;1.11;1.11. Calculation of Effective Diffusivity in a Multicomponent Gas Mixture;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2468;1. Fundamentals of Mass transfer;1.12;1.12. Calculation of Effective Diffusivity in a Multicomponent Stagnant Gas Mixture;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2468;1. Fundamentals of Mass transfer;1.13;1.13. Calculation of Effective Diffusivity of a Dilute Solute in a Homogeneous Mixture of Solvents;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2468;1. Fundamentals of Mass transfer;1.14;1.14. Steady State Equimolar Counterdiffusion;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2468;1. Fundamentals of Mass transfer;1.15;1.15. Steady State Diffusion of A Through Stagnant B;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2468;1. Fundamentals of Mass transfer;1.16;1.16. Production of Nickel Carbonyl Steady State One Dimensional Binary Flux Calculation;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2468;1. Fundamentals of Mass transfer;1.19;1.19. Steady State Molecular Diffusion in Liquids;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2468;1. Fundamentals of Mass transfer;1.2;1.2. Concentration of a Potassium Nitrate Wash Solution;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2468;1. Fundamentals of Mass transfer;1.20;1.20. Steady State Molecular Diffusion in Porous Solid;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2468;1. Fundamentals of Mass transfer;1.21;1.21. Knudsen Diffusion in Porous Solid;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2468;1. Fundamentals of Mass transfer;1.22;1.22. Combined Molecular and Knudsen Diffusion in a Porous Solid;error;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2468;1. Fundamentals of Mass transfer;1.23;1.23. Dextrin Diffusion in a Porous Membrane;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2468;1. Fundamentals of Mass transfer;1.24;1.24. Hydrodynamic Flow in a Porous Diaphragm;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2468;1. Fundamentals of Mass transfer;1.3;1.3. Material Balances on a Bio Artificial Kidney;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2468;1. Fundamentals of Mass transfer;1.6;1.6. Calculation of Diffusivity by the Wilke Lee Equation with Known Values of the Lennard Jones Parameters;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2468;1. Fundamentals of Mass transfer;1.7;1.7. Calculation of Diffusivity by the Wilke Lee Equation with Estimated Values of the Lennard Jones Parameters;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2468;1. Fundamentals of Mass transfer;1.8;1.8. Calculation of Liquid Diffusivity in Aqueous Solution;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2468;1. Fundamentals of Mass transfer;1.9;1.9. Calculation of Liquid Diffusivity in Dilute Nonaqueous Solution;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2472;2. Convective Mass Transfer;2.1;2.1. Mass Transfer Coefficients in a Blood Oxygenator;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2472;2. Convective Mass Transfer;2.10;2.10. Mass Transfer for a Single Cylinder;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2472;2. Convective Mass Transfer;2.11;2.11. Simultaneous Heat and Mass Transfer in Pipe;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2472;2. Convective Mass Transfer;2.12;2.12. Air Humidification in Wetted Wall Column;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2472;2. Convective Mass Transfer;2.13;2.13. Air Humidification in a Packed Bed;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2472;2. Convective Mass Transfer;2.14;2.14. Design of a Hollow Fiber Boiler Feed Water Deaerator;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2472;2. Convective Mass Transfer;2.2;2.2. Mass Transfer Coefficient in a Gas Absorber;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2472;2. Convective Mass Transfer;2.3;2.3. Mass Transfer Coefficient in a Packed Bed Distillation Column;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2472;2. Convective Mass Transfer;2.4;2.4. Mass Transfer into a Dilute Stream Flowing Under Forced Convection in a Circular Conduit;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2472;2. Convective Mass Transfer;2.6;2.6. Mass Transfer to Fluid Flow Normal to a Cylinder;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2472;2. Convective Mass Transfer;2.7;2.7. The Chilton Colburn Analogy;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2472;2. Convective Mass Transfer;2.8;2.8. Benzene Evaporation Along a Vertical Flat Plate;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2472;2. Convective Mass Transfer;2.9;2.9. Evaporation of a Drop of Water Falling in Air;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2476;3. Interphase Mass Transfer;3.1;3.1. Application of Raoults Law to a Binary System;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2476;3. Interphase Mass Transfer;3.10;3.10. Benzene Recovery System Number of Ideal Stages;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2476;3. Interphase Mass Transfer;3.2;3.2. Henrys Law Saturation of Water with Oxygen;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2476;3. Interphase Mass Transfer;3.3;3.3. Material Balances Combined with Equilibrium Relations Algebraic Solution;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2476;3. Interphase Mass Transfer;3.4;3.4. Mass Transfer Resistances During Absorption of Ammonia by Water;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2476;3. Interphase Mass Transfer;3.5;3.5. Absorption of Ammonia by Water Use of F Type Mass Transfer Coefficients;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2476;3. Interphase Mass Transfer;3.6;3.6. Distillation of a Mixture of Methanol and Water in a Packed Tower Use of F Type Mass Transfer Coefficients;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2476;3. Interphase Mass Transfer;3.7;3.7. Recovery of Benzene Vapors from a Mixture with Air;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2476;3. Interphase Mass Transfer;3.8;3.8. Adsorption of Nitrogen Dioxide on Silica Gel;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2476;3. Interphase Mass Transfer;3.9;3.9. Cocurrent Adsorption of NO2 on Silica Gel;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2477;4. Equipment for Gas Liquid Mass Transfer Operations;4.2;4.2. Specific Liquid Holdup and Void Fraction in Second and Third Generation Random Packings;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2477;4. Equipment for Gas Liquid Mass Transfer Operations;4.3;4.3. Pressure Drop in Beds Packed with First and Third Generation Random Packings;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2477;4. Equipment for Gas Liquid Mass Transfer Operations;4.4;4.4. Design of a Packed Bed Ethanol Absorber;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2477;4. Equipment for Gas Liquid Mass Transfer Operations;4.5;4.5. Stripping Chloroform from Water by Sparging with Air;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2477;4. Equipment for Gas Liquid Mass Transfer Operations;4.6;4.6. Design of a Sieve Tray Column for Ethanol Absorption;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2477;4. Equipment for Gas Liquid Mass Transfer Operations;4.7;4.7. Gas Pressure Drop in a Sieve Tray Ethanol Absorber;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2477;4. Equipment for Gas Liquid Mass Transfer Operations;4.8;4.8. Weeping and Entrainment in a Sieve Tray Ethanol Absorber;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2477;4. Equipment for Gas Liquid Mass Transfer Operations;4.9;4.9. Murphree Efficiency of a Sieve Tray Ethanol Absorber;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2478;5. Absorption and Stripping;5.1;5.1. Number of Real Sieve Trays in an Absorber;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2478;5. Absorption and Stripping;5.3;5.3. Packed Tower Absorber for Recovery of Benzene Vapors;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2478;5. Absorption and Stripping;5.4;5.4. Packed Height of an Ethanol Absorber;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2478;5. Absorption and Stripping;5.5;5.5. Tray Tower for Adiabatic Pentane Absorption;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2479;6. Distillation;6.1;6.1. Flash Vaporization of a Heptan Octane Mixture;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2479;6. Distillation;6.10;6.10. Use of Fenske Equation for Ternary Distillation;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2479;6. Distillation;6.11;6.11. Underwood Equations for Ternary Distillation;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2479;6. Distillation;6.12;6.12. Underwood Equations for a Depropanizer;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2479;6. Distillation;6.13;6.13. Application of the Gilliland Correlation;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2479;6. Distillation;6.14;6.14. Rate Based Ternary Distillation Calculations;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2479;6. Distillation;6.2;6.2. Flash Vaporization of a Ternary Mixture;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2479;6. Distillation;6.3;6.3. Differential Distillation of a Heptane Octane Mixture;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2479;6. Distillation;6.4;6.4. Rectification of a Benzene Toluene Mixture;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2479;6. Distillation;6.7;6.7. Overall Efficiency of a Benzene Toluene Fractionator;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2480;7. Liquid Liquid Extraction;7.10;7.10. Mass Transfer Coefficients in Agitated Extractor;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2480;7. Liquid Liquid Extraction;7.11;7.11. Preliminary Design of an RDC;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2480;7. Liquid Liquid Extraction;7.2;7.2. Single Stage Extraction;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2480;7. Liquid Liquid Extraction;7.4;7.4. Multistage Countercurrent Extraction;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2480;7. Liquid Liquid Extraction;7.5;7.5. Multistage Extraction Insoluble Liquids;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2480;7. Liquid Liquid Extraction;7.6;7.6. Countercurrent Extraction with Extract Reflux;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2480;7. Liquid Liquid Extraction;7.7;7.7. Design of a Mixer Settler Extractor;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2480;7. Liquid Liquid Extraction;7.8;7.8. Power Requirements of a Mixer Settler Extractor;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2480;7. Liquid Liquid Extraction;7.9;7.9. Drop Size and Interfacial Area in an Extractor;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2481;8. Humidification Operations;8.1;8.1. Humidity of a Saturated Gas Vapor Mixture;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2481;8. Humidification Operations;8.2;8.2. Enthalpy of a Saturated Gas Vapor Mixture;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2481;8. Humidification Operations;8.3;8.3. Properties of an Unsaturated Gas Vapor Mixture;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2481;8. Humidification Operations;8.4;8.4. Adiabatic Saturation Temperature;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2481;8. Humidification Operations;8.5;8.5. Wet Bulb Temperature of an Air Water Mixture;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2481;8. Humidification Operations;8.6;8.6. Wet Bulb and Adiabatic Saturation Temperatures of an Air Toluene Mixture;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2481;8. Humidification Operations;8.7;8.7. Water Cooling Using Air Graphical Solution;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2481;8. Humidification Operations;8.8;8.8. Water Cooling Using Air Numerical Solution;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2482;9. Membranes and Other Solid Sorption Agents;9.1;9.1. Liquid Flux in Tubular Membrane;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2482;9. Membranes and Other Solid Sorption Agents;9.11;9.11. Dialysis for Sulfuric Acid Purification;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2482;9. Membranes and Other Solid Sorption Agents;9.12;9.12. Water Desalinization by Reverse Osmosis;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2482;9. Membranes and Other Solid Sorption Agents;9.13;9.13. Ultrafiltration of Cheese Whey Proteins;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2482;9. Membranes and Other Solid Sorption Agents;9.2;9.2. Oxygen Enriched Air by Gas Permeation;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2482;9. Membranes and Other Solid Sorption Agents;9.4;9.4. Freundlich and Langmuir Adsorption Isotherms;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2482;9. Membranes and Other Solid Sorption Agents;9.5;9.5. Ion Exchange Equilibrium;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2482;9. Membranes and Other Solid Sorption Agents;9.8;9.8. Fixed Bed Scale Up Using LUB;correct;runtime; -905;Principles And Modern Applications Of Mass Transfer Operations(J. Benitez);2482;9. Membranes and Other Solid Sorption Agents;9.9;9.9. Ion Exchanger Ideal Break Time;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.1.a;1.1.a. radix of a number system;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.1.b;1.1.b. first 10 numbers in number system;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.10.a;1.10.a. binary equivalent of octal no given in 7s compliment;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.10.b;1.10.b. hexadecimal equivalent of octal no given in 7s compliment;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.11;1.11. floating point representation;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.13.a;1.13.a. bits required for binary and BCD;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.13.b;1.13.b. BCD bits required;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.13.c;1.13.c. BCD conversion;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.14.a;1.14.a. excess 3 code;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.14.b;1.14.b. excess 3 to decimal;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.15.a;1.15.a. decimal to GRAY conversion;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.15.b;1.15.b. Gray to binary equivalent;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.16;1.16. gray sequence;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.2;1.2. decimal equivalent of binary;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.3;1.3. binary equivalent of decimal;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.4;1.4. decimal to octal;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.5;1.5. decimal to hexadecimal;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.6.a;1.6.a. octal to binary;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.6.b;1.6.b. binary to octal;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.7.a;1.7.a. hexadecimal to binary;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.7.b;1.7.b. binary to hexadecimal;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.8.a;1.8.a. hexadecimal to octal;correct;runtime; -911;Digital Electronics(A. K. Maini);2337;1. Number System;1.8.b;1.8.b. octal to hexadecimal;correct;runtime; -911;Digital Electronics(A. K. Maini);2663;2. Digital Arithmetic;2.1.a;2.1.a. addition of decimal numbers;correct;runtime; -911;Digital Electronics(A. K. Maini);2663;2. Digital Arithmetic;2.1.b;2.1.b. addition of hexadecimal numbers;correct;runtime; -911;Digital Electronics(A. K. Maini);2663;2. Digital Arithmetic;2.10;2.10. division;correct;runtime; -911;Digital Electronics(A. K. Maini);2663;2. Digital Arithmetic;2.12.a;2.12.a. addition of decimal numbers;correct;runtime; -911;Digital Electronics(A. K. Maini);2663;2. Digital Arithmetic;2.12.b;2.12.b. addition of hexadecimal numbers;correct;runtime; -911;Digital Electronics(A. K. Maini);2663;2. Digital Arithmetic;2.13;2.13. subtraction of octal numbers;correct;runtime; -911;Digital Electronics(A. K. Maini);2663;2. Digital Arithmetic;2.14;2.14. multiplication of decimal no;correct;runtime; -911;Digital Electronics(A. K. Maini);2663;2. Digital Arithmetic;2.15;2.15. division of hexadecimal no;correct;runtime; -911;Digital Electronics(A. K. Maini);2663;2. Digital Arithmetic;2.2;2.2. check whether 16 bit addition is possible;correct;runtime; -911;Digital Electronics(A. K. Maini);2663;2. Digital Arithmetic;2.3;2.3. addition of two signed bit numbers;correct;runtime; -911;Digital Electronics(A. K. Maini);2663;2. Digital Arithmetic;2.4;2.4. subtraction;correct;runtime; -911;Digital Electronics(A. K. Maini);2663;2. Digital Arithmetic;2.5.a;2.5.a. subtraction of decimal no;correct;runtime; -911;Digital Electronics(A. K. Maini);2663;2. Digital Arithmetic;2.5.b;2.5.b. subtraction of hexadecimal no;correct;runtime; -911;Digital Electronics(A. K. Maini);2663;2. Digital Arithmetic;2.7;2.7. excess 3 subtraction;correct;runtime; -911;Digital Electronics(A. K. Maini);2663;2. Digital Arithmetic;2.8.a;2.8.a. multiplication of decimal no;correct;runtime; -911;Digital Electronics(A. K. Maini);2663;2. Digital Arithmetic;2.8.b;2.8.b. multiplication of hexadecimal no;correct;runtime; -911;Digital Electronics(A. K. Maini);2663;2. Digital Arithmetic;2.9;2.9. division;correct;runtime; -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.1;3.1. Four input OR using two input OR;error;file_not_found;/var/www/scilab_in/uploads-backup/911/CH3/EX3.1/ : NO SCILAB FILE INSIDE -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.10;3.10. INHIBIT input;correct;runtime; -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.11.a;3.11.a. circuit symbol;error;file_not_found;/var/www/scilab_in/uploads-backup/911/CH3/EX3.11.a/ : NO SCILAB FILE INSIDE -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.11.b;3.11.b. circuit symbol;error;file_not_found;/var/www/scilab_in/uploads-backup/911/CH3/EX3.11.b/ : NO SCILAB FILE INSIDE -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.13;3.13. logic expression of Y;correct;runtime; -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.14.a;3.14.a. High state Fan Out;correct;runtime; -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.14.b;3.14.b. Low state Fan Out;correct;runtime; -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.14.c;3.14.c. maximum flip flops in logic family;correct;runtime; -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.3;3.3. Four input AND using two input;correct;runtime; -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.4.a;3.4.a. logic circuit;correct;runtime; -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.4.b;3.4.b. logic circuit;correct;runtime; -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.5.a;3.5.a. 3 input exor using 2 input exor;correct;runtime; -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.5.b;3.5.b. 4 input exor using 2 input exor;error;file_not_found;/var/www/scilab_in/uploads-backup/911/CH3/EX3.5.b/ : NO SCILAB FILE INSIDE -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.6;3.6. Not gate using EXOR gate;correct;runtime; -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.7.a;3.7.a. 4 input NAND using 2 input AND and NOT;correct;runtime; -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.7.b;3.7.b. 3 input NAND using 2 input NAND;correct;runtime; -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.7.c;3.7.c. NOT circuit using 2 input NAND gate;correct;runtime; -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.7.d;3.7.d. NOT circuit using 2 input NOR gate;correct;runtime; -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.7.e;3.7.e. NOT circuit using 2 input EXNOR gate;correct;runtime; -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.8;3.8. 3 input exnor using 2 input exnor;correct;runtime; -911;Digital Electronics(A. K. Maini);2662;3. Logic gates and related devices;3.9;3.9. INHIBIT input;correct;runtime; -911;Digital Electronics(A. K. Maini);2661;4. Logic Families;4.1.a;4.1.a. Average power dissipation of a single NAND gate;correct;runtime; -911;Digital Electronics(A. K. Maini);2661;4. Logic Families;4.1.b;4.1.b. Maximum propagation delay of a single gate;correct;runtime; -911;Digital Electronics(A. K. Maini);2661;4. Logic Families;4.1.c;4.1.c. HIGH state Noise Margin;correct;runtime; -911;Digital Electronics(A. K. Maini);2661;4. Logic Families;4.1.d;4.1.d. LOW state Noise Margin;correct;runtime; -911;Digital Electronics(A. K. Maini);2661;4. Logic Families;4.2;4.2. Number of NAND gates;correct;runtime; -911;Digital Electronics(A. K. Maini);2661;4. Logic Families;4.3;4.3. fan out of IC 74LS04;correct;runtime; -911;Digital Electronics(A. K. Maini);2661;4. Logic Families;4.4.a;4.4.a. input loading factor High state of TTL;correct;runtime; -911;Digital Electronics(A. K. Maini);2661;4. Logic Families;4.4.b;4.4.b. input loading factor LOW state of TTL;correct;runtime; -911;Digital Electronics(A. K. Maini);2661;4. Logic Families;4.4.c;4.4.c. output loading factor High state of TTL;correct;runtime; -911;Digital Electronics(A. K. Maini);2661;4. Logic Families;4.4.d;4.4.d. output loading factor LOW state of TTL;correct;runtime; -911;Digital Electronics(A. K. Maini);2661;4. Logic Families;4.5.a;4.5.a. current when output is HIGH;correct;runtime; -911;Digital Electronics(A. K. Maini);2661;4. Logic Families;4.5.b;4.5.b. current when output is LOW;correct;runtime; -911;Digital Electronics(A. K. Maini);2660;5. Boolean Algebra and Simplification Techniques;5.1.a;5.1.a. Dual;correct;runtime; -911;Digital Electronics(A. K. Maini);2660;5. Boolean Algebra and Simplification Techniques;5.1.b;5.1.b. Dual;correct;runtime; -911;Digital Electronics(A. K. Maini);2660;5. Boolean Algebra and Simplification Techniques;5.11.a;5.11.a. Minimise using SOP;correct;runtime; -911;Digital Electronics(A. K. Maini);2660;5. Boolean Algebra and Simplification Techniques;5.11.b;5.11.b. Minimise using POS;correct;runtime; -911;Digital Electronics(A. K. Maini);2660;5. Boolean Algebra and Simplification Techniques;5.12.a;5.12.a. using k map minimise;correct;runtime; -911;Digital Electronics(A. K. Maini);2660;5. Boolean Algebra and Simplification Techniques;5.12.b;5.12.b. using k map minimise;correct;runtime; -911;Digital Electronics(A. K. Maini);2660;5. Boolean Algebra and Simplification Techniques;5.2;5.2. simplify;correct;runtime; -911;Digital Electronics(A. K. Maini);2660;5. Boolean Algebra and Simplification Techniques;5.3;5.3. simplify the equation;correct;runtime; -911;Digital Electronics(A. K. Maini);2660;5. Boolean Algebra and Simplification Techniques;5.4;5.4. prove equation;correct;runtime; -911;Digital Electronics(A. K. Maini);2660;5. Boolean Algebra and Simplification Techniques;5.5.a;5.5.a. prove equation;correct;runtime; -911;Digital Electronics(A. K. Maini);2660;5. Boolean Algebra and Simplification Techniques;5.6;5.6. OR gate using NAND gates;correct;runtime; -911;Digital Electronics(A. K. Maini);2660;5. Boolean Algebra and Simplification Techniques;5.7;5.7. EXOR gate using NAND gates;correct;runtime; -911;Digital Electronics(A. K. Maini);2664;6. Arithmetic Circuits;6.2.a;6.2.a. HAlf adder;error;file_not_found;/var/www/scilab_in/uploads-backup/911/CH6/EX6.2.a/ : NO SCILAB FILE INSIDE -911;Digital Electronics(A. K. Maini);2664;6. Arithmetic Circuits;6.2.b;6.2.b. half subtractor;error;file_not_found;/var/www/scilab_in/uploads-backup/911/CH6/EX6.2.b/ : NO SCILAB FILE INSIDE -911;Digital Electronics(A. K. Maini);2664;6. Arithmetic Circuits;6.3;6.3. boolean expression of borrow and difference;correct;runtime; -911;Digital Electronics(A. K. Maini);2664;6. Arithmetic Circuits;6.5;6.5. Identify Logic function;correct;runtime; -911;Digital Electronics(A. K. Maini);2664;6. Arithmetic Circuits;6.6;6.6. BCD adder;correct;runtime; -911;Digital Electronics(A. K. Maini);2659;7. Combinational Logic Circuits;7.1;7.1. POS by multiplexer;correct;runtime; -911;Digital Electronics(A. K. Maini);2659;7. Combinational Logic Circuits;7.10;7.10. Logic Diagram of DEMUX;correct;runtime; -911;Digital Electronics(A. K. Maini);2659;7. Combinational Logic Circuits;7.3;7.3. 16 to 1 using 2 8 to 1 mux;correct;runtime; -911;Digital Electronics(A. K. Maini);2659;7. Combinational Logic Circuits;7.4.a;7.4.a. logic status of output bits;correct;runtime; -911;Digital Electronics(A. K. Maini);2659;7. Combinational Logic Circuits;7.4.b;7.4.b. logic status of output bits;correct;runtime; -911;Digital Electronics(A. K. Maini);2659;7. Combinational Logic Circuits;7.4.c;7.4.c. logic status of output bits;correct;runtime; -911;Digital Electronics(A. K. Maini);2659;7. Combinational Logic Circuits;7.6;7.6. full adder using 3 to 8 decoder;error;runtime; -911;Digital Electronics(A. K. Maini);2659;7. Combinational Logic Circuits;7.9.a;7.9.a. logic status;error;runtime; -911;Digital Electronics(A. K. Maini);2659;7. Combinational Logic Circuits;7.9.b;7.9.b. logic status;error;runtime; -911;Digital Electronics(A. K. Maini);2659;7. Combinational Logic Circuits;7.9.c;7.9.c. logic status;error;runtime; -911;Digital Electronics(A. K. Maini);2658;8. Flip flops and related evices;8.1.a;8.1.a. output waveform of multi vibrator;error;runtime; -911;Digital Electronics(A. K. Maini);2658;8. Flip flops and related evices;8.1.b;8.1.b. high time of multivibrator;correct;runtime; -911;Digital Electronics(A. K. Maini);2658;8. Flip flops and related evices;8.1.c;8.1.c. low time of multivibrator;correct;runtime; -911;Digital Electronics(A. K. Maini);2658;8. Flip flops and related evices;8.2.a;8.2.a. frequency of multivibrator;error;runtime; -911;Digital Electronics(A. K. Maini);2658;8. Flip flops and related evices;8.2.b;8.2.b. duty cycle of multivibrator;correct;runtime; -911;Digital Electronics(A. K. Maini);2658;8. Flip flops and related evices;8.2.c;8.2.c. time period of multivibrator;correct;runtime; -911;Digital Electronics(A. K. Maini);2658;8. Flip flops and related evices;8.3;8.3. circuit symbol of flip flop;correct;runtime; -911;Digital Electronics(A. K. Maini);2658;8. Flip flops and related evices;8.4.a;8.4.a. output waveform of multi vibrator;correct;runtime; -911;Digital Electronics(A. K. Maini);2658;8. Flip flops and related evices;8.4.b;8.4.b. frequency of flip flops;correct;runtime; -911;Digital Electronics(A. K. Maini);2658;8. Flip flops and related evices;8.5;8.5. frequency of flip flop;correct;runtime; -911;Digital Electronics(A. K. Maini);2658;8. Flip flops and related evices;8.6;8.6. D latch;correct;runtime; -911;Digital Electronics(A. K. Maini);2658;8. Flip flops and related evices;8.6.b;8.6.b. prove Q output to be low in given condition;correct;runtime; -911;Digital Electronics(A. K. Maini);2658;8. Flip flops and related evices;8.7.a;8.7.a. suggest a flip flop for logic 0;correct;runtime; -911;Digital Electronics(A. K. Maini);2658;8. Flip flops and related evices;8.7.b;8.7.b. suggest a flip flop for logic 1;correct;runtime; -911;Digital Electronics(A. K. Maini);2655;9. Counters and Registers;9.1;9.1. Number of clocks;correct;runtime; -911;Digital Electronics(A. K. Maini);2655;9. Counters and Registers;9.10.a;9.10.a. data bit at ouput;correct;runtime; -911;Digital Electronics(A. K. Maini);2655;9. Counters and Registers;9.10.b;9.10.b. status of output;correct;runtime; -911;Digital Electronics(A. K. Maini);2655;9. Counters and Registers;9.11.a;9.11.a. no of flip flop in MOD 10 ring counter;correct;runtime; -911;Digital Electronics(A. K. Maini);2655;9. Counters and Registers;9.11.b;9.11.b. number of flip flops in MOD 10 Johnson counter;correct;runtime; -911;Digital Electronics(A. K. Maini);2655;9. Counters and Registers;9.12;9.12. Modulus of counter;correct;runtime; -911;Digital Electronics(A. K. Maini);2655;9. Counters and Registers;9.13;9.13. logic status of register;correct;runtime; -911;Digital Electronics(A. K. Maini);2655;9. Counters and Registers;9.2;9.2. number of flip flops;correct;runtime; -911;Digital Electronics(A. K. Maini);2655;9. Counters and Registers;9.3.a;9.3.a. find modulus of counter;correct;runtime; -911;Digital Electronics(A. K. Maini);2655;9. Counters and Registers;9.3.b;9.3.b. frequency of flip flop;correct;runtime; -911;Digital Electronics(A. K. Maini);2655;9. Counters and Registers;9.5.a;9.5.a. count sequence of ripple counter;correct;runtime; -911;Digital Electronics(A. K. Maini);2655;9. Counters and Registers;9.5.b;9.5.b. timing waveform of ripple counter;correct;runtime; -911;Digital Electronics(A. K. Maini);2655;9. Counters and Registers;9.6;9.6. logic status;correct;runtime; -911;Digital Electronics(A. K. Maini);2655;9. Counters and Registers;9.7;9.7. Modulus of counter;correct;runtime; -911;Digital Electronics(A. K. Maini);2655;9. Counters and Registers;9.7.b;9.7.b. state of counter after 8th pulse;correct;runtime; -911;Digital Electronics(A. K. Maini);2655;9. Counters and Registers;9.8;9.8. Design counter circuit;error;file_not_found;/var/www/scilab_in/uploads-backup/911/CH9/EX9.8/ : NO SCILAB FILE INSIDE -911;Digital Electronics(A. K. Maini);2654;10. DATA CONVERSION CIRCUITS D to A AND A to D CONVERTERS;10.1.A;10.1.A. full scale output of D to A converter;correct;runtime; -911;Digital Electronics(A. K. Maini);2654;10. DATA CONVERSION CIRCUITS D to A AND A to D CONVERTERS;10.1.b;10.1.b. percentage resolution of D to A converter;correct;runtime; -911;Digital Electronics(A. K. Maini);2654;10. DATA CONVERSION CIRCUITS D to A AND A to D CONVERTERS;10.10.a;10.10.a. average conversion time;correct;runtime; -911;Digital Electronics(A. K. Maini);2654;10. DATA CONVERSION CIRCUITS D to A AND A to D CONVERTERS;10.10.b;10.10.b. conversion time;correct;runtime; -911;Digital Electronics(A. K. Maini);2654;10. DATA CONVERSION CIRCUITS D to A AND A to D CONVERTERS;10.2;10.2. full scale output of D to A converter;correct;runtime; -911;Digital Electronics(A. K. Maini);2654;10. DATA CONVERSION CIRCUITS D to A AND A to D CONVERTERS;10.3;10.3. range of expected analog output;correct;runtime; -911;Digital Electronics(A. K. Maini);2654;10. DATA CONVERSION CIRCUITS D to A AND A to D CONVERTERS;10.4;10.4. cause of incorrect staircase;correct;runtime; -911;Digital Electronics(A. K. Maini);2654;10. DATA CONVERSION CIRCUITS D to A AND A to D CONVERTERS;10.5;10.5. resolution;correct;runtime; -911;Digital Electronics(A. K. Maini);2654;10. DATA CONVERSION CIRCUITS D to A AND A to D CONVERTERS;10.6;10.6. quantization error;correct;runtime; -911;Digital Electronics(A. K. Maini);2654;10. DATA CONVERSION CIRCUITS D to A AND A to D CONVERTERS;10.6.b;10.6.b. resolution;correct;runtime; -911;Digital Electronics(A. K. Maini);2654;10. DATA CONVERSION CIRCUITS D to A AND A to D CONVERTERS;10.7;10.7. conversion time of 12 bit A to D converter;correct;runtime; -911;Digital Electronics(A. K. Maini);2654;10. DATA CONVERSION CIRCUITS D to A AND A to D CONVERTERS;10.8;10.8. digital output for analog input;correct;runtime; -911;Digital Electronics(A. K. Maini);2654;10. DATA CONVERSION CIRCUITS D to A AND A to D CONVERTERS;10.9;10.9. digital output for analog input;correct;runtime; -911;Digital Electronics(A. K. Maini);2667;11. Programmable logic Devices;11.1.a;11.1.a. Size of PROM for a binary multiplier;correct;runtime; -911;Digital Electronics(A. K. Maini);2667;11. Programmable logic Devices;11.1.b;11.1.b. Size of PROM for a MUX;correct;runtime; -911;Digital Electronics(A. K. Maini);2667;11. Programmable logic Devices;11.1.c;11.1.c. Size of PROM for a BCD adder;correct;runtime; -911;Digital Electronics(A. K. Maini);2667;11. Programmable logic Devices;11.4;11.4. boolean expression of PLD and PAL;correct;runtime; -911;Digital Electronics(A. K. Maini);2666;13. Microcontrollers;13.1;13.1. Pulse width;correct;runtime; -911;Digital Electronics(A. K. Maini);2666;13. Microcontrollers;13.2;13.2. frequency of micro controllers;correct;runtime; -911;Digital Electronics(A. K. Maini);2665;14. Memory Devices;14.1.a;14.1.a. number of registers in each row in ROM;correct;runtime; -911;Digital Electronics(A. K. Maini);2665;14. Memory Devices;14.1.b;14.1.b. number of registers in each column in ROM;correct;runtime; -911;Digital Electronics(A. K. Maini);2665;14. Memory Devices;14.1.c;14.1.c. total number of address inputs;correct;runtime; -911;Digital Electronics(A. K. Maini);2665;14. Memory Devices;14.1.d;14.1.d. type of row decoder;correct;runtime; -911;Digital Electronics(A. K. Maini);2665;14. Memory Devices;14.1.e;14.1.e. type of column decoder;correct;runtime; -911;Digital Electronics(A. K. Maini);2665;14. Memory Devices;14.2;14.2. min size of rom required;correct;runtime; -911;Digital Electronics(A. K. Maini);2665;14. Memory Devices;14.3;14.3. Configuration of RAM;correct;runtime; -911;Digital Electronics(A. K. Maini);2665;14. Memory Devices;14.4;14.4. connect ROM in different configuration;correct;runtime; -911;Digital Electronics(A. K. Maini);2665;14. Memory Devices;14.5;14.5. total capacity and word size of RAM;correct;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2668;1. introduction to transport phenomena;1.1;1.1. fundamental variables and units;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2668;1. introduction to transport phenomena;1.2;1.2. The role of intermolecular forces;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2669;2. molecular transport mechanisms;2.1;2.1. the analogous form;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2669;2. molecular transport mechanisms;2.11;2.11. diffusion coefficient;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2669;2. molecular transport mechanisms;2.12;2.12. viscosity;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2669;2. molecular transport mechanisms;2.2;2.2. the analogous form;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2669;2. molecular transport mechanisms;2.3;2.3. heat transfer;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2669;2. molecular transport mechanisms;2.5;2.5. heat transfer;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2669;2. molecular transport mechanisms;2.6;2.6. mass transfer;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2669;2. molecular transport mechanisms;2.7;2.7. mass transfer;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2669;2. molecular transport mechanisms;2.8;2.8. mass transfer;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2669;2. molecular transport mechanisms;2.9;2.9. momentum transfer;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2670;3. molecular transport and the general property balance;3.1;3.1. balance or conservation concept;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2670;3. molecular transport and the general property balance;3.2;3.2. the balance equation in differential form;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2670;3. molecular transport and the general property balance;3.3;3.3. the balance equation in differential form;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2671;4. molecular transport and the general property balance;4.1;4.1. variable area transport;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2671;4. molecular transport and the general property balance;4.2;4.2. variable area transport;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2671;4. molecular transport and the general property balance;4.3;4.3. variable area transport;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2671;4. molecular transport and the general property balance;4.4;4.4. variable area transport;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2671;4. molecular transport and the general property balance;4.5;4.5. heat or mass transport with constant generation;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2671;4. molecular transport and the general property balance;4.7;4.7. laminar flow in a tube;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2672;5. transport with a net convective flux;5.10;5.10. total flux and ficks law;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2672;5. transport with a net convective flux;5.11;5.11. binary mass diffusion in gases;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2672;5. transport with a net convective flux;5.12;5.12. binary mass diffusion in gases;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2672;5. transport with a net convective flux;5.13;5.13. diffusion due to pressure gradient;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2672;5. transport with a net convective flux;5.9;5.9. mass fluxes in stationary and convected coordinates;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2673;6. flow turbulence;6.1;6.1. the reynolds experiment;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2673;6. flow turbulence;6.2;6.2. transitional flow;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2673;6. flow turbulence;6.3;6.3. the equations for transport under turbulent conditions;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2673;6. flow turbulence;6.5;6.5. the prandtl mixing theory;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2673;6. flow turbulence;6.9;6.9. friction factor;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2674;7. integral methods of analysis;7.10;7.10. the energy equation and the engineering bernoulli equation;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2674;7. integral methods of analysis;7.11;7.11. the energy equation and the engineering bernoulli equation;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2674;7. integral methods of analysis;7.12;7.12. the mechanical energy equation and the engineering bernoulli equation;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2674;7. integral methods of analysis;7.13;7.13. the mechanical energy equation and the engineering bernoulli equation;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2674;7. integral methods of analysis;7.14;7.14. the mechanical energy equation and the engineering bernoulli equation;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2674;7. integral methods of analysis;7.15;7.15. manometers;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2674;7. integral methods of analysis;7.16;7.16. manometers;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2674;7. integral methods of analysis;7.18;7.18. manometers;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2674;7. integral methods of analysis;7.19;7.19. buoyant forces;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2674;7. integral methods of analysis;7.2;7.2. the integral mass balance;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2674;7. integral methods of analysis;7.20;7.20. buoyant forces;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2674;7. integral methods of analysis;7.21;7.21. variation of pressure with depth;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2674;7. integral methods of analysis;7.22;7.22. variation of pressure with depth;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2674;7. integral methods of analysis;7.3;7.3. integral balance on an individual species;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2674;7. integral methods of analysis;7.4;7.4. integral momentum balance;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2674;7. integral methods of analysis;7.5;7.5. integral momentum balance;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2674;7. integral methods of analysis;7.6;7.6. integral momentum balance;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2674;7. integral methods of analysis;7.7;7.7. integral energy balance;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2674;7. integral methods of analysis;7.8;7.8. integral energy balance;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2680;9. agitation;9.3;9.3. scale up procedures for turbulent flow with a single test volume;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2680;9. agitation;9.4;9.4. scale up procedures for turbulent flow with a single test volume;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2680;9. agitation;9.5;9.5. scale up procedures for turbulent flow with a single test volume;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2683;10. transport in ducts;10.1;10.1. laminar pipe flow;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2683;10. transport in ducts;10.11;10.11. complex fluid flow systems;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2683;10. transport in ducts;10.12;10.12. complex fluid flow systems;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2683;10. transport in ducts;10.14;10.14. non circular conduits;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2683;10. transport in ducts;10.15;10.15. orifice meter;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2683;10. transport in ducts;10.16;10.16. venturi and nozzle;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2683;10. transport in ducts;10.17;10.17. pitot tube;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2683;10. transport in ducts;10.2;10.2. turbulent pipe flow;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2683;10. transport in ducts;10.3;10.3. pressure drop in rough pipes;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2683;10. transport in ducts;10.4;10.4. pressure drop in rough pipes;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2683;10. transport in ducts;10.5;10.5. von karman number;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2683;10. transport in ducts;10.6;10.6. von karman number;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2683;10. transport in ducts;10.7;10.7. the velocity head concept;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2683;10. transport in ducts;10.8;10.8. pipe fittings and valves;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2683;10. transport in ducts;10.9;10.9. gases;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2688;11. heat and mass transfer in duct flow;11.1;11.1. conduction;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2688;11. heat and mass transfer in duct flow;11.10;11.10. multipass heat exchangers equipment;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2688;11. heat and mass transfer in duct flow;11.2;11.2. the resistance concept;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2688;11. heat and mass transfer in duct flow;11.3;11.3. the resistance concept;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2688;11. heat and mass transfer in duct flow;11.5;11.5. heat and mass transfer during turbulent flow;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2688;11. heat and mass transfer in duct flow;11.6;11.6. heat and mass transfer during turbulent flow;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2688;11. heat and mass transfer in duct flow;11.7;11.7. double pipe heat exchangers simple solutions;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2688;11. heat and mass transfer in duct flow;11.8;11.8. double pipe heat exchangers simple solutions;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2688;11. heat and mass transfer in duct flow;11.9;11.9. double pipe heat exchangers simple solutions;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2689;12. transport past immersed bodies;12.10;12.10. stokes flow past a sphere;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2689;12. transport past immersed bodies;12.11;12.11. drag coefficient correlations;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2689;12. transport past immersed bodies;12.12;12.12. drag coefficient correlations;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2689;12. transport past immersed bodies;12.13;12.13. drag coefficient correlations;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2689;12. transport past immersed bodies;12.14;12.14. liquid solid fluidization;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2689;12. transport past immersed bodies;12.15;12.15. liquid solid fluidization;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2689;12. transport past immersed bodies;12.16;12.16. single cyclinder heat transfer;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2689;12. transport past immersed bodies;12.17;12.17. single cyclinder heat transfer;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2689;12. transport past immersed bodies;12.2;12.2. the laminar boundary layer;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2689;12. transport past immersed bodies;12.3;12.3. turbulent boundary layer;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2689;12. transport past immersed bodies;12.5;12.5. heat and mass transfer during boundary layer flow past a flat plate;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2690;13. unsteady state transport;13.1;13.1. heat transfer with negligible internal resistance;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2690;13. unsteady state transport;13.10;13.10. cyclinder;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2690;13. unsteady state transport;13.6;13.6. generalized chart solution for finite slab and cyclinder;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2690;13. unsteady state transport;13.7;13.7. generalized chart solution for finite slab and cyclinder;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2690;13. unsteady state transport;13.9;13.9. semi infinite slab;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2691;14. estimation of transport coefficients;14.1;14.1. kinetic theory of gases;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2691;14. estimation of transport coefficients;14.2;14.2. non uniform gas theory;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2691;14. estimation of transport coefficients;14.3;14.3. non uniform gas theory;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2691;14. estimation of transport coefficients;14.4;14.4. non uniform gas theory;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2691;14. estimation of transport coefficients;14.5;14.5. non uniform gas theory;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2691;14. estimation of transport coefficients;14.6;14.6. empirical correlations for gases;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2691;14. estimation of transport coefficients;14.7;14.7. viscosity;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2691;14. estimation of transport coefficients;14.8;14.8. thermal conductivity;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2691;14. estimation of transport coefficients;14.9;14.9. diffusion coefficient;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2692;15. non newtonial phenomena;15.1;15.1. rheological characteristics of material time independant behaviour;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2692;15. non newtonial phenomena;15.2;15.2. capillary viscometer;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2692;15. non newtonial phenomena;15.3;15.3. capillary viscometer;error;runtime; -914;Transport Phenomena(R. S. Brodkey And H. C. Hershey);2692;15. non newtonial phenomena;15.4;15.4. capillary viscometer;error;runtime; -926;Chemical Process Principles: Part - 1: Material And Energy Balances(O. A. Hougen, R. A. Ragatz And K. M. Watson);2435;2. Stoichiometric and Composition Relationships;2.1;2.1. Calculating volume of a gas from given weight;correct;runtime; -926;Chemical Process Principles: Part - 1: Material And Energy Balances(O. A. Hougen, R. A. Ragatz And K. M. Watson);2435;2. Stoichiometric and Composition Relationships;2.2;2.2. Calculating mass from given volume;correct;runtime; -926;Chemical Process Principles: Part - 1: Material And Energy Balances(O. A. Hougen, R. A. Ragatz And K. M. Watson);2435;2. Stoichiometric and Composition Relationships;2.3;2.3. Calculation of weight and volume from reaction stoichiometry;error;runtime; -926;Chemical Process Principles: Part - 1: Material And Energy Balances(O. A. Hougen, R. A. Ragatz And K. M. Watson);2435;2. Stoichiometric and Composition Relationships;2.4;2.4. Expressing weight percent into mole percent;correct;runtime; -926;Chemical Process Principles: Part - 1: Material And Energy Balances(O. A. Hougen, R. A. Ragatz And K. M. Watson);2435;2. Stoichiometric and Composition Relationships;2.5;2.5. Expressing mole percent into weight percent;correct;runtime; -926;Chemical Process Principles: Part - 1: Material And Energy Balances(O. A. Hougen, R. A. Ragatz And K. M. Watson);2435;2. Stoichiometric and Composition Relationships;2.6;2.6. Expressing composition of mixtures;correct;runtime; -926;Chemical Process Principles: Part - 1: Material And Energy Balances(O. A. Hougen, R. A. Ragatz And K. M. Watson);2435;2. Stoichiometric and Composition Relationships;2.7;2.7. Expressing composition of solution;correct;runtime; -926;Chemical Process Principles: Part - 1: Material And Energy Balances(O. A. Hougen, R. A. Ragatz And K. M. Watson);2436;3. Behavior of Ideal Gases;3.1;3.1. calculation of volume;correct;runtime; -926;Chemical Process Principles: Part - 1: Material And Energy Balances(O. A. Hougen, R. A. Ragatz And K. M. Watson);2436;3. Behavior of Ideal Gases;3.10;3.10. Calculation of volume change with change in composition;correct;runtime; -926;Chemical Process Principles: Part - 1: Material And Energy Balances(O. A. Hougen, R. A. Ragatz And K. M. Watson);2436;3. Behavior of Ideal Gases;3.11;3.11. Calculation of volume;correct;runtime; -926;Chemical Process Principles: Part - 1: Material And Energy Balances(O. A. Hougen, R. A. Ragatz And K. M. Watson);2436;3. Behavior of Ideal Gases;3.12;3.12. Calculation of percentage composition by volume;correct;runtime; -926;Chemical Process Principles: Part - 1: Material And Energy Balances(O. A. Hougen, R. A. Ragatz And K. M. Watson);2436;3. Behavior of Ideal Gases;3.2;3.2. calculation of weight;correct;runtime; -926;Chemical Process Principles: Part - 1: Material And Energy Balances(O. A. Hougen, R. A. Ragatz And K. M. Watson);2436;3. Behavior of Ideal Gases;3.3;3.3. Calculation of pressure;correct;runtime; -926;Chemical Process Principles: Part - 1: Material And Energy Balances(O. A. Hougen, R. A. Ragatz And K. M. Watson);2436;3. Behavior of Ideal Gases;3.4;3.4. Calculation of temperature;correct;runtime; -926;Chemical Process Principles: Part - 1: Material And Energy Balances(O. A. Hougen, R. A. Ragatz And K. M. Watson);2436;3. Behavior of Ideal Gases;3.5;3.5. Calculation of percentage dissociation of gas;correct;runtime; -926;Chemical Process Principles: Part - 1: Material And Energy Balances(O. A. Hougen, R. A. Ragatz And K. M. Watson);2436;3. Behavior of Ideal Gases;3.6;3.6. Calculation of Average molecular weight;correct;runtime; -926;Chemical Process Principles: Part - 1: Material And Energy Balances(O. A. Hougen, R. A. Ragatz And K. M. Watson);2436;3. Behavior of Ideal Gases;3.7;3.7. Calculation of density;error;runtime; -926;Chemical Process Principles: Part - 1: Material And Energy Balances(O. A. Hougen, R. A. Ragatz And K. M. Watson);2436;3. Behavior of Ideal Gases;3.8;3.8. Calculation of density of air;correct;runtime; -926;Chemical Process Principles: Part - 1: Material And Energy Balances(O. A. Hougen, R. A. Ragatz And K. M. Watson);2436;3. Behavior of Ideal Gases;3.9;3.9. Calculation of volume change with change in composition;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.1.a;1.1.a. Amplifier Fundamentals;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.1.b;1.1.b. Amplifier Fundamentals;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.10.a;1.10.a. Inverting Configuration Characterstics;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.10.b;1.10.b. Inverting Configuration Characterstics;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.11.a;1.11.a. Finding the Loop Gain;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.11.b;1.11.b. Finding the Loop Gain;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.12.a;1.12.a. Feedback Factor for Negative Feedback;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.12.b;1.12.b. Feedback Factor for Negative Feedback;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.13;1.13. Feedback Factor for Combination of Negative and Positive Feedback;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.14.a;1.14.a. Current Flow and Power Dissipation;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.14.b;1.14.b. Current Flow and Power Dissipation;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.15.a;1.15.a. Designing variable dc source;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.15.b;1.15.b. Designing variable dc source;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.16;1.16. Inverting Amplifier driven into saturation;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.2.a;1.2.a. Gain of a Noninverting OP AMP;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.2.b;1.2.b. Gain of a Noninverting OP AMP;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.2.c;1.2.c. Gain of a Noninverting OP AMP;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.3;1.3. Inverting Amplifier Ideal Closed Loop Characterstics;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.4;1.4. Designing Summing Amplifiers;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.5;1.5. Designing Function Generators;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.6;1.6. Designing Difference Amplifier;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.7.a;1.7.a. Application of Negative Feedback;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.7.b;1.7.b. Application of Negative Feedback;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.7.c;1.7.c. Application of Negative Feedback;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.8.a;1.8.a. Calculating Gain Desensitivity;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.8.b;1.8.b. Calculating Gain Desensitivity;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.9.a;1.9.a. Noninverting Configuration Characterstics;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2400;1. Operational Amplifier Fundamentals;1.9.b;1.9.b. Noninverting Configuration Characterstics;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.1;2.1. Closed Loop Parameters of Basic I V Conveter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.10.a;2.10.a. Designing Triple Op Amp Instrumentation Amplifier;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.10.b;2.10.b. Designing Triple Op Amp Instrumentation Amplifier;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.10.c;2.10.c. Designing Triple Op Amp Instrumentation Amplifier;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.11.a;2.11.a. Study of Resistance Temperarure Detector;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.11.b;2.11.b. Study of Resistance Temperarure Detector;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.11.c;2.11.c. Study of Resistance Temperarure Detector;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.12.a;2.12.a. Designing a Transducer Bridge with Instrumentation Amplifier;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.12.b;2.12.b. Designing a Transducer Bridge with Instrumentation Amplifier;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.13.a;2.13.a. Transducer Bridge Calibration;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.13.b;2.13.b. Transducer Bridge Calibration;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.14;2.14. Designing Strain Gauge Bridge with Instrumentation Amplifier;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.2;2.2. Designing High Sensitivity I V Conveter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.3.a;2.3.a. Characterstics of Floating Load V I Converters;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.3.b;2.3.b. Characterstics of Floating Load V I Converters;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.3.c;2.3.c. Characterstics of Floating Load V I Converters;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.4;2.4. Designing Current Source using Grounded Load Converter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.5.a;2.5.a. Effect of Resistance Mismatches in Grounded Load Converters;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.5.b;2.5.b. Effect of Resistance Mismatches in Grounded Load Converters;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.5.c;2.5.c. Effect of Resistance Mismatches in Grounded Load Converters;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.6;2.6. Howland Circuit Calibration;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.7;2.7. Effect of finite loop gain on Howland Circuit;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.8.a;2.8.a. Output Voltage of a Difference Amplifier;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.8.b;2.8.b. Output Voltage of a Difference Amplifier;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2439;2. Circuits with Resistive Feedback;2.9;2.9. Common Mode Rejection Ratio for op amp;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.1;3.1. Pole Zero Response of Transfer Function;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.10;3.10. Designing a Unity Gain Low Pass Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.11.a;3.11.a. Designing Butterworth Low Pass Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.11.b;3.11.b. Designing Butterworth Low Pass Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.12;3.12. Designing High Pass KRC Filters;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.13.a;3.13.a. Designing KRC Bandpass Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.13.b;3.13.b. Designing KRC Bandpass Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.14;3.14. Designing Band Reject KRC Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.15;3.15. Designing Multiple Feedback Band Pass Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.16;3.16. Designing Multiple Feedback Low Pass Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.17;3.17. Designing Multiple Feedback Notch Filters;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.18;3.18. Designing State Variable Filter for Bandpass Response;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.19;3.19. Designing a Biquad Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.2;3.2. Finding Impulse Response of a given circuit;error;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.20;3.20. Designing Biquad Filter for a low pass notch response;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.21.a;3.21.a. KRC Filter Sensitivities;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.21.b;3.21.b. KRC Filter Sensitivities;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.3;3.3. Steady State Response of a Circuit;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.4.a;3.4.a. Low pass filter with Gain;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.4.b;3.4.b. Low pass filter with Gain;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.5;3.5. Designing Wideband Band Pass Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.6;3.6. Designing Phono Amplifier;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.7;3.7. Designing a bass or treble control;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.8;3.8. Designing Equal Component Second Order Low Pass Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2440;3. Active Filters Part I;3.9;3.9. Designing Second Order Low Pass Filter for 0dB dc gain;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2445;4. Active Filters Part II;4.1;4.1. Butterworth Filter Approximations;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2445;4. Active Filters Part II;4.10;4.10. Direct Designing of Low Pass Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2445;4. Active Filters Part II;4.11;4.11. Direct Designing of High Pass Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2445;4. Active Filters Part II;4.12;4.12. Designing a Switched Capacitor Biquad Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2445;4. Active Filters Part II;4.13;4.13. Direct Synthesis of Switched Capacitor Low Pass Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2445;4. Active Filters Part II;4.14;4.14. Direct Synthesis of Switched Capacitor Band Pass Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2445;4. Active Filters Part II;4.2;4.2. Cascade Designing of Chebyshev Low Pass Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2445;4. Active Filters Part II;4.3;4.3. Cascade Designing of Cauer Low Pass Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2445;4. Active Filters Part II;4.4;4.4. Designing a Chebyshev High Pass Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2445;4. Active Filters Part II;4.5;4.5. Cascade Designing of Butterworth Band Pass Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2445;4. Active Filters Part II;4.6;4.6. Cascade Designing of Elliptic Band Pass Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2445;4. Active Filters Part II;4.7;4.7. Cascade Designing of Chebyshev Band Reject Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2445;4. Active Filters Part II;4.8;4.8. Designing a Dual Amplifier Band Pass Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2445;4. Active Filters Part II;4.9;4.9. Designing a General Impedance Converter Low Pass Filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2541;5. Static Op Amp Limitations;5.1.a;5.1.a. Errors caused by Input Bias and Offset Current;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2541;5. Static Op Amp Limitations;5.1.b;5.1.b. Errors caused by Input Bias and Offset Current;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2541;5. Static Op Amp Limitations;5.1.c;5.1.c. Errors caused by Input Bias and Offset Current;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2541;5. Static Op Amp Limitations;5.1.d;5.1.d. Errors caused by Input Bias and Offset Current;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2541;5. Static Op Amp Limitations;5.10;5.10. Input Offset Error Compensation in Multiple Op Amp Circuits;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2541;5. Static Op Amp Limitations;5.11;5.11. Absolute Maximum Ratings;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2541;5. Static Op Amp Limitations;5.12;5.12. Overload Protection Maximum Ratings;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2541;5. Static Op Amp Limitations;5.2.a;5.2.a. Errors caused by Input Bias and Offset Current II;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2541;5. Static Op Amp Limitations;5.2.b;5.2.b. Errors caused by Input Bias and Offset Current II;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2541;5. Static Op Amp Limitations;5.3;5.3. Input Bias Current Drift;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2541;5. Static Op Amp Limitations;5.4.a;5.4.a. Error in Input Offset due to CMRR;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2541;5. Static Op Amp Limitations;5.4.b;5.4.b. Error in Input Offset due to CMRR;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2541;5. Static Op Amp Limitations;5.5;5.5. Error in Input Offset due to PSRR;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2541;5. Static Op Amp Limitations;5.6;5.6. Change of offset voltage with the Output Swing;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2541;5. Static Op Amp Limitations;5.7;5.7. Input Offset Error Compensation using Internal Offset Nulling;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2541;5. Static Op Amp Limitations;5.8;5.8. Input Offset Error Compensation using External Offset Nulling I;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2541;5. Static Op Amp Limitations;5.9.a;5.9.a. Input Offset Error Compensation using External Offset Nulling II;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2541;5. Static Op Amp Limitations;5.9.b;5.9.b. Input Offset Error Compensation using External Offset Nulling II;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2648;6. Dynamic Op Amp Limitations;6.1.a;6.1.a. Closed Loop Response of Non Inverting Amplifier;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2648;6. Dynamic Op Amp Limitations;6.1.b;6.1.b. Closed Loop Response of Non Inverting Amplifier;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2648;6. Dynamic Op Amp Limitations;6.10.b;6.10.b. Biquad Filter with Phase Compensation;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2648;6. Dynamic Op Amp Limitations;6.11;6.11. Effect of finite GBP on first order filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2648;6. Dynamic Op Amp Limitations;6.12;6.12. Effect of finite GBP on second order filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2648;6. Dynamic Op Amp Limitations;6.14;6.14. Parameters for Current Feedback Amplifier;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2648;6. Dynamic Op Amp Limitations;6.15;6.15. Current Feedback Amplifier Dynamics;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2648;6. Dynamic Op Amp Limitations;6.16;6.16. Compensation of B W Reduction in Current Feedback Amplifier;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2648;6. Dynamic Op Amp Limitations;6.2.a;6.2.a. Gain Bandwidth Tradeoff;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2648;6. Dynamic Op Amp Limitations;6.2.b;6.2.b. Gain Bandwidth Tradeoff;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2648;6. Dynamic Op Amp Limitations;6.2.c;6.2.c. Gain Bandwidth Tradeoff;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2648;6. Dynamic Op Amp Limitations;6.4;6.4. Input Impedance of Series Topology;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2648;6. Dynamic Op Amp Limitations;6.5;6.5. Output Impedance of Shunt Topology;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2648;6. Dynamic Op Amp Limitations;6.6.a;6.6.a. Finding Gain Zi and Zo for High Sensitivty I V Converter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2648;6. Dynamic Op Amp Limitations;6.7.a;6.7.a. Effect of Slew Rate Limiting;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2648;6. Dynamic Op Amp Limitations;6.8.a;6.8.a. Full Power Bandwidth;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2648;6. Dynamic Op Amp Limitations;6.8.b;6.8.b. Full Power Bandwidth;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2648;6. Dynamic Op Amp Limitations;6.8.c;6.8.c. Full Power Bandwidth;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2648;6. Dynamic Op Amp Limitations;6.8.d;6.8.d. Full Power Bandwidth;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2648;6. Dynamic Op Amp Limitations;6.9;6.9. Effect of finite GBP on Integrator Circuits;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2649;7. Noise;7.1.a;7.1.a. Noise Properties;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2649;7. Noise;7.1.b;7.1.b. Noise Properties;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2649;7. Noise;7.1.c;7.1.c. Noise Properties;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2649;7. Noise;7.10;7.10. Calculation of Noise in Current Feedback Amplifier;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2649;7. Noise;7.11;7.11. Noise in Photodiode Amplifiers;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2649;7. Noise;7.12;7.12. Photodiode amplifier with Noise Filtering;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2649;7. Noise;7.13;7.13. Designing T Feedback Photodiode Amplifiers;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2649;7. Noise;7.3;7.3. Graphical Representation of Noise Dynamics;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2649;7. Noise;7.4;7.4. Calculation of Thermal Noise;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2649;7. Noise;7.5.a;7.5.a. Calculation of Shot Noise;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2649;7. Noise;7.5.b;7.5.b. Calculation of Shot Noise;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2649;7. Noise;7.7.a;7.7.a. Total Output Noise in an Op Amp;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2649;7. Noise;7.8;7.8. Improvement in the Circuit to find the Total Output Noise;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2649;7. Noise;7.9;7.9. Calculation of Signal to Noise Ratio;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2650;8. Stability;8.1;8.1. Gain Margin and Phase Margin of an op amp system;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2650;8. Stability;8.10;8.10. Pole Zero Compensation;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2650;8. Stability;8.11;8.11. Frequency Compensation via Loop Gain Reduction;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2650;8. Stability;8.12;8.12. Input Lag Compensation;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2650;8. Stability;8.13;8.13. Feedback Lead Compensation;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2650;8. Stability;8.14;8.14. Configuring a Decompensated op amp as a Unity Gain Voltage Follower;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2650;8. Stability;8.15;8.15. Input Stray Capacitance Compensation in CFA Circuits;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2650;8. Stability;8.16;8.16. Feedback Lead Compensation for Composite Amplifier;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2650;8. Stability;8.17;8.17. Composite Amplifier with Compensation provided by op amp 2;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2650;8. Stability;8.2;8.2. Stability in Differentiator Circuits;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2650;8. Stability;8.3;8.3. Stray Input Capacitance Compensation for inverting configuration;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2650;8. Stability;8.4;8.4. Stray Input Capacitance Compensation for non inverting configuration;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2650;8. Stability;8.5;8.5. Stabalizing a capacitively loaded op amp circuit;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2650;8. Stability;8.6;8.6. Internal Frequency Compensation;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2650;8. Stability;8.7;8.7. Dominant Pole Compensation;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2650;8. Stability;8.8;8.8. Shunt Capacitance Compensation;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2650;8. Stability;8.9;8.9. Miller Compensation;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2651;9. Non Linear Circuits;9.1;9.1. Comparator as a Level Detector I;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2651;9. Non Linear Circuits;9.2;9.2. Comparator as a Level Detector II;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2651;9. Non Linear Circuits;9.3;9.3. Designing On Off Temperature Controller;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2651;9. Non Linear Circuits;9.4;9.4. Comparator as a Window Detector;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2651;9. Non Linear Circuits;9.5;9.5. Designing Single Supply Inverting Schmitt trigger;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2651;9. Non Linear Circuits;9.6;9.6. Hysteresis in On Off Controllers;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2652;10. Signal Generators;10.1;10.1. Designing a Square Wave Generator using Multivibrator;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2652;10. Signal Generators;10.3;10.3. The 555 timer as an astable multivibrator;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2652;10. Signal Generators;10.4;10.4. Voltage Control for 555 timer;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2652;10. Signal Generators;10.5;10.5. Designing Basic Triangular or Square Wave Generator;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2652;10. Signal Generators;10.6;10.6. Basic ICL8038 connection for 50 percent duty cycle operation;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2652;10. Signal Generators;10.7;10.7. AD537 application as a temperature to frequency converter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2652;10. Signal Generators;10.8;10.8. Designing a Voltage to Frequency Converter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.1;11.1. Line and Load Regulation;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.10;11.10. Overload Protections for Linear Regulators;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.11;11.11. Positive Regulator with overload SOA and thermal protection;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.12;11.12. Configuring a regulator as a power voltage source;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.13;11.13. Configuring a regulator as an adjustable Power Current Source;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.14;11.14. Thermal Considerations for Linear Regulator;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.15;11.15. Selection of Heat Sink on the basis of Thermal Resistance;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.16;11.16. Overvoltage Protection and Under Voltage Sensing;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.17;11.17. Duty Cycle of a Buck Regulator;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.18;11.18. Coil Selection for a Boost Regulator;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.19;11.19. Capacitor Selection for a Boost Regulator;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.2;11.2. Thermal Coeffecient;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.20;11.20. Efficiency of Buck regulator;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.21;11.21. Designing Error Amplifier for Buck Regulator;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.3;11.3. Application of Line and Load Regulation;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.4;11.4. Line and Load Regulation of an op amp;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.5;11.5. Bandgap Voltage Reference;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.6;11.6. Turning a Voltage Reference into a current source;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.7;11.7. Current Sources with Current Boosting Transistors;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.8;11.8. Thermal cold junction compensation using AD590;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2653;11. Voltage Referencres and Regulators;11.9;11.9. Basic Series Regulator;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2656;12. D to A and A to D Converters;12.1;12.1. Specifications of DAC;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2656;12. D to A and A to D Converters;12.2;12.2. Specifications of ADC;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2656;12. D to A and A to D Converters;12.3;12.3. DAC using a current mode R 2R ladder;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2656;12. D to A and A to D Converters;12.4;12.4. Designing Digitally Programmable filter;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2656;12. D to A and A to D Converters;12.5;12.5. Designing Digitally programmable triangular or square wave oscillator;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2656;12. D to A and A to D Converters;12.6;12.6. Concept of Oversampling;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2656;12. D to A and A to D Converters;12.7;12.7. Noise Shaping and Integrate Difference Converters;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2657;13. Non Linear Amplifiers and Phase Locked Loops;13.1;13.1. Stabilty Considerations for Log and Antilog Amplifiers;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2657;13. Non Linear Amplifiers and Phase Locked Loops;13.2;13.2. Operational Transconducatance Amplifiers;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2657;13. Non Linear Amplifiers and Phase Locked Loops;13.3;13.3. Response of a first order Phase Locked Loop;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2657;13. Non Linear Amplifiers and Phase Locked Loops;13.4;13.4. Response of a second order Phase Locked Loop;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2657;13. Non Linear Amplifiers and Phase Locked Loops;13.5;13.5. Damping Characterstics of Phase Locked Loop;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2657;13. Non Linear Amplifiers and Phase Locked Loops;13.6;13.6. Filter Design Criteria;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2657;13. Non Linear Amplifiers and Phase Locked Loops;13.7;13.7. Designing with PLLs;correct;runtime; -929;Design With Operational Amplifiers And Analog Integrated Circuits(S. Franco);2657;13. Non Linear Amplifiers and Phase Locked Loops;13.8;13.8. Designing Frequency Synthesizer using PLL;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2491;2. Important Termonologies in Thermodynamics;2.1;2.1. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2491;2. Important Termonologies in Thermodynamics;2.2;2.2. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.1;3.1. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.10;3.10. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.11;3.11. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.12;3.12. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.13;3.13. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.14;3.14. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.15;3.15. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.16;3.16. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.17;3.17. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.18;3.18. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.19;3.19. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.2;3.2. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.20;3.20. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.21;3.21. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.3;3.3. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.4;3.4. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.5;3.5. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.6;3.6. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.7;3.7. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.8;3.8. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2492;3. The First Law of Thermodynamics;3.9;3.9. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2493;4. Defining Thermodynamic State The State Postulate;4.1;4.1. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2493;4. Defining Thermodynamic State The State Postulate;4.2;4.2. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2493;4. Defining Thermodynamic State The State Postulate;4.3;4.3. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.1;5.1. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.10;5.10. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.11;5.11. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.12;5.12. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.13;5.13. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.14;5.14. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.15;5.15. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.16;5.16. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.17;5.17. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.19;5.19. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.2;5.2. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.20;5.20. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.21;5.21. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.22;5.22. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.23;5.23. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.26;5.26. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.27;5.27. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.28;5.28. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.29;5.29. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.3;5.3. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.30;5.30. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.31;5.31. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.32;5.32. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.33;5.33. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.34;5.34. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.35;5.35. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.36;5.36. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.38;5.38. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.39;5.39. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.40;5.40. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.41;5.41. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.42;5.42. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.43;5.43. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.44;5.44. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.5;5.5. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.6;5.6. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.7;5.7. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.8;5.8. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2495;5. The Second Law of Thermodynamics;5.9;5.9. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2496;6. The Question of Ideality;6.10;6.10. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2496;6. The Question of Ideality;6.11;6.11. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2496;6. The Question of Ideality;6.12;6.12. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2496;6. The Question of Ideality;6.14;6.14. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2496;6. The Question of Ideality;6.15;6.15. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2496;6. The Question of Ideality;6.16;6.16. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2496;6. The Question of Ideality;6.17;6.17. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2496;6. The Question of Ideality;6.18;6.18. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2496;6. The Question of Ideality;6.19;6.19. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2496;6. The Question of Ideality;6.2;6.2. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2496;6. The Question of Ideality;6.20;6.20. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2496;6. The Question of Ideality;6.21;6.21. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2496;6. The Question of Ideality;6.22;6.22. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2496;6. The Question of Ideality;6.23;6.23. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2496;6. The Question of Ideality;6.5;6.5. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2498;7. Statistical Thermodynamics;7.1;7.1. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2498;7. Statistical Thermodynamics;7.12;7.12. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2498;7. Statistical Thermodynamics;7.14;7.14. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2498;7. Statistical Thermodynamics;7.15;7.15. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2498;7. Statistical Thermodynamics;7.16;7.16. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2498;7. Statistical Thermodynamics;7.17;7.17. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2498;7. Statistical Thermodynamics;7.2;7.2. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2498;7. Statistical Thermodynamics;7.3;7.3. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2498;7. Statistical Thermodynamics;7.4;7.4. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2498;7. Statistical Thermodynamics;7.5;7.5. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2498;7. Statistical Thermodynamics;7.6;7.6. numerical;correct;runtime; -944;Thermodynamics: A Core Course(R. C. Srivastava, S. K. Saha And A. K. Jain);2498;7. Statistical Thermodynamics;7.9;7.9. numerical;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2446;1. Mathematical Modelling and Engineering Problem Solving;1.1;1.1. Analytical Solution to Falling Parachutist Problem;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2446;1. Mathematical Modelling and Engineering Problem Solving;1.2;1.2. Numerical Solution to Falling Parachutist Problem;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2447;2. Programming and Software;2.1;2.1. roots of quadratic;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2448;3. Approximations and Round off Errors;3.1;3.1. Calculations of Errors;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2448;3. Approximations and Round off Errors;3.2;3.2. Iterative error estimation;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2448;3. Approximations and Round off Errors;3.3;3.3. Range of Integers;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2448;3. Approximations and Round off Errors;3.4;3.4. Floating Point Numbers;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2448;3. Approximations and Round off Errors;3.5;3.5. Machine Epsilon;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2448;3. Approximations and Round off Errors;3.6;3.6. Interdependent Computations;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2448;3. Approximations and Round off Errors;3.7;3.7. Subtractive Cancellation;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2448;3. Approximations and Round off Errors;3.8;3.8. Infinite Series Evaluation;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2449;4. Truncation Errors and the Taylor Series;4.1;4.1. Polynomial Taylor Series;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2449;4. Truncation Errors and the Taylor Series;4.2;4.2. Taylor Series Expansion;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2449;4. Truncation Errors and the Taylor Series;4.3;4.3. Effect of Nonlinearity and Stepsize on Taylor expansion;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2449;4. Truncation Errors and the Taylor Series;4.4;4.4. Finite divided difference approximation of derivatives;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2449;4. Truncation Errors and the Taylor Series;4.5;4.5. Error propagation in function of single variable;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2449;4. Truncation Errors and the Taylor Series;4.6;4.6. Error propagation in multivariable function;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2449;4. Truncation Errors and the Taylor Series;4.7;4.7. Condition Number;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2587;5. Bracketing Methods;5.1;5.1. Graphical Approach;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2587;5. Bracketing Methods;5.2;5.2. Computer Graphics to Locate Roots;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2587;5. Bracketing Methods;5.3;5.3. Bisection;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2587;5. Bracketing Methods;5.4;5.4. Error Estimates for Bisection;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2587;5. Bracketing Methods;5.5;5.5. False Position;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2587;5. Bracketing Methods;5.6;5.6. Bracketing and False Position Methods;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2555;6. Open Methods;6.1;6.1. simple fixed point iteration;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2555;6. Open Methods;6.10;6.10. fixed point iteration for nonlinear system;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2555;6. Open Methods;6.11;6.11. Newton Raphson for a nonlinear Problem;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2555;6. Open Methods;6.2;6.2. The Two curve graphical method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2555;6. Open Methods;6.3;6.3. Newton Raphson Method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2555;6. Open Methods;6.4;6.4. Error analysis of Newton Raphson method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2555;6. Open Methods;6.5;6.5. slowly converging function with Newton Raphson method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2555;6. Open Methods;6.6;6.6. The secant method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2555;6. Open Methods;6.7;6.7. secant and false position techniques;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2555;6. Open Methods;6.8;6.8. Modified secant method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2555;6. Open Methods;6.9;6.9. modified newton raphson method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2556;7. Roots of Polynomials;7.1;7.1. Polynomial Deflation;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2556;7. Roots of Polynomials;7.2;7.2. Mullers Method;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2556;7. Roots of Polynomials;7.3;7.3. Bairstows Method;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2556;7. Roots of Polynomials;7.4;7.4. Locate single root;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2556;7. Roots of Polynomials;7.5;7.5. Solving nonlinear system;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2556;7. Roots of Polynomials;7.6;7.6. Root Location;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2556;7. Roots of Polynomials;7.7;7.7. Roots of Polynomials;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2556;7. Roots of Polynomials;7.8;7.8. Root Location;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2557;9. Gauss Elimination;9.1;9.1. Graphical Method for two Equations;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2557;9. Gauss Elimination;9.10;9.10. Effect of scaling on Pivoting and round off;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2557;9. Gauss Elimination;9.11;9.11. Solution of Linear Algebraic Equations;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2557;9. Gauss Elimination;9.12;9.12. Gauss Jordan method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2557;9. Gauss Elimination;9.2;9.2. Deterinants;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2557;9. Gauss Elimination;9.3;9.3. Cramers Rule;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2557;9. Gauss Elimination;9.4;9.4. Elimination of Unknowns;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2557;9. Gauss Elimination;9.5;9.5. Naive Gauss Elimination;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2557;9. Gauss Elimination;9.6;9.6. ill conditioned systems;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2557;9. Gauss Elimination;9.7;9.7. Effect of Scale on Determinant;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2557;9. Gauss Elimination;9.8;9.8. Scaling;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2557;9. Gauss Elimination;9.9;9.9. Partial Pivoting;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2558;10. LU Decomposition and matrix inverse;10.1;10.1. LU decomposition with gauss elimination;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2558;10. LU Decomposition and matrix inverse;10.2;10.2. The substitution steps;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2558;10. LU Decomposition and matrix inverse;10.3;10.3. Matrix inversion;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2558;10. LU Decomposition and matrix inverse;10.4;10.4. Matrix condition evaluation;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2566;11. Special Matrices and gauss seidel;11.1;11.1. Tridiagonal solution with Thomas algorithm;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2566;11. Special Matrices and gauss seidel;11.2;11.2. Cholesky Decomposition;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2566;11. Special Matrices and gauss seidel;11.3;11.3. Gauss Seidel method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2566;11. Special Matrices and gauss seidel;11.4;11.4. Linear systems;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2566;11. Special Matrices and gauss seidel;11.5;11.5. Manipulate linear algebraic equations;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2566;11. Special Matrices and gauss seidel;11.6;11.6. Analyze and solve Hilbert matrix;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2567;13. One dimensional unconstrained optimization;13.1;13.1. Golden section method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2567;13. One dimensional unconstrained optimization;13.2;13.2. Quadratic interpolation;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2567;13. One dimensional unconstrained optimization;13.3;13.3. Newtons method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2559;14. Multidimensional Unconstrainted Optimization;14.1;14.1. Random Search Method;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2559;14. Multidimensional Unconstrainted Optimization;14.2;14.2. Path of Steepest Descent;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2559;14. Multidimensional Unconstrainted Optimization;14.3;14.3. 1 D function along Gradient;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2559;14. Multidimensional Unconstrainted Optimization;14.4;14.4. Optimal Steepest Descent;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2560;15. Constrained Optimization;15.1;15.1. Setting up LP problem;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2560;15. Constrained Optimization;15.2;15.2. Graphical Solution;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2560;15. Constrained Optimization;15.3;15.3. Linear Programming Problem;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2560;15. Constrained Optimization;15.4;15.4. Nonlinear constrained optimization;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2560;15. Constrained Optimization;15.5;15.5. One dimensional Optimization;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2560;15. Constrained Optimization;15.6;15.6. Multidimensional Optimization;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2560;15. Constrained Optimization;15.7;15.7. Locate Single Optimum;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2568;17. Least squares regression;17.1;17.1. Linear regression;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2568;17. Least squares regression;17.2;17.2. Estimation of errors for the linear least square fit;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2568;17. Least squares regression;17.3.a;17.3.a. linear regression using computer;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2568;17. Least squares regression;17.3.b;17.3.b. linear regression using computer;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2568;17. Least squares regression;17.4;17.4. Linearization of a power function;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2568;17. Least squares regression;17.5;17.5. polynomial regression;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2568;17. Least squares regression;17.6;17.6. Multiple linear regression;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2568;17. Least squares regression;17.7;17.7. Confidence interval for linear regression;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2568;17. Least squares regression;17.8;17.8. Gauss Newton method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2569;18. Interpolation;18.1;18.1. Linear interpolation;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2569;18. Interpolation;18.10;18.10. Cubic splines;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2569;18. Interpolation;18.2;18.2. Quadratic interpolation;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2569;18. Interpolation;18.3;18.3. Newtons divided difference Interpolating polynomials;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2569;18. Interpolation;18.4;18.4. Error estimation for Newtons polynomial;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2569;18. Interpolation;18.5;18.5. Error Estimates for Order of Interpolation;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2569;18. Interpolation;18.6;18.6. Lagrange interpolating polynomials;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2569;18. Interpolation;18.7;18.7. Lagrange interpolation using computer;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2569;18. Interpolation;18.8;18.8. First order splines;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2569;18. Interpolation;18.9;18.9. Quadratic splines;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2565;19. Fourier Approximation;19.1;19.1. Least Square Fit;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2565;19. Fourier Approximation;19.2;19.2. Continuous Fourier Series Approximation;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2565;19. Fourier Approximation;19.3;19.3. Trendline;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2565;19. Fourier Approximation;19.4;19.4. Data Analysis;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2565;19. Fourier Approximation;19.5;19.5. Curve Fitting;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2565;19. Fourier Approximation;19.6;19.6. Polynomial Regression;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2579;21. Newton Cotes Integration Formulas;21.1;21.1. Single trapezoidal rule;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2579;21. Newton Cotes Integration Formulas;21.2;21.2. Multiple trapezoidal rule;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2579;21. Newton Cotes Integration Formulas;21.3;21.3. Evaluating Integrals;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2579;21. Newton Cotes Integration Formulas;21.4;21.4. Single Simpsons 1 by 3 rule;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2579;21. Newton Cotes Integration Formulas;21.5;21.5. Multiple Simpsons 1 by 3 rule;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2579;21. Newton Cotes Integration Formulas;21.6;21.6. Simpsons 3 by 8 rule;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2579;21. Newton Cotes Integration Formulas;21.7;21.7. Unequal Trapezoidal segments;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2579;21. Newton Cotes Integration Formulas;21.8;21.8. Simpsons Uneven data;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2579;21. Newton Cotes Integration Formulas;21.9;21.9. Average Temperature Determination;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2570;22. Integration of equations;22.1;22.1. Error corrections of the trapezoidal rule;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2570;22. Integration of equations;22.2;22.2. Higher order error correction of integral estimates;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2570;22. Integration of equations;22.3;22.3. Two point gauss legendre formulae;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2570;22. Integration of equations;22.4;22.4. Three point gauss legendre method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2570;22. Integration of equations;22.5;22.5. Applying Gauss Quadrature to the falling Parachutist problem;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2570;22. Integration of equations;22.6;22.6. Evaluation of improper integral;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2571;23. Numerical differentiation;23.1;23.1. High accuracy numerical differentiation formulas;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2571;23. Numerical differentiation;23.2;23.2. Richardson extrapolation;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2571;23. Numerical differentiation;23.3;23.3. Differentiating unequally spaced data;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2571;23. Numerical differentiation;23.4;23.4. Integration and Differentiation;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2571;23. Numerical differentiation;23.5;23.5. Integrate a function;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2572;25. Runga Kutta methods;25.1;25.1. Eulers method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2572;25. Runga Kutta methods;25.10;25.10. Solving systems of ODE using RK 4 method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2572;25. Runga Kutta methods;25.11;25.11. Solving systems of ODEs;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2572;25. Runga Kutta methods;25.12;25.12. Adaptive fourth order RK method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2572;25. Runga Kutta methods;25.13;25.13. Runga kutta fehlberg method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2572;25. Runga Kutta methods;25.14;25.14. Adaptive Fourth order RK scheme;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2572;25. Runga Kutta methods;25.2;25.2. Taylor series estimate for error by eulers method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2572;25. Runga Kutta methods;25.3;25.3. Effect of reduced step size on Eulers method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2572;25. Runga Kutta methods;25.4;25.4. Solving ODEs;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2572;25. Runga Kutta methods;25.5;25.5. Heuns method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2572;25. Runga Kutta methods;25.6;25.6. Comparison of various second order RK 4 method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2572;25. Runga Kutta methods;25.7;25.7. Classical fourth order RK method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2572;25. Runga Kutta methods;25.8;25.8. Comparison of Runga Kutta methods;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2572;25. Runga Kutta methods;25.9;25.9. Solving systems of ODE using Eulers method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2573;26. Stiffness and multistep methods;26.1;26.1. Explicit and Implicit Euler;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2573;26. Stiffness and multistep methods;26.2;26.2. Non self starting Heun method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2573;26. Stiffness and multistep methods;26.3;26.3. Estimate of per step truncation error;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2573;26. Stiffness and multistep methods;26.4;26.4. Effect of modifier on Predictor Corrector results;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2573;26. Stiffness and multistep methods;26.5;26.5. Milnes Method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2573;26. Stiffness and multistep methods;26.6;26.6. Fourth order Adams method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2573;26. Stiffness and multistep methods;26.7;26.7. stability of Milnes and Fourth order Adams method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2576;27. Boundary Value and Eigen Value problems;27.1;27.1. The shooting method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2576;27. Boundary Value and Eigen Value problems;27.10.a;27.10.a. Stiff ODEs;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2576;27. Boundary Value and Eigen Value problems;27.10.b;27.10.b. Stiff ODEs;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2576;27. Boundary Value and Eigen Value problems;27.11;27.11. Solving ODEs;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2576;27. Boundary Value and Eigen Value problems;27.2;27.2. The shooting method for non linear problems;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2576;27. Boundary Value and Eigen Value problems;27.3;27.3. Finite Difference Approximation;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2576;27. Boundary Value and Eigen Value problems;27.4;27.4. Mass Spring System;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2576;27. Boundary Value and Eigen Value problems;27.5;27.5. Axially Loaded column;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2576;27. Boundary Value and Eigen Value problems;27.6;27.6. Polynomial Method;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2576;27. Boundary Value and Eigen Value problems;27.7;27.7. Power Method Highest Eigenvalue;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2576;27. Boundary Value and Eigen Value problems;27.8;27.8. Power Method Lowest Eigenvalue;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2576;27. Boundary Value and Eigen Value problems;27.9;27.9. Eigenvalues and ODEs;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2574;29. Finite Difference Elliptic Equations;29.1;29.1. Temperature of a heated plate with fixed boundary conditions;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2574;29. Finite Difference Elliptic Equations;29.2;29.2. Flux distribution for a heated plate;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2574;29. Finite Difference Elliptic Equations;29.3;29.3. Heated plate with a insulated edge;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2574;29. Finite Difference Elliptic Equations;29.4;29.4. Heated plate with an irregular boundary;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2575;30. Finite Difference Parabolic Equations;30.1;30.1. Explicit solution of a one dimensional heat conduction equation;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2575;30. Finite Difference Parabolic Equations;30.2;30.2. Simple implicit solution of a heat conduction equation;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2575;30. Finite Difference Parabolic Equations;30.3;30.3. Crank Nicolson solution to the heat conduction equation;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2575;30. Finite Difference Parabolic Equations;30.4;30.4. Comparison of Analytical and Numerical solution;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2575;30. Finite Difference Parabolic Equations;30.5;30.5. ADI Method;error;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2580;31. Finite Element Method;31.1;31.1. Analytical Solution for Heated Rod;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2580;31. Finite Element Method;31.2;31.2. Element Equation for Heated Rod;correct;runtime; -964;Numerical Methods For Engineers(S. C. Chapra And R. P. Canale);2580;31. Finite Element Method;31.3;31.3. Temperature of a heated plate;error;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.10;2.10. heat loss rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.11;2.11. steady state conduction;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.12;2.12. 1D heat flow;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.13;2.13. pipe location distance;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.14;2.14. steady state flux;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.15;2.15. Temperature at interface;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.16;2.16. heat flow rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.17;2.17. heat flux calculation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.18;2.18. composite wall system;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.19;2.19. heat loss rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.2;2.2. Heat transfer rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.20;2.20. heat transfer coefficient;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.21;2.21. Thickness of insulation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.22;2.22. Upper surface temperature;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.23;2.23. Heat transfer rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.24;2.24. Rate of heat removal;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.25;2.25. heat flux calculation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.26;2.26. heat removal by refrigeration;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.27;2.27. thickness of layer;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.28;2.28. heat transfer flux;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.29;2.29. interface temperature;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.3;2.3. Net heat flux;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.30;2.30. unknown thermal conductivity;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.31;2.31. maximum system temperature;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.32;2.32. thickness of layer;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.33;2.33. Temperature profile in furnace;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.34;2.34. Heat transfer rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.35;2.35. heat loss per unit length;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.36;2.36. interface temperature calculation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.37;2.37. Thermal conductivity of gas;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.38;2.38. minimum thickness of insulation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.39;2.39. heat loss in pipe;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.4;2.4. thickness of brick;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.40;2.40. Heat loss per hour;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.41;2.41. Heat loss per hour;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.42;2.42. minimum thickness;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.43;2.43. Heat loss per meter;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.44;2.44. Heat flow per meter;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.45;2.45. Heat storage rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.46;2.46. Heat flow per length;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.47;2.47. outside and inside insulation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.48;2.48. rate of heat loss;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.49;2.49. rate of heat loss;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.5;2.5. rate of heat loss;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.50;2.50. Heat transfer rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.51;2.51. Thickness of insulation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.52;2.52. to find temperature;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.53;2.53. to find temperature;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.54;2.54. Thickness of insulation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.55;2.55. Area of superheater;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.56;2.56. Heat loss rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.57;2.57. Maximum temperature calculation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.58;2.58. heat flow rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.59;2.59. midpoint temperature calculation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.6;2.6. Thickness of insulation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.61;2.61. heat leakage rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.62;2.62. rate of boiling;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.63;2.63. Heat transfer rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.64;2.64. Heat transfer rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.65;2.65. Expression for rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.66;2.66. Heat transfer rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.67;2.67. minimum nusselt number;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.69;2.69. Thermal conductivity of insulation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.7;2.7. Thickness of insulation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.70;2.70. radius of insulation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.71;2.71. critical radius of insulation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.72;2.72. heat flow through wire;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.73;2.73. increase in heat dissipation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.74;2.74. critical radius of insulation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.75;2.75. Thickness of insulation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.76;2.76. Temperature at interfaces;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.77;2.77. microwave heating capacity;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.78;2.78. heat transfer coefficient;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.79;2.79. heat flow rate;error;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.8;2.8. Temperature between layers;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.80;2.80. Maximum temperature calculation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2803;2. Conduction Steady state one dimension;2.9;2.9. Heat transfer rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2810;3. conduction steady state two and three dimension;3.1;3.1. steady state temperature distribution;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2810;3. conduction steady state two and three dimension;3.3;3.3. heat loss calculation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2810;3. conduction steady state two and three dimension;3.4;3.4. sphere surface temperature;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2810;3. conduction steady state two and three dimension;3.5;3.5. heat loss perlength;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2810;3. conduction steady state two and three dimension;3.6;3.6. Heat transfer rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2810;3. conduction steady state two and three dimension;3.7;3.7. heat loss calculation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2810;3. conduction steady state two and three dimension;3.8;3.8. heat loss rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.1;4.1. Required time calculation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.10;4.10. temperature and time;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.11;4.11. ingot time required;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.12;4.12. spherical thermocouple junction;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.13;4.13. spherical thermocouple junction;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.14;4.14. cylindrical thermometer;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.15;4.15. copper constantan thermometer;error;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.16;4.16. temperature variation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.17;4.17. time and temperature;error;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.18;4.18. time and temperature;error;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.19;4.19. temperature at centre;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.2;4.2. Required time calculation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.20;4.20. time required;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.21;4.21. to find depth;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.22;4.22. time and temperature;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.23;4.23. temperature and heat rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.24;4.24. time required;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.25;4.25. maximum temperature rise;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.26;4.26. time and temperature;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.27;4.27. the time log;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.28;4.28. depth and temperature;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.29;4.29. heat rate and energy;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.3;4.3. Required temperature calculation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.30;4.30. temperature and rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.31;4.31. time for cooling;error;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.32;4.32. constant surface temperature;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.4;4.4. heat transfer coefficient;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.5;4.5. heat transfer coefficient;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.6;4.6. initial cooling rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.7;4.7. ingot velocity;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.8;4.8. sphere exposed to airflow;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2811;4. condction unsteady state transient;4.9;4.9. time for cooling;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2813;6. dimensional analysis;6.6;6.6. heat transfer coefficient;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.1;7.1. displacement thickness;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.10;7.10. laminar flow over plate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.11;7.11. local heat transfer coefficient;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.12;7.12. laminar air flow;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.13;7.13. Boundary layer thickness;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.14;7.14. Boundary layer thickness;error;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.15;7.15. Boundary layer thickness;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.16;7.16. rate of cooling;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.17;7.17. to find velocity;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.18;7.18. heat transfer coefficient;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.19;7.19. skin friction coefficient;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.2;7.2. displacement thickness;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.20;7.20. heat loss calculation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.21;7.21. Heat transfer rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.22;7.22. Boundary layer thickness;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.23;7.23. Boundary layer thickness;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.24;7.24. Boundary layer thickness;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.25;7.25. average velocity;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.26;7.26. required tube legth;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.27;7.27. required tube length;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.28;7.28. drag force value;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.29;7.29. total power required;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.3;7.3. velocity distribution;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.30;7.30. turbulent boundary layer;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.31;7.31. surface drag of train;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.32;7.32. total drag force;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.33;7.33. percent error calculation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.34;7.34. local heat transfer coefficient;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.35;7.35. heat loss from crank;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.36;7.36. heat transfer from plate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.37;7.37. heat loss from gases;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.38;7.38. heat transfer from plate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.39;7.39. velocity of air;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.4;7.4. Boundary layer thickness;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.40;7.40. heat loss from wing;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.41;7.41. heat transfer coefficient;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.42;7.42. heat transfer from plate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.43;7.43. average heat transfer coefficient;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.44;7.44. heat transfer coefficient;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.45;7.45. required tube length;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.46;7.46. Heat transfer rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.47;7.47. Heat transfer rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.48;7.48. Heat transfer rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.49;7.49. Bulk temperature increase;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.5;7.5. Boundary layer thickness;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.50;7.50. heat transferred per meter;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.51;7.51. average heat transfer coefficient;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.52;7.52. Required tube length;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.53;7.53. temperature of mixed sand;error;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.54;7.54. heat loss from duct;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.55;7.55. number of tubes;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.56;7.56. Required tube length;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.57;7.57. heat transfer coefficient;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.58;7.58. Required tube length;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.6;7.6. Boundary layer thickness;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.60;7.60. average heat transfer coefficient;error;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.62;7.62. heat lost by man;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.63;7.63. heat transfer coefficient;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.64;7.64. Heat transfer rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.65;7.65. compare HT coefficients;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.66;7.66. heat loss from surface;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.67;7.67. temperature of cheese;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.68;7.68. heat transfer coefficient;error;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.7;7.7. Boundary layer thickness;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.8;7.8. laminar flow over plate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2814;7. Forced convection;7.9;7.9. laminar flow over plate;error;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2932;9. Boiling and condensation;9.1;9.1. The heat flux;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2932;9. Boiling and condensation;9.10;9.10. thickness of film;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2932;9. Boiling and condensation;9.11;9.11. Heat transfer rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2932;9. Boiling and condensation;9.12;9.12. film thickness at bottom;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2932;9. Boiling and condensation;9.13;9.13. film thickness at bottom;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2932;9. Boiling and condensation;9.14;9.14. Heat transfer rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2932;9. Boiling and condensation;9.15;9.15. rate of condensate formation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2932;9. Boiling and condensation;9.16;9.16. heat transfer coefficient;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2932;9. Boiling and condensation;9.17;9.17. square plate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2932;9. Boiling and condensation;9.18;9.18. Heat transfer rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2932;9. Boiling and condensation;9.19;9.19. heat transfer coefficient;error;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2932;9. Boiling and condensation;9.2;9.2. the heat flux;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2932;9. Boiling and condensation;9.20;9.20. cylindrical drum;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2932;9. Boiling and condensation;9.3;9.3. voltage at burnout point;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2932;9. Boiling and condensation;9.4;9.4. temperature at botton;error;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2932;9. Boiling and condensation;9.5;9.5. power of burner;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2932;9. Boiling and condensation;9.6;9.6. power dissipation per length;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2932;9. Boiling and condensation;9.7;9.7. condensation processes;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2932;9. Boiling and condensation;9.8;9.8. local HT coefficient;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2932;9. Boiling and condensation;9.9;9.9. average heat transfer coefficient;error;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2930;11. heat exchangers;11.1;11.1. rate of energy emmission;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2930;11. heat exchangers;11.2;11.2. surface temperature of sun;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2930;11. heat exchangers;11.3;11.3. monochromatic emmissive power;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2930;11. heat exchangers;11.4;11.4. energy emitted by sun;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2812;13. mass transfer;13.1;13.1. fraction and pressure;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2812;13. mass transfer;13.10;13.10. mass transfer coefficient;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2812;13. mass transfer;13.11;13.11. evaporation rate calculation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2812;13. mass transfer;13.12;13.12. molar diffusion flux;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2812;13. mass transfer;13.13;13.13. diffusion flux rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2812;13. mass transfer;13.14;13.14. diffusivity of air;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2812;13. mass transfer;13.15;13.15. rate of diffusion;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2812;13. mass transfer;13.16;13.16. nitrogen diffusion rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2812;13. mass transfer;13.17;13.17. time for evaporation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2812;13. mass transfer;13.2;13.2. composition determination;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2812;13. mass transfer;13.3;13.3. diffusion coefficient determination;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2812;13. mass transfer;13.4;13.4. diffusion coefficient determination;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2812;13. mass transfer;13.5;13.5. molar diffusion flux;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2812;13. mass transfer;13.6;13.6. molar concentration and flux;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2812;13. mass transfer;13.7;13.7. mass transfer rate;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2812;13. mass transfer;13.8;13.8. time required for evaporation;correct;runtime; -965;Heat And Mass Transfer(R. K. Rajput);2812;13. mass transfer;13.9;13.9. time required for evaporation;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2452;1. Basic Concepts;1.1;1.1. unknown resistance;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2452;1. Basic Concepts;1.2;1.2. unknown resistance;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2452;1. Basic Concepts;1.3;1.3. find ammeter reading;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2452;1. Basic Concepts;1.4;1.4. unknown resistance;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2452;1. Basic Concepts;1.5;1.5. find input vlotage;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2452;1. Basic Concepts;1.6;1.6. find shunt resistance;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2452;1. Basic Concepts;1.7;1.7. find series resistor;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2452;1. Basic Concepts;1.8;1.8. sensitivity;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2452;1. Basic Concepts;1.9;1.9. error in measurment;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2453;2. Measurement Of Electrical Quantities;2.1;2.1. output voltage;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2453;2. Measurement Of Electrical Quantities;2.10;2.10. find crest factor;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2453;2. Measurement Of Electrical Quantities;2.11;2.11. find unknown resisance;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2453;2. Measurement Of Electrical Quantities;2.2;2.2. find Ad CMRR and Acm;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2453;2. Measurement Of Electrical Quantities;2.3;2.3. find full scale output and input min;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2453;2. Measurement Of Electrical Quantities;2.4;2.4. output voltage;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2453;2. Measurement Of Electrical Quantities;2.5;2.5. find unknown resistance;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2453;2. Measurement Of Electrical Quantities;2.6;2.6. find CMRR;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2453;2. Measurement Of Electrical Quantities;2.7;2.7. tolerance in parameters;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2453;2. Measurement Of Electrical Quantities;2.8;2.8. output voltage;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2453;2. Measurement Of Electrical Quantities;2.9;2.9. difference in output voltage;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2489;3. Digital Elements and Features;3.1;3.1. equivalence comparator;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2489;3. Digital Elements and Features;3.2;3.2. antivalence comparator;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2489;3. Digital Elements and Features;3.3;3.3. simplify Boolean function;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2489;3. Digital Elements and Features;3.4;3.4. simplify Boolean function;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2489;3. Digital Elements and Features;3.5;3.5. obtain truth table;error;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2489;3. Digital Elements and Features;3.6;3.6. scheme of gates;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2494;4. Combinational And Sequential Logic Circuits;4.1;4.1. find output and carry;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2494;4. Combinational And Sequential Logic Circuits;4.10;4.10. 3 bit binary counter;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2494;4. Combinational And Sequential Logic Circuits;4.11;4.11. 6 modulo counter;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2494;4. Combinational And Sequential Logic Circuits;4.12;4.12. 3 bit 5 modulo counter;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2494;4. Combinational And Sequential Logic Circuits;4.2;4.2. find difference and borrow;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2494;4. Combinational And Sequential Logic Circuits;4.3;4.3. find final output;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2494;4. Combinational And Sequential Logic Circuits;4.4.a;4.4.a. decoder output;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2494;4. Combinational And Sequential Logic Circuits;4.4.b;4.4.b. decoder output;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2494;4. Combinational And Sequential Logic Circuits;4.5;4.5. convert 8421 to2421 code;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2494;4. Combinational And Sequential Logic Circuits;4.6;4.6. Xcess 3 code;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2494;4. Combinational And Sequential Logic Circuits;4.7;4.7. 8 to 1 MUX;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2494;4. Combinational And Sequential Logic Circuits;4.8;4.8. truth table of RS flip flop;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2494;4. Combinational And Sequential Logic Circuits;4.9;4.9. JK flip flop;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2457;5. ADC and DAC;5.1;5.1. output voltage;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2457;5. ADC and DAC;5.10;5.10. signal to noise ratio;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2457;5. ADC and DAC;5.2;5.2. voltage division ratio and feedback resistor;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2457;5. ADC and DAC;5.3;5.3. output voltage;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2457;5. ADC and DAC;5.4;5.4. find count;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2457;5. ADC and DAC;5.5;5.5. find integrator output voltage;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2457;5. ADC and DAC;5.6;5.6. find rise in output voltage and charging time;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2457;5. ADC and DAC;5.7;5.7. find count of counter;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2457;5. ADC and DAC;5.8;5.8. find input voltage;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2457;5. ADC and DAC;5.9;5.9. conversion number;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2458;6. Cathode Ray Oscilloscope;6.1;6.1. calculate ADC speed;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2458;6. Cathode Ray Oscilloscope;6.10;6.10. find speed of conversion;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2458;6. Cathode Ray Oscilloscope;6.11;6.11. find total collector resistance;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2458;6. Cathode Ray Oscilloscope;6.12;6.12. deflection plates voltage;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2458;6. Cathode Ray Oscilloscope;6.2;6.2. find frequency at horizontal plate;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2458;6. Cathode Ray Oscilloscope;6.3;6.3. find length of vertical axis of ellipse;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2458;6. Cathode Ray Oscilloscope;6.4;6.4. find voltage applied between plates;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2458;6. Cathode Ray Oscilloscope;6.5;6.5. deflection sensitivity;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2458;6. Cathode Ray Oscilloscope;6.6;6.6. find deflection of electron;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2458;6. Cathode Ray Oscilloscope;6.7;6.7. cutoff frequency of filter;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2458;6. Cathode Ray Oscilloscope;6.8;6.8. phase difference;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2458;6. Cathode Ray Oscilloscope;6.9;6.9. rise time of pulse;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2467;7. Phase Frequency and Time;7.1;7.1. find pulse width;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2467;7. Phase Frequency and Time;7.10;7.10. find time between events;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2467;7. Phase Frequency and Time;7.2;7.2. detector senstivity;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2467;7. Phase Frequency and Time;7.3;7.3. phase measured;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2467;7. Phase Frequency and Time;7.4;7.4. measured phase difference;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2467;7. Phase Frequency and Time;7.5;7.5. find phase difference;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2467;7. Phase Frequency and Time;7.6;7.6. states for stages required;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2467;7. Phase Frequency and Time;7.7;7.7. find time base division;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2467;7. Phase Frequency and Time;7.8;7.8. frequency of sinusoid;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2467;7. Phase Frequency and Time;7.9;7.9. count of counter;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2469;8. Q factor Power and Power Factor;8.1;8.1. inductance and Q factor of coil;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2469;8. Q factor Power and Power Factor;8.10;8.10. calculate ratio error and phase angle;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2469;8. Q factor Power and Power Factor;8.11;8.11. calculate ratio error and phase angle;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2469;8. Q factor Power and Power Factor;8.2;8.2. truncation error;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2469;8. Q factor Power and Power Factor;8.3;8.3. find ratio errror and phase angle;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2469;8. Q factor Power and Power Factor;8.4;8.4. inductor Q factor and resistance;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2469;8. Q factor Power and Power Factor;8.5;8.5. actual Q factor and resistance;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2469;8. Q factor Power and Power Factor;8.6;8.6. find Q factor;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2469;8. Q factor Power and Power Factor;8.7;8.7. find lag;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2469;8. Q factor Power and Power Factor;8.8;8.8. find truncation error;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2469;8. Q factor Power and Power Factor;8.9;8.9. find frequency of PF meter;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2470;9. Analyzers;9.1;9.1. variable frequency oscillator;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2470;9. Analyzers;9.2;9.2. DFT coefficients;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2470;9. Analyzers;9.3;9.3. find improvement ratio;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2470;9. Analyzers;9.4;9.4. find distortion factor;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2470;9. Analyzers;9.5;9.5. find percentage change in feedback;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2470;9. Analyzers;9.6;9.6. time uncertainity and measurable time;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2483;10. Bridge Circuits;10.1;10.1. wheatstone bridge;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2483;10. Bridge Circuits;10.10;10.10. maxwell bridge;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2483;10. Bridge Circuits;10.11;10.11. hay bridge;error;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2483;10. Bridge Circuits;10.12;10.12. find C1 C3 and dissipation factor;error;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2483;10. Bridge Circuits;10.13;10.13. wein bridge;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2483;10. Bridge Circuits;10.2;10.2. high resistance measurement bridge;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2483;10. Bridge Circuits;10.3;10.3. capacitance and resistance of AC bridge;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2483;10. Bridge Circuits;10.4;10.4. schering bridge;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2483;10. Bridge Circuits;10.5;10.5. wein bridge;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2483;10. Bridge Circuits;10.6;10.6. balance condition in wein bridge;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2483;10. Bridge Circuits;10.7;10.7. relation between Vo and t for Vi given;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2483;10. Bridge Circuits;10.8;10.8. find deflection in galvanometer;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2483;10. Bridge Circuits;10.9;10.9. find insulating post resistance;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2484;11. Test Signal Generation;11.1;11.1. limits of duty cycle;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2484;11. Test Signal Generation;11.10;11.10. find output voltage V1 and V2;error;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2484;11. Test Signal Generation;11.2;11.2. determine sinewave amplitude and segment slopes;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2484;11. Test Signal Generation;11.3;11.3. find inductance;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2484;11. Test Signal Generation;11.4;11.4. resonance frequency of crystal;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2484;11. Test Signal Generation;11.5;11.5. find R in CR section;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2484;11. Test Signal Generation;11.6;11.6. find phase difference in wein network;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2484;11. Test Signal Generation;11.7;11.7. digital frequency synthesizer;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2484;11. Test Signal Generation;11.8;11.8. find controlling voltage;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2484;11. Test Signal Generation;11.9;11.9. find limits of duty factor;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2485;12. Display Record And Acquisition Of Data;12.1;12.1. find excitation voltage and electrode areas;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2485;12. Display Record And Acquisition Of Data;12.2;12.2. find deviation factor;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2485;12. Display Record And Acquisition Of Data;12.3;12.3. find wavelength of radiation;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2485;12. Display Record And Acquisition Of Data;12.4;12.4. thickness of LCD crystal;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2485;12. Display Record And Acquisition Of Data;12.5;12.5. find current density;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2485;12. Display Record And Acquisition Of Data;12.6;12.6. find magnetic flux in tape;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2485;12. Display Record And Acquisition Of Data;12.7;12.7. channel accomodation;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2485;12. Display Record And Acquisition Of Data;12.8;12.8. sensor signal transmission;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2485;12. Display Record And Acquisition Of Data;12.9;12.9. ROM access time;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2486;13. Shielding And Grounding;13.1;13.1. find diagnostic ratio;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2486;13. Shielding And Grounding;13.2;13.2. find diagnostic ratio;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2486;13. Shielding And Grounding;13.3;13.3. find ground loop current;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2487;14. Transducers And The Measurement System;14.1;14.1. find percentage change in resistance;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2487;14. Transducers And The Measurement System;14.10;14.10. find load voltage;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2487;14. Transducers And The Measurement System;14.11;14.11. find error and senstivity parameters;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2487;14. Transducers And The Measurement System;14.2;14.2. find bridgemann coefficient;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2487;14. Transducers And The Measurement System;14.3;14.3. pt100 RTD;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2487;14. Transducers And The Measurement System;14.4;14.4. senstivity in measurement of capacitance;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2487;14. Transducers And The Measurement System;14.5;14.5. find max gauge factor;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2487;14. Transducers And The Measurement System;14.6;14.6. find Young modulus;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2487;14. Transducers And The Measurement System;14.7;14.7. find capacitance of sensor;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2487;14. Transducers And The Measurement System;14.8;14.8. find ratio of collector currents;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2487;14. Transducers And The Measurement System;14.9;14.9. find normalized output;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2488;15. Fibre Optics Sensors And Instrumentation;15.1;15.1. find increamental phase;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2488;15. Fibre Optics Sensors And Instrumentation;15.2;15.2. find additional length travelled;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2488;15. Fibre Optics Sensors And Instrumentation;15.3;15.3. find interacting length;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2488;15. Fibre Optics Sensors And Instrumentation;15.4;15.4. wavelength suitable for laser light;correct;runtime; -978;Principles Of Electronic Instrumentation(D. Patranabis);2488;15. Fibre Optics Sensors And Instrumentation;15.5;15.5. find rate of change of RI wrt T;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);2913;1. Scalars and vectors;1.1;1.1. The density of the material;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);2913;1. Scalars and vectors;1.11;1.11. Cross products of orthogonal unit vectors;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);2913;1. Scalars and vectors;1.12;1.12. Cross products in rectangular coordinates;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);2913;1. Scalars and vectors;1.2;1.2. Diameter of a circle;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);2913;1. Scalars and vectors;1.3;1.3. Multiplication of two coplex numbers;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);2913;1. Scalars and vectors;1.5;1.5. Calculations with vector addtion;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);2913;1. Scalars and vectors;1.6;1.6. Calculations with vector addtion;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);2913;1. Scalars and vectors;1.7;1.7. Calculations with vector addtion;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);2913;1. Scalars and vectors;1.8;1.8. The work done by a constant force;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);2914;2. Coordinate Systems and Fields;2.1;2.1. The pressure at height;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);2914;2. Coordinate Systems and Fields;2.10;2.10. Cylindrical coordinate system;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);2914;2. Coordinate Systems and Fields;2.12;2.12. Dot products between rectangular and cylindrical coordinate;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);2914;2. Coordinate Systems and Fields;2.4;2.4. Direction cosines;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);2914;2. Coordinate Systems and Fields;2.6;2.6. Vector equations of a straight line;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);2914;2. Coordinate Systems and Fields;2.7;2.7. Equation of a plane;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);2914;2. Coordinate Systems and Fields;2.9;2.9. Cylindrical coordinate system;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3127;3. Vector calculus;3.1;3.1. The linear element;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3127;3. Vector calculus;3.2;3.2. The length of the straight line;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3127;3. Vector calculus;3.5;3.5. Line Integral;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3128;4. The Electric Field and Gauss Law;4.10;4.10. Force due to electric field;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3128;4. The Electric Field and Gauss Law;4.11;4.11. Electric Field;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3128;4. The Electric Field and Gauss Law;4.12;4.12. Electric Field;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3128;4. The Electric Field and Gauss Law;4.2;4.2. The charge density;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3128;4. The Electric Field and Gauss Law;4.23;4.23. Gauss Law Applied to a Charged Sphere ;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3128;4. The Electric Field and Gauss Law;4.3;4.3. Finding the total charge in the given region;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3128;4. The Electric Field and Gauss Law;4.5;4.5. Coulombs Law;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3128;4. The Electric Field and Gauss Law;4.6;4.6. Coulombs Law;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3128;4. The Electric Field and Gauss Law;4.7;4.7. Coulombs Law;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3128;4. The Electric Field and Gauss Law;4.8;4.8. Comparision between force of gravity and electrostatic attraction;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3128;4. The Electric Field and Gauss Law;4.9;4.9. Coulombs law and Superposition of Forces;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3303;5. Energy and Potential;5.1;5.1. Work done to move a charge;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3303;5. Energy and Potential;5.10;5.10. Motion of electron in electric field;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3303;5. Energy and Potential;5.11;5.11. Motion of electron in electric field;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3303;5. Energy and Potential;5.2;5.2. Work done to move a charge;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3308;6. The Electric Field and Material Media;6.1;6.1. The total charge passing a plane;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3308;6. The Electric Field and Material Media;6.10;6.10. Relaxation time for conductors;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3308;6. The Electric Field and Material Media;6.11;6.11. The drift velocity and mobility of electrons;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3308;6. The Electric Field and Material Media;6.15;6.15. The conductivity of the material;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3308;6. The Electric Field and Material Media;6.16;6.16. The polarisation density in die electric;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3308;6. The Electric Field and Material Media;6.19;6.19. Boundry condition for electrostatic field;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3308;6. The Electric Field and Material Media;6.2;6.2. The total charge passing a plane;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3308;6. The Electric Field and Material Media;6.3;6.3. The current density;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3308;6. The Electric Field and Material Media;6.4;6.4. The mobile charge density;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3308;6. The Electric Field and Material Media;6.5;6.5. Velocity of the mobile charge;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3308;6. The Electric Field and Material Media;6.8;6.8. Current density in conductor;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3317;7. Laplace and Poisson Equations ;7.7;7.7. The voltage in coaxial cylinders;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3318;9. Magnetic forces Inductance and Magnetisation;9.13;9.13. inductance of a coil;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3318;9. Magnetic forces Inductance and Magnetisation;9.14;9.14. Wheeler formula;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3318;9. Magnetic forces Inductance and Magnetisation;9.17;9.17. Inductance per meter of a coaxial line;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3318;9. Magnetic forces Inductance and Magnetisation;9.19;9.19. Inductance of single loop of wire;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3318;9. Magnetic forces Inductance and Magnetisation;9.2;9.2. electron moving in a steady magnetic field;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3318;9. Magnetic forces Inductance and Magnetisation;9.4;9.4. Force on the moving charge in steady magnetic field ;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3318;9. Magnetic forces Inductance and Magnetisation;9.6;9.6. force on a straight wire carrying current in a magnetic field;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3318;9. Magnetic forces Inductance and Magnetisation;9.7;9.7. force between two current carring parallel conductor;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3319;10. Time dependent fields;10.15;10.15. the diraction of travelling wave and its velocity ;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3320;11. Electromagnetic Waves;11.1;11.1. the propagation constant;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3320;11. Electromagnetic Waves;11.10;11.10. the complex propagation constant;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3320;11. Electromagnetic Waves;11.11;11.11. low conductivity materials;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3320;11. Electromagnetic Waves;11.12;11.12. propagation constant skin depth and the wave length in high conductivity materials;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3320;11. Electromagnetic Waves;11.15;11.15. maxima minima and zeros of the standing wave;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3320;11. Electromagnetic Waves;11.18;11.18. The Brewster angle;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3320;11. Electromagnetic Waves;11.4;11.4. Uniform Plane Wave;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3320;11. Electromagnetic Waves;11.5;11.5. magnitude of the electric and magnetic field vectors;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3321;12. Transmission Lines and Waveguides;12.2;12.2. attenuation factor and characteristic impedence ;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3321;12. Transmission Lines and Waveguides;12.20;12.20. modes that propagate in parallel plate waveguide;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3321;12. Transmission Lines and Waveguides;12.23;12.23. the resonent frequency for the TM modes;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3321;12. Transmission Lines and Waveguides;12.24;12.24. the resonant frequency for the TE modes;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3321;12. Transmission Lines and Waveguides;12.3;12.3. L and C for the physical tansmission lines;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3321;12. Transmission Lines and Waveguides;12.4;12.4. distance between the conductors for two wire line;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3322;13. Radiation from Currents;13.11;13.11. The power density radiated;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3322;13. Radiation from Currents;13.14;13.14. The power received by the receiving antenna;error;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3322;13. Radiation from Currents;13.15;13.15. The transmitted power;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3323;14. Introduction to Antennas;14.10;14.10. The flare angle;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3323;14. Introduction to Antennas;14.12;14.12. The directivity and half power beam width;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3323;14. Introduction to Antennas;14.14;14.14. The directivity of the horn;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3323;14. Introduction to Antennas;14.4;14.4. the first sidelobe level;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3323;14. Introduction to Antennas;14.5;14.5. The progressive phase shift and BWFN;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3323;14. Introduction to Antennas;14.6;14.6. Design of uniform antenna array;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3324;15. Radio Wave Propagation;15.11;15.11. The plasma frequency;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3324;15. Radio Wave Propagation;15.12;15.12. the electron density at which the wave is reflected back;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3324;15. Radio Wave Propagation;15.13;15.13. the critical frequency;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3324;15. Radio Wave Propagation;15.14;15.14. the electron density and height of the layer;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3324;15. Radio Wave Propagation;15.6;15.6. the distance for surface wave which can be used for given frequency;correct;runtime; -980;Fundamentals Of Engineering Electromagnetics(S. Bhooshan);3324;15. Radio Wave Propagation;15.7;15.7. the refractive index of the atmosphere;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2519;1. Physical properties of elements;1.1;1.1. Finding radii;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2519;1. Physical properties of elements;1.2;1.2. Finding wavelength;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2519;1. Physical properties of elements;1.3;1.3. wavelength of the Balmer series;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2520;3. Electron Ballistics;3.1;3.1. Speed and the kinetic energy;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2520;3. Electron Ballistics;3.10;3.10. velocity and acceleration and deflection;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2520;3. Electron Ballistics;3.11;3.11. velocity and deflection of the beam;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2520;3. Electron Ballistics;3.12;3.12. velocity and deflection sensitivity and theta;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2520;3. Electron Ballistics;3.13;3.13. time required for maximum height;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2520;3. Electron Ballistics;3.14;3.14. deflection of the spot;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2520;3. Electron Ballistics;3.15;3.15. deflection voltage;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2520;3. Electron Ballistics;3.2;3.2. Velocity and kinetic energy;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2520;3. Electron Ballistics;3.3;3.3. velocity and time of travel;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2520;3. Electron Ballistics;3.4;3.4. electron velocity time kinetic energy;error;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2520;3. Electron Ballistics;3.5;3.5. time of travel;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2520;3. Electron Ballistics;3.6;3.6. position of electron and time;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2520;3. Electron Ballistics;3.7;3.7. position of the electron;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2520;3. Electron Ballistics;3.8;3.8. velocity and radius and time;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2520;3. Electron Ballistics;3.9;3.9. radius and time period of rotation;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2521;4. Semiconductor Diodes;4.1;4.1. intrinsic conductivity for both germanium and silicon;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2521;4. Semiconductor Diodes;4.10;4.10. resistivity and resistance and the voltage of the doped germanium;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2521;4. Semiconductor Diodes;4.11;4.11. calculate Va and Eo;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2521;4. Semiconductor Diodes;4.12;4.12. current flowing in the diode;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2521;4. Semiconductor Diodes;4.13;4.13. calculate the diode current;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2521;4. Semiconductor Diodes;4.14;4.14. determine eta;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2521;4. Semiconductor Diodes;4.15;4.15. the voltage in a germanium PN junction diode;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2521;4. Semiconductor Diodes;4.16;4.16. forward resistance of PN junction diode;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2521;4. Semiconductor Diodes;4.17;4.17. Calculating the saturation current;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2521;4. Semiconductor Diodes;4.2;4.2. new position of the fermi level;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2521;4. Semiconductor Diodes;4.3;4.3. new position of the Fermi level for different temperatures;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2521;4. Semiconductor Diodes;4.4;4.4. new position of Fermi level;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2521;4. Semiconductor Diodes;4.5;4.5. new position of Fermi level;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2521;4. Semiconductor Diodes;4.6;4.6. conductivity of silicon;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2521;4. Semiconductor Diodes;4.7;4.7. resistivity of germanium;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2521;4. Semiconductor Diodes;4.8;4.8. otal conduction current density;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2521;4. Semiconductor Diodes;4.9;4.9. concentration of holes and electrons;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2686;5. Special Diodes;5.1;5.1. barrier height and built in potential;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.1;6.1. find value of the base current IB;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.10;6.10. determine IC and IB;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.11;6.11. beta and alpha and IE;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.12;6.12. find IC and IE;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.13;6.13. IC and new collector current;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.14;6.14. find the current gain;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.15;6.15. dc current gain in CB mode;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.16;6.16. current gain alpha and beta;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.17;6.17. current gain and base current;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.18;6.18. determine IC and IE and alpha;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.19;6.19. IB IC IE and VCE;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.2;6.2. common base dc current gain;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.20;6.20. calculate IC and IE;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.21;6.21. alpha dc and beta dc;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.22;6.22. find emitter current;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.23;6.23. dc and ac load line and operating point;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.24;6.24. ac and dc load line and operating point;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.25;6.25. Design circuit in fig 6 24;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.26;6.26. characteristics circuit in fig 6 25;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.27;6.27. dc load line and operating point and S;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.28;6.28. RB and S and operating point;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.29;6.29. calculate RB and stability factor;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.3;6.3. find value of base current;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.30;6.30. operating point coordinates and stability factor;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.31;6.31. resistors RE and R1 and R2;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.32;6.32. determine the Q point;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.33;6.33. IB IC and VCE and S;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.34;6.34. Q point and stability factor;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.4;6.4. find values of IC and IB;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.5;6.5. find value of beta and alpha;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.6;6.6. find value of emitter current;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.7;6.7. collector and base currents;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.8;6.8. calculate IB and IE;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2675;6. Bipolar junction transistor;6.9;6.9. determine IC and IE;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2676;7. Field effect transistor;7.1;7.1. resistance between gate and source;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2676;7. Field effect transistor;7.10;7.10. ID and Vds;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2676;7. Field effect transistor;7.2;7.2. value of transconductance;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2676;7. Field effect transistor;7.3;7.3. value of Vgs and Vp;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2676;7. Field effect transistor;7.4;7.4. value of Vds and Ids;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2676;7. Field effect transistor;7.5;7.5. operating point and RD and RS;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2676;7. Field effect transistor;7.6;7.6. value of Rs;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2676;7. Field effect transistor;7.7;7.7. value of ID and verify FET;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2676;7. Field effect transistor;7.8;7.8. values of R1 and R2 and RD;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2676;7. Field effect transistor;7.9;7.9. design the MOSFET circuit;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2693;8. Thyristors;8.1;8.1. SCR half wave rectifier;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2693;8. Thyristors;8.2;8.2. firing angle and time and load current;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2693;8. Thyristors;8.3;8.3. power rating of the SCR;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.1;9.1. Ai and Ri and Av and Ro;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.10;9.10. Zi and Av;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.11;9.11. Zi and overall voltage gain;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.12;9.12. Zb and Zi and Av and VL and iL and overall voltage and current gain;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.13;9.13. Av and overall voltage and current gain;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.14;9.14. Ri and Ro and VL;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.15;9.15. Zi and overall voltage gain;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.16;9.16. overall voltage gain;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.17;9.17. Av and Zi and Zo;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.18;9.18. Av and Zi and Zo;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.19;9.19. Av and Zi and Zo;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.2;9.2. AI and Ri and Av and Ro and RoT;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.20;9.20. the percentage difference;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.21;9.21. Qpoint and Vc and IB;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.22;9.22. Qpoint and maximum VIC;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.23;9.23. ICQ and VCEQ and Ad and Ac;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.24;9.24. Ri and RLdash and Av and AVS and Ro;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.3;9.3. AI and RI and Av and Ro;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.4;9.4. AI and Av and Ri and Ro;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.5;9.5. AI and Ri and Av and Avs and Ais and Zo and Ap;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.6;9.6. Ai and Ri and Av and Ro;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.7;9.7. Av and AI and Zi and Zo;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.8;9.8. Zi and Zo and Av and Ai;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2694;9. Midband Analysis of Small Signal Amplifiers;9.9;9.9. Zi and Zo and Av and Ai;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2695;10. Multistage Amplifiers;10.1;10.1. Zi and Zo and overall current and voltage gains;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2695;10. Multistage Amplifiers;10.2;10.2. AIm and AVm and fL and fH and gain bandwidth product;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2696;11. Frequency Response of Amplifiers;11.2;11.2. approximate bandwidth;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2696;11. Frequency Response of Amplifiers;11.3;11.3. AvMF and lower 3 dB gain;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2696;11. Frequency Response of Amplifiers;11.4;11.4. coupling capacitor;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2696;11. Frequency Response of Amplifiers;11.5;11.5. gm and rbdashe and rbbdash and Cbdashe;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2696;11. Frequency Response of Amplifiers;11.6;11.6. alpha and beta and fT;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2697;12. Large Signal Amplifiers;12.1;12.1. effective resistance;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2697;12. Large Signal Amplifiers;12.2;12.2. transformer turns ratio;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2697;12. Large Signal Amplifiers;12.3;12.3. series fed load and transformer coupled load;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2697;12. Large Signal Amplifiers;12.4;12.4. collector circuit efficiency;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2697;12. Large Signal Amplifiers;12.5;12.5. junction temperature TJ;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2697;12. Large Signal Amplifiers;12.6;12.6. desipate power of transistor;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2697;12. Large Signal Amplifiers;12.7;12.7. power dissipation capability;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2698;14. Feedback Amplifiers;14.1;14.1. percentage change in gain;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2698;14. Feedback Amplifiers;14.2;14.2. openloop gain A and feedback ratio;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2698;14. Feedback Amplifiers;14.3;14.3. bandwidth and feedback ratio;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2698;14. Feedback Amplifiers;14.4;14.4. amplifier voltage gain and Df;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2698;14. Feedback Amplifiers;14.5;14.5. Af and Rif and Rof;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2698;14. Feedback Amplifiers;14.6;14.6. Ai and Ri and Av and Ro and Rof;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2698;14. Feedback Amplifiers;14.7;14.7. Av and Rif and Avf and Rof and Rofdash;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2698;14. Feedback Amplifiers;14.8;14.8. A and beta and Rif and Af and loop gain;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2699;15. Oscillators;15.1;15.1. value of L1;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2699;15. Oscillators;15.10;15.10. C and hfe;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2699;15. Oscillators;15.11;15.11. value of capacitor;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2699;15. Oscillators;15.12;15.12. series and parallel resonant freqency and Qfactor;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2699;15. Oscillators;15.2;15.2. range over caacitor is varied;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2699;15. Oscillators;15.3;15.3. frequency of oscillation and feedback ratio;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2699;15. Oscillators;15.4;15.4. inductor and gain for oscillation;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2699;15. Oscillators;15.5;15.5. colpitts osillator;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2699;15. Oscillators;15.6;15.6. range of variable capacitor;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2699;15. Oscillators;15.7;15.7. range of tuning capacitor;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2699;15. Oscillators;15.8;15.8. frequency of oscillation;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2699;15. Oscillators;15.9;15.9. minimum current gain;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2700;16. Wave Shaping and Multivibrator Circuits;16.1;16.1. value of bandwidth;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2700;16. Wave Shaping and Multivibrator Circuits;16.10;16.10. frequency of oscillation;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2700;16. Wave Shaping and Multivibrator Circuits;16.11;16.11. period and frequency of oscillation;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2700;16. Wave Shaping and Multivibrator Circuits;16.12;16.12. astable multivibrator value of capacitor;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2700;16. Wave Shaping and Multivibrator Circuits;16.13;16.13. design a saturated collector coupled multivibrator;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2700;16. Wave Shaping and Multivibrator Circuits;16.14;16.14. component values of monostable multivibrator;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2700;16. Wave Shaping and Multivibrator Circuits;16.15;16.15. current and voltage for bistable multivibrator;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2700;16. Wave Shaping and Multivibrator Circuits;16.16;16.16. design a schmitt trigger circuit;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2700;16. Wave Shaping and Multivibrator Circuits;16.2;16.2. size of speedup capacitor and input frequency;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2700;16. Wave Shaping and Multivibrator Circuits;16.3;16.3. negative clipper;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2700;16. Wave Shaping and Multivibrator Circuits;16.4;16.4. negative clipper;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2700;16. Wave Shaping and Multivibrator Circuits;16.5;16.5. positive and negative clipper;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2700;16. Wave Shaping and Multivibrator Circuits;16.8;16.8. positive clamper;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2700;16. Wave Shaping and Multivibrator Circuits;16.9;16.9. negative clamper;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2701;17. Blocking Oscillators and Time Based Generators;17.1;17.1. design a UJT relaxation oscillator;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2702;18. Rectifiers and Power Supplies;18.1;18.1. Im and Idc and Irms and Pdc and Pac and eta;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2702;18. Rectifiers and Power Supplies;18.10;18.10. design a full wave circuit;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2702;18. Rectifiers and Power Supplies;18.11;18.11. design a CLC or pi section filter;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2702;18. Rectifiers and Power Supplies;18.12;18.12. design zener shunt voltage regulator;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2702;18. Rectifiers and Power Supplies;18.13;18.13. design the zener regulator;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2702;18. Rectifiers and Power Supplies;18.14;18.14. design the regulator;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2702;18. Rectifiers and Power Supplies;18.15;18.15. design zener voltage regulator;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2702;18. Rectifiers and Power Supplies;18.16;18.16. series resistance and diode current;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2702;18. Rectifiers and Power Supplies;18.17;18.17. design a linear voltage regulator;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2702;18. Rectifiers and Power Supplies;18.18;18.18. design a series voltage regulator;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2702;18. Rectifiers and Power Supplies;18.19;18.19. design a circuit to supply domestic power;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2702;18. Rectifiers and Power Supplies;18.2;18.2. maximum value of ac voltage;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2702;18. Rectifiers and Power Supplies;18.3;18.3. Vdc and PIV and Im and Pm and Idc and Pdc;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2702;18. Rectifiers and Power Supplies;18.4;18.4. centre tap fullwave rectifier;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2702;18. Rectifiers and Power Supplies;18.5;18.5. RL and Vdc and Idc and PIV;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2702;18. Rectifiers and Power Supplies;18.6;18.6. ac ripple voltage;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2702;18. Rectifiers and Power Supplies;18.7;18.7. Vdc and Pdc and PIV and output frequency;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2702;18. Rectifiers and Power Supplies;18.8;18.8. value of inductance;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2702;18. Rectifiers and Power Supplies;18.9;18.9. value of capacitance;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2703;19. Integrated Circuit Fabrication;19.1;19.1. design 5 k ohm diffused resistor;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2703;19. Integrated Circuit Fabrication;19.2;19.2. design 1 k ohm resistor;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2704;20. Operational Amplifiers;20.1;20.1. common mode gain or op amp;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2704;20. Operational Amplifiers;20.2;20.2. slew rate of op amp;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2704;20. Operational Amplifiers;20.3;20.3. maximum frequency;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2704;20. Operational Amplifiers;20.4;20.4. maximum peak to peak input signal;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2704;20. Operational Amplifiers;20.5;20.5. closed loop voltage gain;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2704;20. Operational Amplifiers;20.6;20.6. closed loop voltage gain and beta;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2704;20. Operational Amplifiers;20.7;20.7. design the output voltage;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2704;20. Operational Amplifiers;20.8;20.8. design a high pass filter;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2704;20. Operational Amplifiers;20.9;20.9. T and R and peak differential input voltage;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2705;21. Transducers;21.1;21.1. value of electron mobility;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2705;21. Transducers;21.2;21.2. value of electron concentration;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2705;21. Transducers;21.3;21.3. value of electron density;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2706;24. Digital Circuits;24.1;24.1. decimal to octal;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2706;24. Digital Circuits;24.10;24.10. 2s complement subtraction;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2706;24. Digital Circuits;24.11;24.11. BCD addition;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2706;24. Digital Circuits;24.12;24.12. Boolean algebra;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2706;24. Digital Circuits;24.13;24.13. Simplify boolean algebra;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2706;24. Digital Circuits;24.14;24.14. Simplify Karnaugh map;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2706;24. Digital Circuits;24.15;24.15. Simplify Karnaugh map;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2706;24. Digital Circuits;24.2;24.2. octal to decimal;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2706;24. Digital Circuits;24.3;24.3. decimal to hexadecimal;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2706;24. Digital Circuits;24.4;24.4. hexadecimal to decimal;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2706;24. Digital Circuits;24.5;24.5. multiplication of binary numbers;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2706;24. Digital Circuits;24.6;24.6. division of binary numbers;error;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2706;24. Digital Circuits;24.7;24.7. 1s complement subtraction;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2706;24. Digital Circuits;24.8;24.8. 1s complement subtraction;correct;runtime; -991;Electronics Devices And Circuits(S. Salivahanan, N. S. Kumar And A. Vallavaraj);2706;24. Digital Circuits;24.9;24.9. 2s complement subtraction;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2505;1. INTRODUCTION;1.1;1.1. Program to find noise voltage;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2505;1. INTRODUCTION;1.2;1.2. Program to find noise power;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2505;1. INTRODUCTION;1.3;1.3. Program to equivalent noise;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2505;1. INTRODUCTION;1.4;1.4. Program to astimate maximum noise voltage amplitude;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2505;1. INTRODUCTION;1.5;1.5. Program to find noise power;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2505;1. INTRODUCTION;1.6;1.6. Program to equivalent noise;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2506;2. AMPLITUDE MODULATION;2.1;2.1. Program to calculate total power in the modulated signal;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2506;2. AMPLITUDE MODULATION;2.10;2.10. Program to calculate power saving;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2506;2. AMPLITUDE MODULATION;2.11;2.11. Program to calculate signal parameters;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2506;2. AMPLITUDE MODULATION;2.12;2.12. To determine if there is interference;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2506;2. AMPLITUDE MODULATION;2.13;2.13. Program to calculate modulation index;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2506;2. AMPLITUDE MODULATION;2.14;2.14. Program to calculate modulation index;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2506;2. AMPLITUDE MODULATION;2.15;2.15. Program to calculate modulation index;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2506;2. AMPLITUDE MODULATION;2.16;2.16. Program to calculate total power in the modulated signal;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2506;2. AMPLITUDE MODULATION;2.17;2.17. Program to calculate power in the carrier signal;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2506;2. AMPLITUDE MODULATION;2.18;2.18. Program to calculate power in the carrier signal;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2506;2. AMPLITUDE MODULATION;2.19;2.19. Program to calculate modulation index;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2506;2. AMPLITUDE MODULATION;2.2;2.2. Program to calculate carrier frequency;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2506;2. AMPLITUDE MODULATION;2.20;2.20. Program to calculate modulation index;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2506;2. AMPLITUDE MODULATION;2.3;2.3. Program to calculate power of carrier signal;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2506;2. AMPLITUDE MODULATION;2.4;2.4. Program to determine antenna current;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2506;2. AMPLITUDE MODULATION;2.5;2.5. Program to calculate modulation index due to second wave;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2506;2. AMPLITUDE MODULATION;2.6;2.6. Program to calculate total sideband power radiated;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2506;2. AMPLITUDE MODULATION;2.7;2.7. Program to calculate total sideband power radiated;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2506;2. AMPLITUDE MODULATION;2.8;2.8. Program to calculate modulation index radiated power;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2506;2. AMPLITUDE MODULATION;2.9;2.9. Program to calculate total power in the modulated signal;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2508;3. FREQUENCY AND PHASE MODULATION;3.1;3.1. Program to calculate deviation and modulation index;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2508;3. FREQUENCY AND PHASE MODULATION;3.10;3.10. Program to determine realtive amplitude of each sideband;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2508;3. FREQUENCY AND PHASE MODULATION;3.11;3.11. Program to determine realtive amplitude of each sideband;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2508;3. FREQUENCY AND PHASE MODULATION;3.2;3.2. Program to calculate Power dissipated;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2508;3. FREQUENCY AND PHASE MODULATION;3.3;3.3. Program to calculate modulation index;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2508;3. FREQUENCY AND PHASE MODULATION;3.4;3.4. Program to Bandwidth required;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2508;3. FREQUENCY AND PHASE MODULATION;3.5;3.5. Program to determine equations of FM and PM;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2508;3. FREQUENCY AND PHASE MODULATION;3.6;3.6. Program to modulation index;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2508;3. FREQUENCY AND PHASE MODULATION;3.7;3.7. Program to Bandwidth required;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2508;3. FREQUENCY AND PHASE MODULATION;3.8;3.8. Program to calculate deviation to be used;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2508;3. FREQUENCY AND PHASE MODULATION;3.9;3.9. Program to calculate modulation index;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2509;4. PRINCIPLES OF AM MODULATION;4.1;4.1. Program to determine percent increase in signal power of a carrier amplitude;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2509;4. PRINCIPLES OF AM MODULATION;4.2;4.2. Program to calculate turn ratio for modulation transformer;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2509;4. PRINCIPLES OF AM MODULATION;4.3;4.3. Program to calculate total RF power;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2509;4. PRINCIPLES OF AM MODULATION;4.4;4.4. Program to calculate carrier power efficiency carrier amplitude;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2509;4. PRINCIPLES OF AM MODULATION;4.5;4.5. Program to calculate equivalent resistance inductor capacitor;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2509;4. PRINCIPLES OF AM MODULATION;4.6;4.6. Program to calculate carrier power contents;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2509;4. PRINCIPLES OF AM MODULATION;4.7;4.7. Program to calculate required frequency in two cases;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2510;5. PRINCIPLES OF FM MODULATION;5.1;5.1. Program to calculate capacitive reactance;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2510;5. PRINCIPLES OF FM MODULATION;5.10;5.10. Program to calculate bandwidth;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2510;5. PRINCIPLES OF FM MODULATION;5.2;5.2. Program to calculate capacitive reactance;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2510;5. PRINCIPLES OF FM MODULATION;5.4;5.4. Program to calculate number of stations;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2510;5. PRINCIPLES OF FM MODULATION;5.5;5.5. Program to calculate carrier swing;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2510;5. PRINCIPLES OF FM MODULATION;5.6;5.6. Program to calculate percentage modulation;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2510;5. PRINCIPLES OF FM MODULATION;5.7;5.7. Program to calculate value of capacitance;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2510;5. PRINCIPLES OF FM MODULATION;5.8;5.8. Program to determine range of capacitance;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2510;5. PRINCIPLES OF FM MODULATION;5.9;5.9. Program to calculate frequency deviation;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2511;6. DEMODULATION OF AM WAVES;6.1;6.1. Program to calculate image frequency rejection ratio;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2511;6. DEMODULATION OF AM WAVES;6.2;6.2. Program to calculate maximum modulation index;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2511;6. DEMODULATION OF AM WAVES;6.3;6.3. Program to calculate number of stations;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2511;6. DEMODULATION OF AM WAVES;6.4;6.4. Program to calculate number of stations;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2512;7. DEMODULATION OF FM WAVES;7.1;7.1. Program to determine slope detector;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2512;7. DEMODULATION OF FM WAVES;7.2;7.2. Program to determine minimum maximum capture and lock frequency;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2512;7. DEMODULATION OF FM WAVES;7.3;7.3. Program to calculate total gain;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2512;7. DEMODULATION OF FM WAVES;7.4;7.4. Program to calculate total gain;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2512;7. DEMODULATION OF FM WAVES;7.5;7.5. Program to calculate number of stations;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2512;7. DEMODULATION OF FM WAVES;7.6;7.6. Program to determine slope detector;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2513;8. PULSE MODULATION SYSTEMS;8.1;8.1. Program to calculate nyquist sampling rate;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2513;8. PULSE MODULATION SYSTEMS;8.2;8.2. Program to calculate nyquist sampling rate;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2513;8. PULSE MODULATION SYSTEMS;8.3;8.3. Program to calculate nyquist sampling rate elements transmitted;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2514;9. DIGITAL PULSE MODULATION;9.1;9.1. Program to determine output band and minimum required bandwidth;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2514;9. DIGITAL PULSE MODULATION;9.2;9.2. Program to determine output band and minimum required bandwidth;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2514;9. DIGITAL PULSE MODULATION;9.3;9.3. Program to determine bitrate;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2514;9. DIGITAL PULSE MODULATION;9.4;9.4. Program to determine maximum value of bitrate;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2514;9. DIGITAL PULSE MODULATION;9.5;9.5. Program to determine expression for signal;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2514;9. DIGITAL PULSE MODULATION;9.6;9.6. Program to print expression for frequency spectrum;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2514;9. DIGITAL PULSE MODULATION;9.7;9.7. Program to determine maximum signal to quantisation noise ratio;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2514;9. DIGITAL PULSE MODULATION;9.8;9.8. Program to number of bits required per sample minimum bandwidth for multiplexed signal;correct;runtime; -992;Principles Of Communication Engineering(A. K. Gautam);2514;9. DIGITAL PULSE MODULATION;9.9;9.9. Program to calculate the capacity of a standard telephone channel;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.10;1.10. Express the voltage in millivolt using exp notation;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.11;1.11. Calculate the voltage dropped across 33kohm with 3mA current;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.12;1.12. Calculate the charge transferred in 20ms by 45 microamp current;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.13;1.13. Calculate the current supplied to the circuit when 1500V is applied dissipating 300 mW;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.14;1.14. Calculate the current through resistor 12ohm with 6V battery;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.15;1.15. Calculate the voltage developed across 56ohm with 100mA current;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.16;1.16. Calculate the resistance with 15 volt applied with 1mA current;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.17;1.17. Calculate the resistance of 8m length cooper wire;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.18;1.18. Calculate the voltage drop between the ends of the 20m wire carring 5A current;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.19;1.19. Calculate the power supplied by 3 V battery;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.20;1.20. Calculate the power dissipated in 100ohm with 4V drop;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.21;1.21. Calculate the power dissipated in 100ohm with 4V drop;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.22;1.22. Calculate the electric field strength if 2 parallel plates seperated by 25mm are fed by 600V supply;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.23;1.23. Calculate the flux density at 50mm from st wire carrying 20A;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.24;1.24. Calculate the total flux by flux density;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.25;1.25. Calculate the relative permitivity of steel at different given flux density;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.26;1.26. Calculate the current to establish given flux;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.4;1.4. Express angle of 215 degree in radians;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.5;1.5. Express angle in degrees;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.6;1.6. Calculate the current in milliamp;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.7;1.7. Express the freq in Mhz of 1495 kHz radio transmitter;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.8;1.8. Express the capacitance in microfarad of 27000 pF;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2507;1. Electrical Fundamentals;1.9;1.9. Express current in amp;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.1;2.1. Determine the tolerance of resistor;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.10;2.10. Determine the bands coressponding to 330RG;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.11;2.11. Determine the bands coressponding to R22M;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.12;2.12. Determine the effective resistance in Series and Parallel;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.13;2.13. Determine the effective resistance of the circuit;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.14;2.14. Determine the resistance required to realize 50 ohm at 2W;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.15;2.15. Determine the resistance at 80 degree;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.16;2.16. Determine the resistance at 90 degree;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.17;2.17. Determine the resistor temperature coeff;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.18;2.18. Determine the current flow;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.19;2.19. Determine the charged stored;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.2;2.2. Nominal current taken from supply and Max and Min value of supply current;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.20;2.20. Determine the potential diff that be applied to 47 uFcapacitor;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.21;2.21. Determine the required plate area for 1 nF capacitor;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.22;2.22. Determine the value of capacitance;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.23;2.23. Determine the value of capacitor 103K;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.24;2.24. Determine the value of tubular capacitor with brown green brown red brown;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.25;2.25. Determine the effective capacitance;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.26;2.26. Determine the series combination of capacitos and their voltage rating;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.27;2.27. Determine the voltage induced;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.28;2.28. Determine the current that be applied to an inductor;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.29;2.29. Determine the numbers of turns required;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.3;2.3. Determine value and type of resistor used for 100mA;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.30;2.30. Determine the parallel combination for 5mH inductor rated at 2A;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.31;2.31. Determine the effective inductance;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.4;2.4. Determine the value and tolerance of resistor of brown black red silver;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.5;2.5. Determine the value and tolerance of resistor of red violet orange gold;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.6;2.6. Determine the value and tolerance of resistor of green blue black gold;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.7;2.7. Determine the value and tolerance of resistor of red green black brown;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.8;2.8. Determine the bands coressponding to 2pt kohm of tolerance 2 percent;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2540;2. Passive Components;2.9;2.9. Determine the bands coressponding to 4R7K;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2543;3. DC Circuits;3.1;3.1. Determine the value of current flowing between A B and value of I3;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2543;3. DC Circuits;3.10;3.10. Determine the initial charging current and current that flow 50ms and 100ms after connecting supply After what time does capacitor fully charge;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2543;3. DC Circuits;3.11;3.11. Determine the time taken by the capacitor to fall below 10V;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2543;3. DC Circuits;3.12;3.12. Determine the capacitor voltage 1 minute later;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2543;3. DC Circuits;3.13;3.13. Determine the C R values for sq wave of 1kHz;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2543;3. DC Circuits;3.14;3.14. Determine the C R values for sq wave of 1kHz;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2543;3. DC Circuits;3.15;3.15. Determine the current in the inductor after supply first connected;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2543;3. DC Circuits;3.16;3.16. Determine the inductor voltage 20ms after supply first connected;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2543;3. DC Circuits;3.2;3.2. Determine the value of V2 and value of E3;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2543;3. DC Circuits;3.3;3.3. Determine the voltage and current in circuit;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2543;3. DC Circuits;3.4;3.4. Determine the output when no load and loaded by 10kohm;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2543;3. DC Circuits;3.5;3.5. Determine the value of parallel shunt resistor;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2543;3. DC Circuits;3.6;3.6. Determine the range of resistances that can be measured;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2543;3. DC Circuits;3.7;3.7. Determine the current flow in 100 ohm load;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2543;3. DC Circuits;3.8;3.8. Determine the voltage produced;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2543;3. DC Circuits;3.9;3.9. Determine the voltage produced;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2544;4. Alternating voltage and current;4.1;4.1. Determine the instanteous voltage;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2544;4. Alternating voltage and current;4.10;4.10. Determine the reactance of 1mH at 100Hz and 10kHz;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2544;4. Alternating voltage and current;4.11;4.11. Determine the impedance of the circuit and current fro supply;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2544;4. Alternating voltage and current;4.12;4.12. Determine the power factor of choke and currentt from supply;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2544;4. Alternating voltage and current;4.13;4.13. Determine the value of capacitance required;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2544;4. Alternating voltage and current;4.14;4.14. Determine the current supplied and voltage developed across 100 ohm;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2544;4. Alternating voltage and current;4.15;4.15. Determine the value of secondry voltage;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2544;4. Alternating voltage and current;4.16;4.16. Determine the number of secondary turns and primary current;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2544;4. Alternating voltage and current;4.2;4.2. Determine the time period of 400 Hz waveform;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2544;4. Alternating voltage and current;4.3;4.3. Determine the freq of 40 ms waveform;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2544;4. Alternating voltage and current;4.4;4.4. Determine the peak value of 240V rms;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2544;4. Alternating voltage and current;4.5;4.5. Determine the rms value of 50mA peak to peak;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2544;4. Alternating voltage and current;4.6;4.6. Determine the rms current;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2544;4. Alternating voltage and current;4.7;4.7. Determine the reactance of 1uF at 100Hz and 10kHz;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2544;4. Alternating voltage and current;4.8;4.8. Determine the current flow in capacitor;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2544;4. Alternating voltage and current;4.9;4.9. Determine the reactance of 1mH at 100Hz and 10kHz;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2545;5. Semiconductors;5.1;5.1. Determine the resistance of diode when forward current is given and when forward voltage is given;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2545;5. Semiconductors;5.2;5.2. Determine the series resistor required;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2545;5. Semiconductors;5.3;5.3. Determine the Ie emitter current and hfe;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2545;5. Semiconductors;5.4;5.4. Determine the Ie emitter current and hfe;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2545;5. Semiconductors;5.5;5.5. Determine the Ib base current and hfe;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2545;5. Semiconductors;5.6;5.6. Determine the hfe required and collector power dissipation;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2545;5. Semiconductors;5.7;5.7. Determine the I base current and change in collector current;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2545;5. Semiconductors;5.8;5.8. Determine the change in drain current;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2546;6. Power Supplies;6.1;6.1. Determine the peak voltage that appear across load;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2546;6. Power Supplies;6.2;6.2. Determine the amt of ripple at output;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2546;6. Power Supplies;6.3;6.3. Determine the amt of ripple at output;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2546;6. Power Supplies;6.4;6.4. Determine the series resistor for operation in conjunction with 9V;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2546;6. Power Supplies;6.5;6.5. Determine equiv output resistance and regulation of power supply;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2547;7. Amplifiers;7.1;7.1. Determine voltage gain and current gain and power gain;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2547;7. Amplifiers;7.2;7.2. Determine voltage gain and upper and lower cutoff freq;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2547;7. Amplifiers;7.3;7.3. Determine overall voltage gain with negative feedback;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2547;7. Amplifiers;7.4;7.4. Determine percentage increase in overall voltage gain;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2547;7. Amplifiers;7.5;7.5. Determine amount of feedback required;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2547;7. Amplifiers;7.6;7.6. Determine output voltage produced by input signal of 10mV;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2547;7. Amplifiers;7.7;7.7. Determine of load resistance required;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2547;7. Amplifiers;7.8;7.8. Determine static value of current gain and voltage gain;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2547;7. Amplifiers;7.9;7.9. Determine quiescent value of collector current and voltage and peak to peak output voltage;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2561;8. Operational Amplifiers;8.1;8.1. Determine the value of open loop voltage gain;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2561;8. Operational Amplifiers;8.2;8.2. Determine the value of input current;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2561;8. Operational Amplifiers;8.3;8.3. Determine the slew rate of device;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2561;8. Operational Amplifiers;8.4;8.4. Determine the time taken to change level;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2561;8. Operational Amplifiers;8.6;8.6. Determine the circuit parameters using opamps;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2562;9. Oscillators;9.1;9.1. Determine the freq of oscillation;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2562;9. Oscillators;9.2;9.2. Determine the output freq;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2562;9. Oscillators;9.3;9.3. Determine the value of R3 and R4;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2563;12. The 555 timer;12.1;12.1. Determine the parameters of timer circuit;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2563;12. The 555 timer;12.2;12.2. Determine the parameters of timer circuit that produce 5V;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2563;12. The 555 timer;12.3;12.3. Design of pulse generator;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2563;12. The 555 timer;12.4;12.4. Design of 5V square wave generator;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2564;13. Radio;13.1;13.1. Determine the frequency of radio signal of wavelength 15m;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2564;13. Radio;13.2;13.2. Determine the frequency of radio signal of 150MHz;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2564;13. Radio;13.3;13.3. Determine the velocity of propagation of radio signal of 30MHz and 8m wavelength;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2564;13. Radio;13.4;13.4. Determine the two possible BFO freq;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2564;13. Radio;13.5;13.5. Determine the range the local oscillator be tuned;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2564;13. Radio;13.6;13.6. Determine the range the local oscillator be tuned;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2564;13. Radio;13.7;13.7. Determine the radiated power;correct;runtime; -995;Electronic Circuits(M. H. Tooley);2564;13. Radio;13.8;13.8. Determine the power and radiation efficiency;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.1;29.1. Calculate the radius of geostationary satellite;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.10;29.10. calculate the dimension of a reflector antenna;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.100;29.100. determine CNu and CNd and CN;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.101;29.101. Determine the carrier EIRP required to saturate the satellite TWTA;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.102;29.102. Determine the satellite EIRP for the retransmitted carrier;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.103;29.103. Determine the angular separation of the two satellites as viewed by the earth tation also determine the separation distance betwwwn the two satellites in the orbit;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.104;29.104. Determine the angular separation and separation distance;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.105;29.105. Calculate the power flux density at the satellite for an earth station located at 90 degree W longitude and 40 degree N latitude;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.106;29.106. Determine the theoritical max area of the earth surface;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.107;29.107. Determine the percentage of the earth area covered for the two cases of angle of elevation;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.108;29.108. Determine the gain of spot beam antenna if the glowal coverage antenna has a gain of 50 db;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.11;29.11. Determine the receive power;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.12;29.12. Calculate the received power at earth station;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.13;29.13. Find the downlink noise power budget;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.14;29.14. Find CN ratio in the receiver in clear air;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.15;29.15. Find the earth station GT ratio;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.16;29.16. Calculate the new GT ratio;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.17;29.17. Bandwidth of satellite transponder is 36MHz Earth station use RRC filter Calculate the max bit rate;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.18;29.18. calculate the max bit rate that can be sent through this transponder with QPSK;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.19;29.19. Find the value of overall CN at the earth station;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.2;29.2. The space shuttle a LEO satellite often orbits at an altitude of 250km What happens if the altitude of the shuttle becomes less than 250km;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.20;29.20. Calculate the power output of an uplink transmitter;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.21;29.21. find output power rating required for the transmitter;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.22;29.22. Calculate the uplink transmitter power required;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.23;29.23. Calculate the symbol rate;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.24;29.24. Estimate the BW occupied by the RF signal and the frequency range of transmitted signal;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.25;29.25. Calculate the required carrier to noise ratio;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.26;29.26. Calculate the earth station transmitter power needed for transmission of a baseband signal;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.27;29.27. Calculate the uplink power increase required for TDMA operation;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.28;29.28. Calculate the EIRP of a satellite downlink;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.29;29.29. Calculate the gain of 3 m paraboidal antenna;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.3;29.3. Determine the linear velocity of the shuttle along its orbit;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.30;29.30. Calculate the overall noise temperature of the system;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.31;29.31. Calculate the carrier to noise spectral density ratio;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.32;29.32. Calculate the earth station EIRP required for saturation assuming clear sky conditions;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.33;29.33. Calculate the effective isotropic radiated power in watts as seen by the antenna;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.34;29.34. Calculate the noise power for a BW of 36 MHz;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.35;29.35. Calculate the total link loss;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.36;29.36. Calculate the clear sky carrier to noise ratio for a satellite TV system having worst case EIRP of 51 dbw;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.37;29.37. Calculate the transmission bit rate for stop and wait system;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.38;29.38. what should be the capacity of the transmit buffer;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.39;29.39. Calculate the transmission bit rate for Selective Repeat ARQ system;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.4;29.4. A satellite is rotating in an elliptical orbit Calculate its orbital period;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.40;29.40. Calculate the noise power in transponder1 or in the inbound SCPC FDMA channels;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.41;29.41. Calculate the noise power in the hub station receiver or in inbound SCPC FDMA channel;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.42;29.42. Calculate the noise power in transponder2;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.43;29.43. Calculate the noise power in the VSAT receivers;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.44;29.44. Calculate the power received at the satellite transmitted from the VSAT uplink;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.45;29.45. Calculate the uplink inbound CN ratio in transponder1;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.46;29.46. Calculate the max number of VSAT channels that can be handled by the system;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.47;29.47. Calculate the centrifugal force for a satellite of mass 100 kg orbitting with a velocity of 8 km per s at a height of 200 km;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.48;29.48. Determine the orbital velocity of a satellite moving in a circular orbit at a height of 150 km;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.49;29.49. Determine the semi major axis of elliptical orbit;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.5;29.5. Calculate the radius of the orbit;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.50;29.50. Determine the orbital eccentricity;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.51;29.51. Determine the apogee the perigee and eccentricity;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.52;29.52. Determine the apogee and perigee distance;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.53;29.53. Determine the relationship between their orbital periods;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.54;29.54. Determine the escape velocity for an object to be launched from surface of earth;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.55;29.55. Calculate the period of a satellite in an eccentric elliptical orbit;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.56;29.56. Determine the orbital time period and the velocity at the apogee and perigee point;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.57;29.57. Determine the target eccentricity;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.58;29.58. Determine the apogee the perigee and eccentricity;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.59;29.59. Determine the orbital period;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.6;29.6. Estimate the rate of drift around the equator of the sub satellite in degree per day Is the satellite moving towards east or west;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.60;29.60. What will be the time taken by the satellite to move from A to B in the direction shown in figure;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.61;29.61. Determine the semi major axis and semi minor axis and the orbit eccentricity;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.62;29.62. Determine the orbital period of satellite2;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.63;29.63. Calculate the max deviation in latitude and also determine the max displacement in kms;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.64;29.64. Determine the magnitude of velocity impulse needed to correct the inclination of 2 degree;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.65;29.65. Determine the angle of inclination between the new orbital plane and the equatorial;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.66;29.66. Determine the theoretical max coverage angle also determine the max slant range;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.67;29.67. What would be the new max coverage angle and the slant range;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.68;29.68. Calculate the angle subtended by the arc of the satellite footprint at the center of the earth;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.69;29.69. Determine the round trip delay for an earth station;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.7;29.7. Calculate the velocity of the satellite in orbit;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.70;29.70. Determine the max shadow angle that occurs at equinoxes for a satellite orbitting in a circular equatorial orbit at a height of 13622 km above the surface of earth also determine the max daily eclipse duration;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.71;29.71. Determine the total time from the first day of eclipse to the last day also determine the same for geostationary orbit at a height of 35786 km;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.72;29.72. Calculate the incremental velocity to be given to the satellite at the apogee point by the apogee kick motor to circularize the orbit;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.73;29.73. Determine the velocity change required to circularize the orbit;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.74;29.74. Determine the max line of sight distance between two communication satellites;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.75;29.75. Determine the max line of sight distance and also for geostationary satellites;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.76;29.76. Find the round trip propagation delay;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.77;29.77. Determine the round trip propagation delay;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.78;29.78. Determine the earth station azimuth and elevation angles;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.79;29.79. Determine the max eclipse time in a day during the full eclipse period;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.8;29.8. calculate the component of velocity towards an observer at an earth station;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.80;29.80. Determine the incremental velocity required to correct the orbit inclination;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.81;29.81. Determine the earth station azimuth and elevation angles;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.82;29.82. Calculate the power gain of a paraboloid reflector antenna with a mouth dia of 10 m at 6 GHz;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.83;29.83. Determine the width in degree in the elevation direction;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.84;29.84. Determine the antenna power gain in db and also the operational frequency;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.85;29.85. Determine the antenna power gain;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.86;29.86. Determine the earth station EIRP;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.87;29.87. Determine the equivalent noise temp of the cascaded arrangement;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.88;29.88. Determine the noise figure of the cascaded arrangement;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.89;29.89. Determine the earth station system noise temp and GT ratio referred to the input of the low noise amplifier;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.9;29.9. Determine the doppler shift of the received signal at the earth station Discuss the impact of this shift on signal bandwidth;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.90;29.90. Determine the earth station system noise temp and GT ratio referred to the input of waveguide and input of down converter;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.91;29.91. Determine the first local oscillator frequency range of second oscillator frequency and frequency spectrum;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.92;29.92. Determine the first local oscillator frequency and range of second oscillator frequency and frequency spectrum and BW of BPF1 and BPF2;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.93;29.93. Determine the first local oscillator frequency range of second oscillator frequency and frequency spectrum;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.94;29.94. Determine the center frequency BW of BPF1 and range of second oscillator frequency;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.95;29.95. Find the system noise temperature and GT as referred to the input of low noise amplifier;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.96;29.96. Determine the equivalent noise temperature of the low noise amplifier;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.97;29.97. Determine the output powers of the three carriers;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.98;29.98. Determine the power loss suffered by each one of the five carriers after all have combined and appeared at the output;correct;runtime; -998;Satellite Communications(D. C. Agarwal);2518;29. Solved Problems;29.99;29.99. Find the link carrier to noise ratio;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.1;1.1. Relative Speed of Approach;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.10;1.10. Heat Equivalent of Mass;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.11;1.11. Variation of Space and Time;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.12;1.12. Mean Lifetime of a Moving Meason;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.13;1.13. Velocity of One Atomic Mass Unit;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.14;1.14. Speed of an Electron for an Equivalent Proton Mass;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.15;1.15. Speed at Total Energy Twice the Rest Mass Energy;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.16;1.16. Relative Velocity and Mass;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.17;1.17. Relativistic Variation of density with Velocity;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.18;1.18. Electrons Accelerated to Relativistic Speeds;error;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.19;1.19. Electron Speed Equivalent of Twice its Rest Mass;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.2;1.2. Relative Speed of Spaceships;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.20;1.20. Electron Speed Equivalent of Twice its Rest Mass;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.21;1.21. Fractional Speed of Electron;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.22;1.22. Effective Mass and Speed of Electron;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.23;1.23. Energy Released in Fission;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.24;1.24. Relativistic Speed Form Relativistic Mass;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.25;1.25. Decay of muon;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.26;1.26. Decay of Unstable Particle;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.3;1.3. Relativistic Length Contraction;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.5;1.5. Mass Energy Equivalence;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.6;1.6. Energy Equivalent of Mass;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.7;1.7. Relativistic Variation of Mass with Speed;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.8;1.8. Increase in Mass of Water;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2582;1. Relativity;1.9;1.9. Ratio of Rest Mass and Mass in Motion;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.1;2.1. Threshold Wavelength of Tungsten;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.10;2.10. Energy of Electrons Emitted From the Surface of Tungsten;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.11;2.11. Energy of Photon;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.12;2.12. Velocity of the Emitted Electron;error;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.13;2.13. Energy of a Quantum of Light;error;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.14;2.14. Ratio of Masses of a Proton and an Electron;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.15;2.15. First Bohr Orbit in Hydrogen Atom;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.16;2.16. Wavelength of Balmer H beta Line;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.17;2.17. First Excitation Energy of Hydrogen Atom;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.18;2.18. Energy Difference in the Emission or Absorption of Sodium D1 Line;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.19;2.19. Wavelength of First Line of Balmer Series;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.2;2.2. Maximum Velocity of Photoelectrons;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.20;2.20. Minimum Energy of the Electrons in Balmer Series;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.21;2.21. Ionization Potential of Hydrogen Atom;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.22;2.22. Wavelength of Second Number of Balmer Series of Hydrogen;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.23;2.23. Wavelength of Emitted Light;error;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.24;2.24. Radius and Speed of Electron in the First Bohr Orbit;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.25;2.25. Radius and Velocity of Electron for H and He;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.26;2.26. Difference in Wavelength in the Spectra of Hydrogen and Deuterium;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.27;2.27. Ionization Energy of Hydrogen Atom With Orbiting Muon;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.28;2.28. Photon Emitted by Hydrogen Atom;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.29;2.29. Energy Required to Create a Vacancy in Cu;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.3;2.3. Energy of Photoelectrons;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.30;2.30. Excitation Potential for Mercury;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.31;2.31. Atomic Number of Impurity in Zinc Target;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.32;2.32. Mu mesonic Atom Subjected to Bohr Orbit;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.4;2.4. Longest Wavelength of Incident Radiation;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.5;2.5. Threshold Frequency and Wavelength;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.6;2.6. Maximum Velocity of Emitted Electrons;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.7;2.7. Maximum Energy of Ejected Electrons;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.8;2.8. Maximum Kinetic Energy and Stopping Potential of Ejected Electrons;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2583;2. Quantum Mechanicsq;2.9;2.9. Work Function of Metal;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.1;3.1. Kinetic Energy of an Electron;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.10;3.10. Momentum of Proton;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.11;3.11. Wavelength of an Electron;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.12;3.12. de Broglie Wavelength of Thermal Neutrons;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.13;3.13. Kinetic Energy of a Proton;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.14;3.14. Energy of Electrons in a One Dimensional Box;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.15;3.15. Lowest Energy of Three Electrons in Box;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.16;3.16. Zero Point Energy of System;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.17;3.17. Mean Energy Per Electron at 0K;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.18;3.18. Lowest Energy of Two Electron System;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.19;3.19. Total Energy of the Three Electron System;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.2;3.2. Wavelength of Electrons;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.20;3.20. Minimum Uncertainity in the Velocity of an Electron;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.21;3.21. Uncertainity in Momentum and Kinetic Energy of the Proton;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.22;3.22. Uncertainity in the Position of an Electron;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.23;3.23. Uncertainity in the Position of a Bullet;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.24;3.24. Unertainity in the Position of an Electron;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.25;3.25. Unertainity in the Velocity of an Electron;error;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.26;3.26. Minimum Uncertainity in the Energy of the Excited State of an Atom;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.3;3.3. Momentum of Photon;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.4;3.4. Momentum of an electron;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.5;3.5. Wavelength of a Particle;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.6;3.6. Comparison of Energy of Photon and Neutron;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.7;3.7. de Broglie Wavelength of Electrons;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.8;3.8. de Broglie Wavelength of Accelerated Electrons;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2600;3. Matter Waves Wave Particle Duality and Uncertainty Principle;3.9;3.9. Wavelength of Matter Waves;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2606;4. Mechanics;4.1;4.1. Percentage Transmission of Beam Through Potential Barrier;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2606;4. Mechanics;4.2;4.2. Width of the Potential Barrier;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2606;4. Mechanics;4.3;4.3. Energy of Electrons Through the Potential Barrier;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2606;4. Mechanics;4.4;4.4. Zero Point Energy of a System;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2608;5. Atomic Physics;5.1;5.1. L S coupling for two electrons;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2608;5. Atomic Physics;5.2;5.2. Term Values for L S Coupling;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2608;5. Atomic Physics;5.4;5.4. Angle Between l and s State;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2610;6. X Rays;6.1;6.1. Wavelength of X rays;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2610;6. X Rays;6.2;6.2. Plancks constant;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2610;6. X Rays;6.3;6.3. Short Wavelength Limit;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2610;6. X Rays;6.4;6.4. Wavelength Limit of X rays;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2610;6. X Rays;6.5;6.5. Minimum Voltage of an X ray Tube;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2610;6. X Rays;6.6;6.6. Minimum Wavelength Emitted by an X ray Tube;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2610;6. X Rays;6.7;6.7. Critical Voltage for Stimualted Emission;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2612;7. Molecular Physics;7.1;7.1. Frequency of Oscillation of a Hydrogen Molecule;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2612;7. Molecular Physics;7.2;7.2. Bond Length of Carbon Monoxide;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2612;7. Molecular Physics;7.3;7.3. Intensity Ratio of J states for HCL Molecule;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2612;7. Molecular Physics;7.4;7.4. CO Molecule in Lower State;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2614;8. Raman Effect and Spectroscopic techniques;8.1;8.1. Stokes and Anti Stokes Wavelength;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2614;8. Raman Effect and Spectroscopic techniques;8.2;8.2. Wvelength of Infrared Absorption Line;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2615;9. Interaction of Charged Particles and Neutrons With Matter;9.1;9.1. Maximum Energy Transferred by Alpha Particles;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2615;9. Interaction of Charged Particles and Neutrons With Matter;9.2;9.2. Rate of Energy Loss and Range of Deuteron and Alpha Particle;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2615;9. Interaction of Charged Particles and Neutrons With Matter;9.3;9.3. Thickness of Concrete Collimator;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2615;9. Interaction of Charged Particles and Neutrons With Matter;9.4;9.4. Average Number of Collsions for Thermalization of Neutrons;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2615;9. Interaction of Charged Particles and Neutrons With Matter;9.5;9.5. Change in Voltage Across a G M Tube;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2626;10. Structure of Nuclei;10.1.1;10.1.1. Energy and Mass Equivalence of Wavelength;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2626;10. Structure of Nuclei;10.1.2;10.1.2. Binding Energy per Nucleon for Oxygen Isotopes;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2626;10. Structure of Nuclei;10.2.1;10.2.1. Range of Alpha Emitters of Uranium;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2626;10. Structure of Nuclei;10.3.1;10.3.1. Binding Energy per Nucleon of Helium;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2626;10. Structure of Nuclei;10.3.2;10.3.2. Energy Released in the Fusion of Deuterium;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2626;10. Structure of Nuclei;10.3.3;10.3.3. Mass of Deuterium Nucleus;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2626;10. Structure of Nuclei;10.3.4;10.3.4. Binding Energy per Nucleon of Ni;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2626;10. Structure of Nuclei;10.3.5;10.3.5. Energy Released during Fusion of two Deuterons;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2626;10. Structure of Nuclei;10.3.6;10.3.6. Binding Energy and Packing Fraction of Helium;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2626;10. Structure of Nuclei;10.3.7;10.3.7. Mass of Yukawa Particle;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2626;10. Structure of Nuclei;10.3.8;10.3.8. Maximum Height of the Potential Barrier for Alpha Penetration;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2616;11. Nuclear Reactions;11.1;11.1. Energy Balance of a Nuclear Reaction;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2616;11. Nuclear Reactions;11.2;11.2. Threshold Energy for the Reaction;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2616;11. Nuclear Reactions;11.3;11.3. Gamma Ray Emission;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2617;12. Nuclear Models;12.1;12.1. Rate of Consumption of U235 Per Year;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2617;12. Nuclear Models;12.10;12.10. Rate of Fission of U 235;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2617;12. Nuclear Models;12.11;12.11. Energy Released During Fission of U 235;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2617;12. Nuclear Models;12.12;12.12. Minimum Energy of Gamma Photon for Pair Production;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2617;12. Nuclear Models;12.13;12.13. Uranium Atom Undergoing Fission in a Reactor;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2617;12. Nuclear Models;12.14;12.14. Amount of Uranium Fuel Required For One Day Operation;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2617;12. Nuclear Models;12.15;12.15. Binding Energy of Fe Using Weizsaecker Formula;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2617;12. Nuclear Models;12.2;12.2. Rate of Fission of U 235;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2617;12. Nuclear Models;12.3;12.3. Binding Energy of Helium Nucleus;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2617;12. Nuclear Models;12.4;12.4. Energy Released During Fusion of Deuterium Nuclei;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2617;12. Nuclear Models;12.5;12.5. Energy Required to Break One Gram Mole of Helium;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2617;12. Nuclear Models;12.6;12.6. Energy Liberated During Production of Alpha Particles;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2617;12. Nuclear Models;12.7;12.7. Kinetic Energy of Neutrons;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2617;12. Nuclear Models;12.8;12.8. Consumption Rate of U 235;correct;runtime; -1004;Atomic And Nuclear Physics(N. Subrahmanyam, B. Lal And J. Seshan);2617;12. Nuclear Models;12.9;12.9. Minimum Disintegraton Energy of Nucleus;correct;runtime; -1016;Modern Physics(B.L.Theraja);2748;1. ELECTRIC AND MAGNETIC FIELD;1.1;1.1. CALCUALTION OF ELECTROSTATIC FORCE;correct;runtime; -1016;Modern Physics(B.L.Theraja);2748;1. ELECTRIC AND MAGNETIC FIELD;1.2;1.2. CALCUALTION OF DISTANCE OF SEPARATION;correct;runtime; -1016;Modern Physics(B.L.Theraja);2748;1. ELECTRIC AND MAGNETIC FIELD;1.3;1.3. CALCULATE FIELD INTENSITY AND FORCE;correct;runtime; -1016;Modern Physics(B.L.Theraja);2748;1. ELECTRIC AND MAGNETIC FIELD;1.4;1.4. CALCULATE MASS OF OIL DROP;correct;runtime; -1016;Modern Physics(B.L.Theraja);2748;1. ELECTRIC AND MAGNETIC FIELD;1.5;1.5. CALCULATE VELOCITY OF ELECTRON;correct;runtime; -1016;Modern Physics(B.L.Theraja);2748;1. ELECTRIC AND MAGNETIC FIELD;1.6;1.6. CALCULATE ENERGY;correct;runtime; -1016;Modern Physics(B.L.Theraja);2748;1. ELECTRIC AND MAGNETIC FIELD;1.7;1.7. CALCULATE TOTAL ENERGY;correct;runtime; -1016;Modern Physics(B.L.Theraja);2748;1. ELECTRIC AND MAGNETIC FIELD;1.8;1.8. CALCULATE FORCE AND RADIUS;correct;runtime; -1016;Modern Physics(B.L.Theraja);2749;2. THE ELECTRON;2.1;2.1. CALCULATE FORCE ACCELERATION AND KINETIC ENERGY;correct;runtime; -1016;Modern Physics(B.L.Theraja);2749;2. THE ELECTRON;2.2;2.2. CALCULATE LINEAR VELOCITY AND RADIUS;correct;runtime; -1016;Modern Physics(B.L.Theraja);2749;2. THE ELECTRON;2.3;2.3. CALCULATE MASS;correct;runtime; -1016;Modern Physics(B.L.Theraja);2749;2. THE ELECTRON;2.4;2.4. CALCULATE RADIUS AND CHARGE ON OIL DROP;correct;runtime; -1016;Modern Physics(B.L.Theraja);2750;3. THE ATOMIC STRUCTURE;3.1;3.1. CALCULATE DISTANCE OF CLOSEST APPROACH;correct;runtime; -1016;Modern Physics(B.L.Theraja);2750;3. THE ATOMIC STRUCTURE;3.2;3.2. CALCULATE VELOCITY RADIUS TIME TAKEN AND RYDBERG CONST;correct;runtime; -1016;Modern Physics(B.L.Theraja);2750;3. THE ATOMIC STRUCTURE;3.3;3.3. CALCULATE FREQUENCY;correct;runtime; -1016;Modern Physics(B.L.Theraja);2750;3. THE ATOMIC STRUCTURE;3.4;3.4. CALCULATE FREQUENCY IN FIRST ORBIT;correct;runtime; -1016;Modern Physics(B.L.Theraja);2750;3. THE ATOMIC STRUCTURE;3.5;3.5. AT WHAT SPEED MUST ELECTRON;correct;runtime; -1016;Modern Physics(B.L.Theraja);2750;3. THE ATOMIC STRUCTURE;3.8;3.8. CALCULATE PRINCIPAL QUANTUM NO AND WAVELENGTH;correct;runtime; -1016;Modern Physics(B.L.Theraja);2750;3. THE ATOMIC STRUCTURE;3.9;3.9. CALCULATE WAVELENGTH FOR LYMAN SERIES;correct;runtime; -1016;Modern Physics(B.L.Theraja);2751;4. CRYSTALLOGRAPHY;4.10;4.10. CALCULATION OF INTERPLANAR SPACING;correct;runtime; -1016;Modern Physics(B.L.Theraja);2751;4. CRYSTALLOGRAPHY;4.11;4.11. CALCULATION OF ANGLE BETWEEN PAIR OF PLANES;correct;runtime; -1016;Modern Physics(B.L.Theraja);2751;4. CRYSTALLOGRAPHY;4.13;4.13. CALCUALTION OF NO OF ATOMS PER SQMM;correct;runtime; -1016;Modern Physics(B.L.Theraja);2751;4. CRYSTALLOGRAPHY;4.2;4.2. CALCULATE DISTANCE BETWEEN ADJACENT ATOMS;correct;runtime; -1016;Modern Physics(B.L.Theraja);2751;4. CRYSTALLOGRAPHY;4.3;4.3. CALCULATE SPACING;correct;runtime; -1016;Modern Physics(B.L.Theraja);2751;4. CRYSTALLOGRAPHY;4.4;4.4. CALCULATE DENSITY OF Cu;correct;runtime; -1016;Modern Physics(B.L.Theraja);2752;5. QUANTUM THEORY;5.1;5.1. CALCULATE ENERGY;correct;runtime; -1016;Modern Physics(B.L.Theraja);2752;5. QUANTUM THEORY;5.10;5.10. CALCULATE MAXIMUM ENERGY AND WORK FUNCTION;correct;runtime; -1016;Modern Physics(B.L.Theraja);2752;5. QUANTUM THEORY;5.11;5.11. WHAT IS THRESHOLD WAVELENGTH;correct;runtime; -1016;Modern Physics(B.L.Theraja);2752;5. QUANTUM THEORY;5.12;5.12. CALCULATE THRESHOLD FREQUENCY;correct;runtime; -1016;Modern Physics(B.L.Theraja);2752;5. QUANTUM THEORY;5.13;5.13. WHEN VIOLET LIGHT;correct;runtime; -1016;Modern Physics(B.L.Theraja);2752;5. QUANTUM THEORY;5.14;5.14. CALCULATE THRESHOLD WAVELENGTH AND PLANKS CONSTANT;correct;runtime; -1016;Modern Physics(B.L.Theraja);2752;5. QUANTUM THEORY;5.15;5.15. A CERTAIN METAL;correct;runtime; -1016;Modern Physics(B.L.Theraja);2752;5. QUANTUM THEORY;5.16;5.16. FIND UNKNOWN WAVELENGTH;correct;runtime; -1016;Modern Physics(B.L.Theraja);2752;5. QUANTUM THEORY;5.17;5.17. LIGHT OF WAVELENGTH 2000 ANGSTROM;correct;runtime; -1016;Modern Physics(B.L.Theraja);2752;5. QUANTUM THEORY;5.18;5.18. CALCULATE PLANKS CONSTANT;correct;runtime; -1016;Modern Physics(B.L.Theraja);2752;5. QUANTUM THEORY;5.2;5.2. HOW MANY PHOTONS;correct;runtime; -1016;Modern Physics(B.L.Theraja);2752;5. QUANTUM THEORY;5.3;5.3. HOW MANY LIGHT QUANTA;correct;runtime; -1016;Modern Physics(B.L.Theraja);2752;5. QUANTUM THEORY;5.4;5.4. FIND THE NO OF PHOTOELECTRONS;correct;runtime; -1016;Modern Physics(B.L.Theraja);2752;5. QUANTUM THEORY;5.5;5.5. HOW MANY PHOTONS AND AT WHAT RATE;correct;runtime; -1016;Modern Physics(B.L.Theraja);2752;5. QUANTUM THEORY;5.6;5.6. HOW MANY PHOTONS EMITTED BY LAMP;correct;runtime; -1016;Modern Physics(B.L.Theraja);2752;5. QUANTUM THEORY;5.7;5.7. CALCULATE NUMBER OF PHOTONS;correct;runtime; -1016;Modern Physics(B.L.Theraja);2752;5. QUANTUM THEORY;5.8;5.8. WITH WHAT VELOCITY;correct;runtime; -1016;Modern Physics(B.L.Theraja);2752;5. QUANTUM THEORY;5.9;5.9. CALCULATE THRESHOLD FREQUENCY;correct;runtime; -1016;Modern Physics(B.L.Theraja);2753;7. CLASSIFICATION OF SOLIDS;7.1;7.1. CALCULATE ENERGY GAP;correct;runtime; -1016;Modern Physics(B.L.Theraja);2753;7. CLASSIFICATION OF SOLIDS;7.2;7.2. FIND MOBILITY OF ELECTRONS;correct;runtime; -1016;Modern Physics(B.L.Theraja);2753;7. CLASSIFICATION OF SOLIDS;7.3;7.3. FIND RESISTIVITY;correct;runtime; -1016;Modern Physics(B.L.Theraja);2753;7. CLASSIFICATION OF SOLIDS;7.4;7.4. CALCULATE WAVELENGTH;correct;runtime; -1016;Modern Physics(B.L.Theraja);2754;8. X RAYS;8.1;8.1. CALCULATE WAVELENGTH;correct;runtime; -1016;Modern Physics(B.L.Theraja);2754;8. X RAYS;8.10;8.10. CALCULATE ANGLE OF THIRD ORDER REFLECTION NOTE CALCUALTION MISTAKE IN BOOK;correct;runtime; -1016;Modern Physics(B.L.Theraja);2754;8. X RAYS;8.11;8.11. HOW MANY ORDERS OF BRAGG RELFLECTION;correct;runtime; -1016;Modern Physics(B.L.Theraja);2754;8. X RAYS;8.12;8.12. CALCULATE INTERPLANAR SPACING;correct;runtime; -1016;Modern Physics(B.L.Theraja);2754;8. X RAYS;8.13;8.13. DETERMINE THE SPACING;correct;runtime; -1016;Modern Physics(B.L.Theraja);2754;8. X RAYS;8.14;8.14. DETERMINE THE TYPE OF CRYSTAL POSSESED;correct;runtime; -1016;Modern Physics(B.L.Theraja);2754;8. X RAYS;8.15;8.15. CALCULATE SHORT WAVELENGTH AND GALNCING ANGLE;correct;runtime; -1016;Modern Physics(B.L.Theraja);2754;8. X RAYS;8.16;8.16. CALCULATE LATTICE SPACING OF NaCl;correct;runtime; -1016;Modern Physics(B.L.Theraja);2754;8. X RAYS;8.17;8.17. WHAT IS PRIMARY WAVELENGTH;correct;runtime; -1016;Modern Physics(B.L.Theraja);2754;8. X RAYS;8.18;8.18. WHAT IS LATTICE PARAMETER;correct;runtime; -1016;Modern Physics(B.L.Theraja);2754;8. X RAYS;8.2;8.2. CALCULATE NUMBER OF ELECTRONS STRIKING PER SECOND;correct;runtime; -1016;Modern Physics(B.L.Theraja);2754;8. X RAYS;8.3;8.3. CALCULATE MIN APPLIED POTENTIAL;correct;runtime; -1016;Modern Physics(B.L.Theraja);2754;8. X RAYS;8.4;8.4. CALCULATE MAX SPEED;correct;runtime; -1016;Modern Physics(B.L.Theraja);2754;8. X RAYS;8.5;8.5. CALCULATE PLANKS CONSTANT;correct;runtime; -1016;Modern Physics(B.L.Theraja);2754;8. X RAYS;8.6;8.6. CALCULATE SCREENING CONST;correct;runtime; -1016;Modern Physics(B.L.Theraja);2754;8. X RAYS;8.9;8.9. CALCULATE LINEAR ADSORPTION COEFF;correct;runtime; -1016;Modern Physics(B.L.Theraja);2755;9. WAVES AND PARTICLES;9.1;9.1. WHAT IS DE BROGLIE WAVELENGTH;correct;runtime; -1016;Modern Physics(B.L.Theraja);2755;9. WAVES AND PARTICLES;9.2;9.2. CALCULATE MOMENTUM DE BROGLIE WAVELENGTH AND WAVE NUMBER;correct;runtime; -1016;Modern Physics(B.L.Theraja);2755;9. WAVES AND PARTICLES;9.3;9.3. AN ELECTRON INTIALLY AT REST;correct;runtime; -1016;Modern Physics(B.L.Theraja);2755;9. WAVES AND PARTICLES;9.4;9.4. COMPUTE DE BROGLIE WAVELENGTH;correct;runtime; -1016;Modern Physics(B.L.Theraja);2755;9. WAVES AND PARTICLES;9.5;9.5. WHAT IS DE BROGLIE WAVELENGTH OF NEUTRON;correct;runtime; -1016;Modern Physics(B.L.Theraja);2755;9. WAVES AND PARTICLES;9.6;9.6. CALCULATE THE SCATTERED WAVELENGTH;correct;runtime; -1016;Modern Physics(B.L.Theraja);2755;9. WAVES AND PARTICLES;9.7;9.7. COMPUTE ENERGY DIFFERENCE;correct;runtime; -1016;Modern Physics(B.L.Theraja);2755;9. WAVES AND PARTICLES;9.8;9.8. CALCULATE THE LOWEST THREE PREMISSIBLE ENERGIES;correct;runtime; -1016;Modern Physics(B.L.Theraja);2756;10. THE ATOMIC NUCLEUS;10.1;10.1. COMPARE DENSITIES OF WATER AND NUCLEUS;correct;runtime; -1016;Modern Physics(B.L.Theraja);2756;10. THE ATOMIC NUCLEUS;10.2;10.2. CALCULATE ENERGY EQUIVALENCE FOR MeV;correct;runtime; -1016;Modern Physics(B.L.Theraja);2756;10. THE ATOMIC NUCLEUS;10.3;10.3. CALCULATE ENERGY EQUIVALENCE FOR kWh;correct;runtime; -1016;Modern Physics(B.L.Theraja);2756;10. THE ATOMIC NUCLEUS;10.4;10.4. CALCULATE BINDING ENERGY;correct;runtime; -1016;Modern Physics(B.L.Theraja);2756;10. THE ATOMIC NUCLEUS;10.5;10.5. CALCULATE BINDING ENERGY OF 17Cl35;correct;runtime; -1016;Modern Physics(B.L.Theraja);2756;10. THE ATOMIC NUCLEUS;10.6;10.6. CALCULATE BINDING ENERGY FOR LITHIUM NUCLEUS;correct;runtime; -1016;Modern Physics(B.L.Theraja);2757;11. NATURAL RADIOACTIVTIY;11.1;11.1. CALCUALTE HOW MUCH RADIUM;correct;runtime; -1016;Modern Physics(B.L.Theraja);2757;11. NATURAL RADIOACTIVTIY;11.2;11.2. CALCULATE RADIOACTIVE DISINTEGRATING CONST;correct;runtime; -1016;Modern Physics(B.L.Theraja);2757;11. NATURAL RADIOACTIVTIY;11.3;11.3. COMPUTE DECAY CONST AND HALF LIFE;correct;runtime; -1016;Modern Physics(B.L.Theraja);2757;11. NATURAL RADIOACTIVTIY;11.4;11.4. ESTIMATE HALF LIFE OF PLUTONIUM;correct;runtime; -1016;Modern Physics(B.L.Theraja);2757;11. NATURAL RADIOACTIVTIY;11.5;11.5. CALCULATE ACTIVITY;correct;runtime; -1016;Modern Physics(B.L.Theraja);2757;11. NATURAL RADIOACTIVTIY;11.6;11.6. HALF LIFE OF RADIUM IS 1620 YRS;correct;runtime; -1016;Modern Physics(B.L.Theraja);2758;12. ARTIFICAL RADIOACTIVTIY;12.1;12.1. ESTIMATE ITS AGE;correct;runtime; -1016;Modern Physics(B.L.Theraja);2759;13. NUCLEAR REACTIONS;13.1;13.1. CALCULATE THE ENERGY AVAILABLE;correct;runtime; -1016;Modern Physics(B.L.Theraja);2759;13. NUCLEAR REACTIONS;13.2;13.2. CALCULATE THE ENERGY RELEASED;correct;runtime; -1016;Modern Physics(B.L.Theraja);2759;13. NUCLEAR REACTIONS;13.3;13.3. WHAT IS THE Q VALUE OF THE REACTION;correct;runtime; -1016;Modern Physics(B.L.Theraja);2759;13. NUCLEAR REACTIONS;13.4;13.4. FIND THE MASS;correct;runtime; -1016;Modern Physics(B.L.Theraja);2759;13. NUCLEAR REACTIONS;13.6;13.6. EXPLAIN MASS DEFECT;correct;runtime; -1016;Modern Physics(B.L.Theraja);2760;14. NUCLEUR FISSION AND FUSION;14.1;14.1. COMPUTE FISSION ENERGY;correct;runtime; -1016;Modern Physics(B.L.Theraja);2760;14. NUCLEUR FISSION AND FUSION;14.2;14.2. FIND ELEMENTARY PARTICLES RELEASED IN BINARY FISSION OF 92U235;correct;runtime; -1016;Modern Physics(B.L.Theraja);2760;14. NUCLEUR FISSION AND FUSION;14.3;14.3. HOW MUCH HYDROGEN MUST BE CONVERTED INTO HELIUM;correct;runtime; -1016;Modern Physics(B.L.Theraja);2760;14. NUCLEUR FISSION AND FUSION;14.4;14.4. CALCULATE THE ENERGY LIBERATED;correct;runtime; -1016;Modern Physics(B.L.Theraja);2761;15. NUCLEUR ENERGY SOURCES;15.1;15.1. CALCULATE THE MAXIMUM FRACTION OF THE KE;correct;runtime; -1016;Modern Physics(B.L.Theraja);2761;15. NUCLEUR ENERGY SOURCES;15.2;15.2. CALCULATE THE FISSION RATE;correct;runtime; -1016;Modern Physics(B.L.Theraja);2761;15. NUCLEUR ENERGY SOURCES;15.3;15.3. HOW MANY KG OF U 235;correct;runtime; -1016;Modern Physics(B.L.Theraja);2761;15. NUCLEUR ENERGY SOURCES;15.4;15.4. HOW MUCH U 235 WOULD BE CONSUMED IN THE RUN;correct;runtime; -1016;Modern Physics(B.L.Theraja);2761;15. NUCLEUR ENERGY SOURCES;15.5;15.5. NUCLEUR REACTOR PRODUCES 200MW;correct;runtime; -1016;Modern Physics(B.L.Theraja);2761;15. NUCLEUR ENERGY SOURCES;15.6;15.6. A CITY REQUIRES 100 MW;correct;runtime; -1016;Modern Physics(B.L.Theraja);2761;15. NUCLEUR ENERGY SOURCES;15.7;15.7. BOMBAY REQUIRES 300 MWh;correct;runtime; -1016;Modern Physics(B.L.Theraja);2761;15. NUCLEUR ENERGY SOURCES;15.8;15.8. THE MOTOR OF AN ATOMIC ICE BREAKER;correct;runtime; -1016;Modern Physics(B.L.Theraja);2762;16. PARTICLE ACCELERATORS;16.1;16.1. WHAT MUST BE THE FLUX DENSITY;correct;runtime; -1016;Modern Physics(B.L.Theraja);2762;16. PARTICLE ACCELERATORS;16.2;16.2. WHAT IS FREQUENCY OF ALTERNATING POTENTIAL;correct;runtime; -1016;Modern Physics(B.L.Theraja);2762;16. PARTICLE ACCELERATORS;16.3;16.3. A CYCLOTRON OF DEES OF RADIUS 2 METERES;correct;runtime; -1016;Modern Physics(B.L.Theraja);2762;16. PARTICLE ACCELERATORS;16.4;16.4. CALCULATE THE RATIO;correct;runtime; -1016;Modern Physics(B.L.Theraja);2762;16. PARTICLE ACCELERATORS;16.5;16.5. IN A CERTAIN BETATRON;correct;runtime; -1016;Modern Physics(B.L.Theraja);2762;16. PARTICLE ACCELERATORS;16.6;16.6. CALCULATE MASS AND VELOCITY OF ELCTRONS;correct;runtime; -1016;Modern Physics(B.L.Theraja);2762;16. PARTICLE ACCELERATORS;16.7;16.7. DETERMINE THE FREQUENCY OF GENERATOR;correct;runtime; -1016;Modern Physics(B.L.Theraja);2762;16. PARTICLE ACCELERATORS;16.8;16.8. WHAT WOULD BE THE ENERGY OF ELECTRON;correct;runtime; -1016;Modern Physics(B.L.Theraja);2762;16. PARTICLE ACCELERATORS;16.9;16.9. FIND THE MAX ENERGY AND CORRESPONDING WAVELENGTH;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.1;2.1. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.10;2.10. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.11;2.11. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.12;2.12. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.13;2.13. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.14;2.14. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.15;2.15. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.16;2.16. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.17;2.17. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.18;2.18. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.19;2.19. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.2;2.2. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.20;2.20. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.21;2.21. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.22;2.22. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.3;2.3. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.4;2.4. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.5;2.5. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.6;2.6. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.7;2.7. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.8;2.8. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3230;2. The first law of Thermodynamics;2.9;2.9. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.1;3.1. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.10;3.10. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.11;3.11. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.12;3.12. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.13;3.13. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.14;3.14. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.15;3.15. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.16;3.16. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.17;3.17. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.18;3.18. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.19;3.19. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.2;3.2. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.21;3.21. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.23;3.23. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.25;3.25. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.26;3.26. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.27;3.27. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.3;3.3. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.4;3.4. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.5;3.5. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.6;3.6. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.7;3.7. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2629;3. Thermochemistry;3.9;3.9. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3233;4. The second law of Thermodynamics;4.10;4.10. Numerical;error;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3233;4. The second law of Thermodynamics;4.11;4.11. Numerical;error;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3233;4. The second law of Thermodynamics;4.13;4.13. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3233;4. The second law of Thermodynamics;4.14;4.14. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3233;4. The second law of Thermodynamics;4.15;4.15. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3233;4. The second law of Thermodynamics;4.17;4.17. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3233;4. The second law of Thermodynamics;4.18;4.18. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3233;4. The second law of Thermodynamics;4.19;4.19. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3233;4. The second law of Thermodynamics;4.20;4.20. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3233;4. The second law of Thermodynamics;4.3;4.3. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3233;4. The second law of Thermodynamics;4.4;4.4. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3233;4. The second law of Thermodynamics;4.5;4.5. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3233;4. The second law of Thermodynamics;4.6;4.6. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3233;4. The second law of Thermodynamics;4.7;4.7. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3233;4. The second law of Thermodynamics;4.9;4.9. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.1;5.1. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.10;5.10. Numerical;error;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.11;5.11. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.12;5.12. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.13;5.13. Numerical;error;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.14;5.14. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.16;5.16. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.17;5.17. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.18;5.18. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.19;5.19. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.2;5.2. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.20;5.20. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.21;5.21. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.22;5.22. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.23;5.23. Numerical;error;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.24;5.24. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.25;5.25. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.3;5.3. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.4;5.4. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.5;5.5. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.6;5.6. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.7;5.7. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3234;5. Free Energy Functions;5.9;5.9. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3232;6. Statistical Thermodynamics;6.1;6.1. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3232;6. Statistical Thermodynamics;6.10;6.10. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3232;6. Statistical Thermodynamics;6.12;6.12. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3232;6. Statistical Thermodynamics;6.13;6.13. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3232;6. Statistical Thermodynamics;6.14;6.14. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3232;6. Statistical Thermodynamics;6.15;6.15. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3232;6. Statistical Thermodynamics;6.2;6.2. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3232;6. Statistical Thermodynamics;6.3;6.3. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3232;6. Statistical Thermodynamics;6.4;6.4. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3232;6. Statistical Thermodynamics;6.5;6.5. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3232;6. Statistical Thermodynamics;6.6;6.6. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3232;6. Statistical Thermodynamics;6.7;6.7. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3232;6. Statistical Thermodynamics;6.8;6.8. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.1;7.1. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.10;7.10. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.11;7.11. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.12;7.12. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.13;7.13. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.14;7.14. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.15;7.15. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.16;7.16. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.17;7.17. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.19;7.19. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.2;7.2. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.20;7.20. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.21;7.21. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.22;7.22. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.23;7.23. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.24;7.24. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.25;7.25. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.26;7.26. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.27;7.27. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.28;7.28. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.30;7.30. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.32;7.32. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.4;7.4. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.6;7.6. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.7;7.7. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.8;7.8. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);3231;7. System of variable composition;7.9;7.9. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.1;8.1. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.10;8.10. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.12;8.12. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.13;8.13. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.15;8.15. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.16;8.16. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.18;8.18. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.19;8.19. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.2;8.2. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.20;8.20. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.22;8.22. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.23;8.23. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.27;8.27. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.28;8.28. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.3;8.3. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.32;8.32. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.4;8.4. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.5;8.5. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.6;8.6. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.7;8.7. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.8;8.8. Numerical;correct;runtime; -1019;An Introduction To Chemical Thermodynamics(R. P. Rastogi And R. R. Misra);2630;8. Chemical Equilibria;8.9;8.9. Numerical;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2731;1. Thermodynamic Definitions and Concepts;1.1;1.1. Chapter 1 example 1;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2731;1. Thermodynamic Definitions and Concepts;1.2;1.2. Chapter 1 example 2;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2731;1. Thermodynamic Definitions and Concepts;1.3;1.3. Chapter 1 example 3;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2732;2. Units and Dimensions;2.1a;2.1a. Chapter 2 example 1a;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2732;2. Units and Dimensions;2.1b;2.1b. chapter 2 example 1b;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2732;2. Units and Dimensions;2.2;2.2. chapter 2 example 2;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2732;2. Units and Dimensions;2.3;2.3. chapter 2 example 3;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2733;3. Tem;3.1;3.1. Chapter 3 example 1;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2733;3. Tem;3.2;3.2. chapter 3 example 2;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2733;3. Tem;3.3;3.3. chapter 3 example 3;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2733;3. Tem;3.4;3.4. chapter 3 example 4;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2734;4. viscosity;4.1;4.1. Chapter 4 example 1;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2734;4. viscosity;4.2;4.2. chapter 4 example 2;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2734;4. viscosity;4.3;4.3. chapter 4 example 3;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2734;4. viscosity;4.4;4.4. chapter 4 example 4;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2734;4. viscosity;4.5;4.5. chapter 4 example 5;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2735;5. Surface Tension;5.1;5.1. Chapter 5 example 1;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2735;5. Surface Tension;5.2;5.2. chapter 5 example 2;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2735;5. Surface Tension;5.3;5.3. chapter 5 example 3;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2736;6. work and heat;6.1;6.1. Chapter 6 example 1;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2736;6. work and heat;6.2;6.2. chapter 6 example 2;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2736;6. work and heat;6.3;6.3. chapter 6 example 3;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2736;6. work and heat;6.4;6.4. chapter 6 example 4;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2736;6. work and heat;6.5;6.5. chapter 6 example 5;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2736;6. work and heat;6.6;6.6. chapter 6 example 6;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2737;7. First Law of Thermodynamics;7.1;7.1. Chapter 7 example 1;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2737;7. First Law of Thermodynamics;7.2;7.2. chapter 7 example 2;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2737;7. First Law of Thermodynamics;7.3;7.3. chapter 7 example 3;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2737;7. First Law of Thermodynamics;7.4;7.4. chapter 7 example 4;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2737;7. First Law of Thermodynamics;7.5;7.5. chapter 7 example 5;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2737;7. First Law of Thermodynamics;7.6;7.6. Chapter 7 example 6;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2738;8. Second Law of Thermodynamics;8.1;8.1. Chapter 8 example 1;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2738;8. Second Law of Thermodynamics;8.2;8.2. chapter 8 example 2;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2738;8. Second Law of Thermodynamics;8.3;8.3. chapter 8 example 3;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2738;8. Second Law of Thermodynamics;8.4;8.4. chapter 8 example 4;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2739;9. Gas Properties and Processes;9.1;9.1. Chapter 9 example 1;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2739;9. Gas Properties and Processes;9.2;9.2. chapter 9 example 2;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2739;9. Gas Properties and Processes;9.3;9.3. chapter 9 example 3;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2739;9. Gas Properties and Processes;9.4;9.4. chapter 9 example 4;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2739;9. Gas Properties and Processes;9.5;9.5. chapter 9 example 5;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2739;9. Gas Properties and Processes;9.6;9.6. chapter 9 example 6;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2740;10. Combustion Processes;10.1;10.1. Chapter 10 example 1;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2740;10. Combustion Processes;10.2;10.2. chapter 10 example 2;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2740;10. Combustion Processes;10.3;10.3. chapter 10 example 3;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2740;10. Combustion Processes;10.4;10.4. chapter 10 example 4;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2740;10. Combustion Processes;10.5;10.5. chapter 10 example 5;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2741;11. Conduction Heat Transfer;11.1;11.1. Chapter 11 example 1;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2741;11. Conduction Heat Transfer;11.2;11.2. chapter 11 example 2;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2741;11. Conduction Heat Transfer;11.3;11.3. chapter 11 example 3;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2741;11. Conduction Heat Transfer;11.4;11.4. chapter 11 example 4;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2741;11. Conduction Heat Transfer;11.5;11.5. chapter 11 example 5;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2741;11. Conduction Heat Transfer;11.6;11.6. chapter 11 example 6;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2741;11. Conduction Heat Transfer;11.7;11.7. chapter 11 example 7;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2742;12. Convection Heat Transfer1;12.1;12.1. Chapter 12 example 1;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2742;12. Convection Heat Transfer1;12.2;12.2. chapter 12 example 2;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2742;12. Convection Heat Transfer1;12.3;12.3. chapter 12 example 3;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2742;12. Convection Heat Transfer1;12.4;12.4. chapter 12 example 4;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2743;13. Boiling Heat Transfer;13.1;13.1. Chapter 13 example 1;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2743;13. Boiling Heat Transfer;13.2;13.2. chapter 13 example 2;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2744;14. Radiation Heat Transfer;14.2;14.2. Chapter 14 example 2;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2744;14. Radiation Heat Transfer;14.3;14.3. chapter 14 example 3;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2744;14. Radiation Heat Transfer;14.4;14.4. chapter 14 example 4;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2744;14. Radiation Heat Transfer;14.5;14.5. chapter 14 example 5;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2744;14. Radiation Heat Transfer;14.6;14.6. chapter 14 example 6;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2744;14. Radiation Heat Transfer;14.7;14.7. chapter 14 example 7;error;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2745;15. Refrigeration and Air Conditioning;15.1;15.1. Chapter 15 example 1;correct;runtime; -1022;Elements Of Thermal Technology(J. H. Seely);2745;15. Refrigeration and Air Conditioning;15.2;15.2. chapter 15 example 2;correct;runtime; -1026;Engineering Physics(U. Mukherji);3262;1. Crystallography And Crystal Imperfection;1.1;1.1. density of metal;correct;runtime; -1026;Engineering Physics(U. Mukherji);3262;1. Crystallography And Crystal Imperfection;1.2;1.2. find intercepts along crystal axis;correct;runtime; -1026;Engineering Physics(U. Mukherji);3261;2. Thermoelectricity;2.1;2.1. find out inversion temperature;correct;runtime; -1026;Engineering Physics(U. Mukherji);3261;2. Thermoelectricity;2.2;2.2. thermo emf of thermocouple;correct;runtime; -1026;Engineering Physics(U. Mukherji);3261;2. Thermoelectricity;2.3;2.3. emf of thermocouple;correct;runtime; -1026;Engineering Physics(U. Mukherji);3236;3. Thermionic Emission;3.1;3.1. Richardson Dushman Equation;correct;runtime; -1026;Engineering Physics(U. Mukherji);3236;3. Thermionic Emission;3.2;3.2. calculate plate voltage ;correct;runtime; -1026;Engineering Physics(U. Mukherji);3235;4. Ultrasonic;4.1;4.1. find distance between two ships;correct;runtime; -1026;Engineering Physics(U. Mukherji);3235;4. Ultrasonic;4.2;4.2. calculate depth of sea;correct;runtime; -1026;Engineering Physics(U. Mukherji);3235;4. Ultrasonic;4.3;4.3. calculate natural frequency;correct;runtime; -1026;Engineering Physics(U. Mukherji);3216;5. Acoustics;5.1;5.1. find absorption coefficient ;correct;runtime; -1026;Engineering Physics(U. Mukherji);3216;5. Acoustics;5.2;5.2. find area of wall covered by curtain;correct;runtime; -1026;Engineering Physics(U. Mukherji);3216;5. Acoustics;5.3;5.3. find reverberation time;correct;runtime; -1026;Engineering Physics(U. Mukherji);3215;6. Semiconductors;6.1;6.1. final velocity of electron;correct;runtime; -1026;Engineering Physics(U. Mukherji);3215;6. Semiconductors;6.10;6.10. Hall Effect;correct;runtime; -1026;Engineering Physics(U. Mukherji);3215;6. Semiconductors;6.11;6.11. effect of external impurity;correct;runtime; -1026;Engineering Physics(U. Mukherji);3215;6. Semiconductors;6.12;6.12. probability of electron in CB;correct;runtime; -1026;Engineering Physics(U. Mukherji);3215;6. Semiconductors;6.13;6.13. Hall Effect;correct;runtime; -1026;Engineering Physics(U. Mukherji);3215;6. Semiconductors;6.14;6.14. find forward bias current flow;correct;runtime; -1026;Engineering Physics(U. Mukherji);3215;6. Semiconductors;6.15;6.15. find static and dynamic resistance;correct;runtime; -1026;Engineering Physics(U. Mukherji);3215;6. Semiconductors;6.16;6.16. find alpha and beta;correct;runtime; -1026;Engineering Physics(U. Mukherji);3215;6. Semiconductors;6.17;6.17. find leakage current Iceo;correct;runtime; -1026;Engineering Physics(U. Mukherji);3215;6. Semiconductors;6.18;6.18. find alpha and beta;correct;runtime; -1026;Engineering Physics(U. Mukherji);3215;6. Semiconductors;6.19;6.19. find current gain;correct;runtime; -1026;Engineering Physics(U. Mukherji);3215;6. Semiconductors;6.2;6.2. find electric field ;correct;runtime; -1026;Engineering Physics(U. Mukherji);3215;6. Semiconductors;6.20;6.20. find base current;correct;runtime; -1026;Engineering Physics(U. Mukherji);3215;6. Semiconductors;6.3;6.3. electric field intensity for silver;correct;runtime; -1026;Engineering Physics(U. Mukherji);3215;6. Semiconductors;6.4;6.4. find current density current and power out;correct;runtime; -1026;Engineering Physics(U. Mukherji);3215;6. Semiconductors;6.5;6.5. conductivity due to holes and electrons;correct;runtime; -1026;Engineering Physics(U. Mukherji);3215;6. Semiconductors;6.6;6.6. calculate current due to Ge plate;correct;runtime; -1026;Engineering Physics(U. Mukherji);3215;6. Semiconductors;6.7;6.7. find intrinsic carrier density;correct;runtime; -1026;Engineering Physics(U. Mukherji);3215;6. Semiconductors;6.8;6.8. Hall Effect;correct;runtime; -1026;Engineering Physics(U. Mukherji);3215;6. Semiconductors;6.9;6.9. concentration of holes in Si;correct;runtime; -1026;Engineering Physics(U. Mukherji);3137;8. Interference Diffraction And Polarisation;8.1;8.1. distance of fringe from wedge;correct;runtime; -1026;Engineering Physics(U. Mukherji);3137;8. Interference Diffraction And Polarisation;8.10;8.10. calculate change in thickness;correct;runtime; -1026;Engineering Physics(U. Mukherji);3137;8. Interference Diffraction And Polarisation;8.11;8.11. calculate min thickness of glass plate;correct;runtime; -1026;Engineering Physics(U. Mukherji);3137;8. Interference Diffraction And Polarisation;8.12;8.12. position of brightest and darkest spot;correct;runtime; -1026;Engineering Physics(U. Mukherji);3137;8. Interference Diffraction And Polarisation;8.13;8.13. zone plate for point source;correct;runtime; -1026;Engineering Physics(U. Mukherji);3137;8. Interference Diffraction And Polarisation;8.14;8.14. wavelength of spectral line;correct;runtime; -1026;Engineering Physics(U. Mukherji);3137;8. Interference Diffraction And Polarisation;8.15;8.15. max orders visible;correct;runtime; -1026;Engineering Physics(U. Mukherji);3137;8. Interference Diffraction And Polarisation;8.16;8.16. linear separation of Na lines;error;runtime; -1026;Engineering Physics(U. Mukherji);3137;8. Interference Diffraction And Polarisation;8.17;8.17. linear separation of spectra lines;error;runtime; -1026;Engineering Physics(U. Mukherji);3137;8. Interference Diffraction And Polarisation;8.18;8.18. calculate lines per cm in grating;correct;runtime; -1026;Engineering Physics(U. Mukherji);3137;8. Interference Diffraction And Polarisation;8.2;8.2. light reflected in visible spectrum;correct;runtime; -1026;Engineering Physics(U. Mukherji);3137;8. Interference Diffraction And Polarisation;8.3;8.3. radius of 50th dark ring;correct;runtime; -1026;Engineering Physics(U. Mukherji);3137;8. Interference Diffraction And Polarisation;8.4;8.4. thickness of film;error;runtime; -1026;Engineering Physics(U. Mukherji);3137;8. Interference Diffraction And Polarisation;8.5;8.5. find RI of oil;correct;runtime; -1026;Engineering Physics(U. Mukherji);3137;8. Interference Diffraction And Polarisation;8.6;8.6. change in film thickness;correct;runtime; -1026;Engineering Physics(U. Mukherji);3137;8. Interference Diffraction And Polarisation;8.7;8.7. thickness of layer;correct;runtime; -1026;Engineering Physics(U. Mukherji);3137;8. Interference Diffraction And Polarisation;8.8;8.8. calculate RI of liquid;correct;runtime; -1026;Engineering Physics(U. Mukherji);3137;8. Interference Diffraction And Polarisation;8.9;8.9. calculate wavelength of light;correct;runtime; -1026;Engineering Physics(U. Mukherji);3120;9. X Rays;9.1;9.1. highest order of reflection;correct;runtime; -1026;Engineering Physics(U. Mukherji);3120;9. X Rays;9.2;9.2. find plancks constant;correct;runtime; -1026;Engineering Physics(U. Mukherji);3120;9. X Rays;9.3;9.3. find wavelength and maximum order of reflection;correct;runtime; -1026;Engineering Physics(U. Mukherji);3120;9. X Rays;9.4;9.4. find plancks constant;correct;runtime; -1026;Engineering Physics(U. Mukherji);3120;9. X Rays;9.5;9.5. find wavelength of line A;correct;runtime; -1026;Engineering Physics(U. Mukherji);3120;9. X Rays;9.6;9.6. find wavelength of x rays;correct;runtime; -1026;Engineering Physics(U. Mukherji);3120;9. X Rays;9.7;9.7. find min wavelength and glancing angle;correct;runtime; -1026;Engineering Physics(U. Mukherji);3120;9. X Rays;9.8;9.8. identify type of crystal;error;runtime; -1026;Engineering Physics(U. Mukherji);3120;9. X Rays;9.9;9.9. find interplannar spacing;correct;runtime; -1026;Engineering Physics(U. Mukherji);3076;10. Motion Of Charged Particle In Electric And Magnetic Field;10.1;10.1. find KE of particle;correct;runtime; -1026;Engineering Physics(U. Mukherji);3076;10. Motion Of Charged Particle In Electric And Magnetic Field;10.10;10.10. charge on drop;correct;runtime; -1026;Engineering Physics(U. Mukherji);3076;10. Motion Of Charged Particle In Electric And Magnetic Field;10.11;10.11. bainbridge mass spectograph;correct;runtime; -1026;Engineering Physics(U. Mukherji);3076;10. Motion Of Charged Particle In Electric And Magnetic Field;10.12;10.12. calculate flux density;correct;runtime; -1026;Engineering Physics(U. Mukherji);3076;10. Motion Of Charged Particle In Electric And Magnetic Field;10.13;10.13. electron in transverse electric field;error;runtime; -1026;Engineering Physics(U. Mukherji);3076;10. Motion Of Charged Particle In Electric And Magnetic Field;10.2;10.2. frequency of oscillation and maximum energy of particle;correct;runtime; -1026;Engineering Physics(U. Mukherji);3076;10. Motion Of Charged Particle In Electric And Magnetic Field;10.3;10.3. radius of electron trajectory and angular momentum;correct;runtime; -1026;Engineering Physics(U. Mukherji);3076;10. Motion Of Charged Particle In Electric And Magnetic Field;10.4;10.4. vertical displacement and magnetic field of electron;error;runtime; -1026;Engineering Physics(U. Mukherji);3076;10. Motion Of Charged Particle In Electric And Magnetic Field;10.5;10.5. resonance frequency and maximum energy of proton;correct;runtime; -1026;Engineering Physics(U. Mukherji);3076;10. Motion Of Charged Particle In Electric And Magnetic Field;10.6;10.6. calculate force periodic time and resonance frequency;correct;runtime; -1026;Engineering Physics(U. Mukherji);3076;10. Motion Of Charged Particle In Electric And Magnetic Field;10.7;10.7. calculate flux density and radius of cyclotron for proton and alpha particle;correct;runtime; -1026;Engineering Physics(U. Mukherji);3076;10. Motion Of Charged Particle In Electric And Magnetic Field;10.8;10.8. linear separation of electron beam;correct;runtime; -1026;Engineering Physics(U. Mukherji);3076;10. Motion Of Charged Particle In Electric And Magnetic Field;10.9;10.9. find potential difference;correct;runtime; -1026;Engineering Physics(U. Mukherji);3063;11. Quantum Physics And Schrodinger Wave Equation;11.1;11.1. uncertainity in velocity;correct;runtime; -1026;Engineering Physics(U. Mukherji);3063;11. Quantum Physics And Schrodinger Wave Equation;11.2;11.2. find KE and velocity of proton;correct;runtime; -1026;Engineering Physics(U. Mukherji);3063;11. Quantum Physics And Schrodinger Wave Equation;11.3;11.3. momentum and energy of electron and photon;correct;runtime; -1026;Engineering Physics(U. Mukherji);3063;11. Quantum Physics And Schrodinger Wave Equation;11.4;11.4. find mass of particle;correct;runtime; -1026;Engineering Physics(U. Mukherji);3063;11. Quantum Physics And Schrodinger Wave Equation;11.5;11.5. calculate debroglie wavelength of neutron;correct;runtime; -1026;Engineering Physics(U. Mukherji);3063;11. Quantum Physics And Schrodinger Wave Equation;11.6;11.6. existence of electron within nucleus;correct;runtime; -1026;Engineering Physics(U. Mukherji);3063;11. Quantum Physics And Schrodinger Wave Equation;11.7;11.7. calculate debroglie wavelength;correct;runtime; -1026;Engineering Physics(U. Mukherji);3063;11. Quantum Physics And Schrodinger Wave Equation;11.8;11.8. calculate KE of electron;correct;runtime; -1026;Engineering Physics(U. Mukherji);3062;12. Laser Holography And Fibre Optics;12.1;12.1. normalised frequency and guided modes;correct;runtime; -1026;Engineering Physics(U. Mukherji);3062;12. Laser Holography And Fibre Optics;12.2;12.2. find core radius;correct;runtime; -1026;Engineering Physics(U. Mukherji);3062;12. Laser Holography And Fibre Optics;12.3;12.3. calculate relative change in core cladding RI;correct;runtime; -1026;Engineering Physics(U. Mukherji);3062;12. Laser Holography And Fibre Optics;12.4;12.4. find cladding RI and acceptance angle;correct;runtime; -1026;Engineering Physics(U. Mukherji);3061;13. Radioactivity And Nuclear Reactions;13.1;13.1. energy of incident particle;correct;runtime; -1026;Engineering Physics(U. Mukherji);3061;13. Radioactivity And Nuclear Reactions;13.2;13.2. power of explosion;correct;runtime; -1026;Engineering Physics(U. Mukherji);3061;13. Radioactivity And Nuclear Reactions;13.4;13.4. mass of uranium consumed;correct;runtime; -1026;Engineering Physics(U. Mukherji);3061;13. Radioactivity And Nuclear Reactions;13.5;13.5. energy liberated per reaction;correct;runtime; -1026;Engineering Physics(U. Mukherji);3061;13. Radioactivity And Nuclear Reactions;13.6;13.6. calculate binding energy;correct;runtime; -1026;Engineering Physics(U. Mukherji);3061;13. Radioactivity And Nuclear Reactions;13.7;13.7. calculate power output;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2800;1. Basic concepts;1.1;1.1. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2800;1. Basic concepts;1.10;1.10. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2800;1. Basic concepts;1.11;1.11. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2800;1. Basic concepts;1.12;1.12. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2800;1. Basic concepts;1.13;1.13. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2800;1. Basic concepts;1.14;1.14. example;error;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2800;1. Basic concepts;1.15;1.15. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2800;1. Basic concepts;1.2;1.2. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2800;1. Basic concepts;1.3;1.3. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2800;1. Basic concepts;1.4;1.4. example;error;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2800;1. Basic concepts;1.5;1.5. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2800;1. Basic concepts;1.6;1.6. example;error;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2800;1. Basic concepts;1.7;1.7. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2800;1. Basic concepts;1.8;1.8. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2800;1. Basic concepts;1.9;1.9. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2801;2. Arrays and Structures;2.1;2.1. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2801;2. Arrays and Structures;2.2;2.2. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2801;2. Arrays and Structures;2.3;2.3. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2802;3. Stacks and Queues;1.1.b;1.1.b. example;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1034/CH1/EX1.1.b/: PATH DOES NOT EXIST -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2802;3. Stacks and Queues;1.2.b;1.2.b. example;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1034/CH1/EX1.2.b/: PATH DOES NOT EXIST -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2802;3. Stacks and Queues;1.3.a;1.3.a. example;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1034/CH1/EX1.3.a/: PATH DOES NOT EXIST -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2802;3. Stacks and Queues;3.1;3.1. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2802;3. Stacks and Queues;3.1.2;3.1.2. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2802;3. Stacks and Queues;3.2;3.2. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);2802;3. Stacks and Queues;3.3;3.3. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3010;4. Linked lists;4.1;4.1. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3010;4. Linked lists;4.2;4.2. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3010;4. Linked lists;4.3;4.3. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3010;4. Linked lists;4.4;4.4. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3011;5. Trees;5.1;5.1. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3011;5. Trees;5.2;5.2. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3011;5. Trees;5.3;5.3. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3011;5. Trees;5.4;5.4. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3012;6. Graphs;6.1;6.1. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3012;6. Graphs;6.2;6.2. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3012;6. Graphs;6.3;6.3. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3012;6. Graphs;6.4;6.4. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3012;6. Graphs;6.5;6.5. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3012;6. Graphs;6.6;6.6. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3012;6. Graphs;6.7;6.7. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3013;7. Sorting;7.1;7.1. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3013;7. Sorting;7.2;7.2. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3013;7. Sorting;7.3;7.3. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3013;7. Sorting;7.4;7.4. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3013;7. Sorting;7.5;7.5. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3013;7. Sorting;7.6;7.6. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3013;7. Sorting;7.7;7.7. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3013;7. Sorting;7.8;7.8. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3026;8. Hashing;8.1;8.1. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3026;8. Hashing;8.2;8.2. example;correct;runtime; -1034;Fundamentals Of Data Structure In C(S. Sahni , S. Anderson-freed And E. Horowitz);3027;9. Priority Queues;9.1;9.1. example;correct;runtime; -1046;Heat Transfer: Principles And Applications(B. K. Dutta);2711;2. steady state conduction in one dimension;2.1;2.1. steady state conduction of heat through a composite solid;correct;runtime; -1046;Heat Transfer: Principles And Applications(B. K. Dutta);3390;8. heat exchanger;8.1;8.1. The Design Procedure;correct;runtime; -1046;Heat Transfer: Principles And Applications(B. K. Dutta);3390;8. heat exchanger;8.2;8.2. design procedure;correct;runtime; -1046;Heat Transfer: Principles And Applications(B. K. Dutta);3390;8. heat exchanger;8.3;8.3. The effectiveness;correct;runtime; -1046;Heat Transfer: Principles And Applications(B. K. Dutta);3390;8. heat exchanger;8.4;8.4. Thermal design;correct;runtime; -1046;Heat Transfer: Principles And Applications(B. K. Dutta);3564;9. EVAPORATION AND EVAPORATORS;9.1;9.1. single effect evaporator calculation;correct;runtime; -1046;Heat Transfer: Principles And Applications(B. K. Dutta);3564;9. EVAPORATION AND EVAPORATORS;9.2;9.2. SINGLE EFFECT EVAPORATOR CALCULATION;correct;runtime; -1046;Heat Transfer: Principles And Applications(B. K. Dutta);3564;9. EVAPORATION AND EVAPORATORS;9.3;9.3. SINGLE EFFECT EVAPORATION;correct;runtime; -1046;Heat Transfer: Principles And Applications(B. K. Dutta);3564;9. EVAPORATION AND EVAPORATORS;9.4;9.4. MULTIPLE EFFECT EVAPORATION;correct;runtime; -1046;Heat Transfer: Principles And Applications(B. K. Dutta);3564;9. EVAPORATION AND EVAPORATORS;9.5;9.5. MULTIPLE EFFECT EVAPORATION;correct;runtime; -1046;Heat Transfer: Principles And Applications(B. K. Dutta);2862;10. UNSTEADY STATE AND MULTIDIMENSIONAL HEAT CONDUCTION;10.8;10.8. MUMERICAL CALCULATION OF UNSTEADY STATE HEAT CONDUCTION;correct;runtime; -1046;Heat Transfer: Principles And Applications(B. K. Dutta);2862;10. UNSTEADY STATE AND MULTIDIMENSIONAL HEAT CONDUCTION;10.9;10.9. NUMERIC CALCULATION OF UNSTEADY STATE HEAT CONDUCTION;correct;runtime; -1046;Heat Transfer: Principles And Applications(B. K. Dutta);2730;11. Boundary Layer Heat transfer;11.3;11.3. Forced convection heat transfer;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);2708;2. unit and dimensions;2.1;2.1. some basic conversion;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);2713;3. key terms and definations;3.2;3.2. determine the rise of the liquid in capillary tube;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);2713;3. key terms and definations;3.3;3.3. find diameter of glass tube for the capillary height;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);2713;3. key terms and definations;3.4;3.4. determine the magnitude of the normal and parallel force components and the shear stress and the pressure;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);2713;3. key terms and definations;3.5;3.5. determine the potential energy of water for 10 meter height;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);2866;5. Newtonian fluids;5.2;5.2. force necessary to maintain the movement of plate;error;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);2866;5. Newtonian fluids;5.3;5.3. shear stress;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);2866;5. Newtonian fluids;5.4;5.4. dynamic and kinamatic viscosity;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);2941;7. Conservation law for mass;7.1;7.1. conservation law of mass;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);2941;7. Conservation law for mass;7.2;7.2. Determine mass and volumetric flow rate;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);2941;7. Conservation law for mass;7.3;7.3. calculate mass flow rate at opening of flow device;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);2941;7. Conservation law for mass;7.4;7.4. mass balance in acontrol device;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);2941;7. Conservation law for mass;7.5;7.5. water level rising in a tank;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3023;9. Conservation law for momentum;9.1;9.1. the force required to hold the plate;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3023;9. Conservation law for momentum;9.2;9.2. the force required to hold the bend in place in water;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3023;9. Conservation law for momentum;9.3;9.3. to find the maximum water flow rate in the pipe bend;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3023;9. Conservation law for momentum;9.4;9.4. the force required to hold the hose;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3108;10. Law Of Hydrostatics;10.1;10.1. Determine the pressure exerted at the bottomof the column and calculate the pressure difference;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3108;10. Law Of Hydrostatics;10.2;10.2. Determine the depth in the atlantic ocean at given pressure;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3108;10. Law Of Hydrostatics;10.4;10.4. determine the densityof material;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3108;10. Law Of Hydrostatics;10.5;10.5. in hydrometer calculate height at which liquid will float;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3108;10. Law Of Hydrostatics;10.6;10.6. calculate the gauge pressure;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3119;12. Flow Mechanisms;12.1;12.1. calculate size of outlet duct required;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3119;12. Flow Mechanisms;12.2;12.2. calculate the reynolds number for a liquid;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3119;12. Flow Mechanisms;12.3;12.3. determine the reynolds number of a gas;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3119;12. Flow Mechanisms;12.5;12.5. calculate the average velocity of fluid and the volumatric flow rate;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3119;12. Flow Mechanisms;12.6;12.6. calculate the time to pass the liquid through the cross section of pipe;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3119;12. Flow Mechanisms;12.7;12.7. calculate the actual volumatric flow rate and reynolds number;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3379;13. Laminar Flow In Pipe;13.1;13.1. calculate the average velocity when flow is viscous;error;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3379;13. Laminar Flow In Pipe;13.2;13.2. determine pressure drop per unit length;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3379;13. Laminar Flow In Pipe;13.4;13.4. determine maximum air velocity;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3379;13. Laminar Flow In Pipe;13.5;13.5. calculate length of the pipe for a fully developed flow;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3379;13. Laminar Flow In Pipe;13.5;13.5. calculate length of the pipe for a fully developed flow;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3379;13. Laminar Flow In Pipe;13.7;13.7. calculate the reynolds no of the flow;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3381;14. TURBULENT FLOW IN PIPES;14.1;14.1. calculate the reynolds no ;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3381;14. TURBULENT FLOW IN PIPES;14.11;14.11. calculate the volumatric flow rate in different condition;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3381;14. TURBULENT FLOW IN PIPES;14.2;14.2. Detemine the minimum velocity at which turblence will appear;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3381;14. TURBULENT FLOW IN PIPES;14.3;14.3. predict the friction factor by different equation;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3381;14. TURBULENT FLOW IN PIPES;14.4;14.4. Calculate the equivalent diameter;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3381;14. TURBULENT FLOW IN PIPES;14.6;14.6. determine the tube diameter and velocity;correct;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3381;14. TURBULENT FLOW IN PIPES;14.8;14.8. determine the fanning friction factor and friction loss and the pressure drop;error;runtime; -1052;Fluid Flow For The Practicing Chemical Engineer(J. P. Abulencia And L. Theodore);3381;14. TURBULENT FLOW IN PIPES;14.9;14.9. calculate the force required to hold the pipe in place;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3340;2. Ray Theory Transmission in Optical Fiber;2.1;2.1. Determine the critical angle and the numerical aperture and acceptance angle;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3340;2. Ray Theory Transmission in Optical Fiber;2.10;2.10. Find the refractive index and critical angle and the numerical aperture;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3340;2. Ray Theory Transmission in Optical Fiber;2.11;2.11. Find the numerical aperture and fractional difference;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3340;2. Ray Theory Transmission in Optical Fiber;2.12;2.12. Find the critical angle and acceptance angle and brewster angle and numerical aperture;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3340;2. Ray Theory Transmission in Optical Fiber;2.13;2.13. Calculate the refractive indices;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3340;2. Ray Theory Transmission in Optical Fiber;2.14;2.14. calculate the critical angle and numerical aperture;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3340;2. Ray Theory Transmission in Optical Fiber;2.15;2.15. Calculate the critical angle and acceptance angle and numerical aperture and the percentage of light;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3340;2. Ray Theory Transmission in Optical Fiber;2.16;2.16. Estimate the NA and the solid acceptance angle and critical angle;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3340;2. Ray Theory Transmission in Optical Fiber;2.2;2.2. Calculate the numerical aperture;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3340;2. Ray Theory Transmission in Optical Fiber;2.3;2.3. Find the numerical aperture and acceptance angle;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3340;2. Ray Theory Transmission in Optical Fiber;2.4;2.4. Determine the numerical aperture and acceptance angle and critical angle;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3340;2. Ray Theory Transmission in Optical Fiber;2.5;2.5. Determine the refractive indices;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3340;2. Ray Theory Transmission in Optical Fiber;2.6;2.6. Calculate the refractive indices;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3340;2. Ray Theory Transmission in Optical Fiber;2.7;2.7. Determine the acceptance angle and critical angle and number of modes;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3340;2. Ray Theory Transmission in Optical Fiber;2.8;2.8. Find the numerical aperture and max angle;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3340;2. Ray Theory Transmission in Optical Fiber;2.9;2.9. Calculate the numerical aperture and acceptance angle;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.1;3.1. Find the core radius;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.10;3.10. What should be the max thickness of the guided slab;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.11;3.11. Estimate the diameter of the fiber core;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.12;3.12. Determine the max possible core diameter;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.13;3.13. Determine the normalised frequency;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.14;3.14. Find the numerical aperture and solid acceptance angle and number of modes;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.15;3.15. Find the cut off wavelength and min core diameter;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.16;3.16. Estimate the total number of guided modes;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.17;3.17. Determine the cut off wavelength;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.18;3.18. Calculate the cut off number and number of modes ;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.19;3.19. What will be the max allowable radius;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.2;3.2. Find the dimension of the core;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.20;3.20. Find V number and how many modesit will support;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.21;3.21. Determine the core size and cladding index;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.22;3.22. Calculate the corresponding divergence angle;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.23;3.23. Find the cut off wavelength for a step index fiber;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.24;3.24. Calculate the number of modes;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.25;3.25. Find the core radius and NA and spot size and also find the divergence angle;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.26;3.26. Find the max allowable diameter;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.27;3.27. Find the fractional refractive index change and the largest core size;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.28;3.28. Calculate the cut off parameter and the of modes;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.29;3.29. Calculate the max value of D and also find the acceptance angle;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.3;3.3. Find the propagation constant;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.30;3.30. Calculate the relative refractive index difference and acceptance angle and critical angle and solid acceptance angle and NA and normalised V number and number of guided modes;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.31;3.31. Find the normalised frequency and number of guided modes;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.4;3.4. Prove that propagation constant of an optical fiber is the product of free space propagation constant and the rms value;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.5;3.5. Find the number of TE modes;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.6;3.6. Find the normalised frequency and number of guided modess;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.7;3.7. Calculate the refractive index and normalised V number and total number of guided modes;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.8;3.8. Calculate the diameter of the fiber;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3341;3. Modes And Rays;3.9;3.9. Determine the normalised frequency for fiber;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3342;4. Attenuation And Absorption in Optical Fibers;4.1;4.1. Find the overall signal attenuation and signal attenuation per km for the fiber and overall signal attenuation for a 8 km optical link and numerical input output power ratio ;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3342;4. Attenuation And Absorption in Optical Fibers;4.10;4.10. Find the overall loss and the overall loss in dB per km and also find the overall signal attenuation and the numerical input and output power ratio;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3342;4. Attenuation And Absorption in Optical Fibers;4.11;4.11. Dtermine the attenuation in db per km due to rayleigh scattering in silica;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3342;4. Attenuation And Absorption in Optical Fibers;4.12;4.12. Calculat the threshold optical powers of SBS and SRS;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3342;4. Attenuation And Absorption in Optical Fibers;4.13;4.13. Calculate the critical radius of curvature at which large bending losses occour ;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3342;4. Attenuation And Absorption in Optical Fibers;4.14;4.14. Find the critical radius of both single mode and multimode fibers;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3342;4. Attenuation And Absorption in Optical Fibers;4.15;4.15. Find the loss in db per km of the fiber ;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3342;4. Attenuation And Absorption in Optical Fibers;4.16;4.16. Calculate the power level in mW after travelling a distance of 5 km;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3342;4. Attenuation And Absorption in Optical Fibers;4.17;4.17. Calculate the fiber loss in dB;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3342;4. Attenuation And Absorption in Optical Fibers;4.18;4.18. What will be the transmission length caused by the fiber;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3342;4. Attenuation And Absorption in Optical Fibers;4.19;4.19. Find the macrobend loss of a single mode fiber and also calculate the mode field diameter;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3342;4. Attenuation And Absorption in Optical Fibers;4.2;4.2. Determine the max possible link length;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3342;4. Attenuation And Absorption in Optical Fibers;4.20;4.20. Find the loss in dB per km for a fiber;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3342;4. Attenuation And Absorption in Optical Fibers;4.3;4.3. Determine the theoritical attenuation due to fundamental rayleigh scattering;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3342;4. Attenuation And Absorption in Optical Fibers;4.4;4.4. calculate the threshold optical powar for SBS and SRS ;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3342;4. Attenuation And Absorption in Optical Fibers;4.5;4.5. Estimate the critical Radius of curvatur at which large Bending Losses occur in both caces;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3342;4. Attenuation And Absorption in Optical Fibers;4.6;4.6. Compute The material loss of a graded index fiber;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3342;4. Attenuation And Absorption in Optical Fibers;4.7;4.7. Calculate the Loss Of An Optical fiber ;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3342;4. Attenuation And Absorption in Optical Fibers;4.8;4.8. Calculate the signal attenuation per km and overall signal attenuation for 12km;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3342;4. Attenuation And Absorption in Optical Fibers;4.9;4.9. Find the overall signal attenuation and the signal attenuation per kilometer of the fiber and the overall attenuation for a 10km ;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.1;5.1. Find out the max bandwidth and pulse dispersion per unit length and also find bandwidth length product;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.10;5.10. Determine the total first order dispersion and also find the waveguide dispersion;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.11;5.11. Find the model birefrigence and coherence length and also the propagation constant;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.12;5.12. Find the model birefrigence and interpret the length;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.13;5.13. Find the beat length within the fiber;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.14;5.14. Find the rms intermodel pulse broadening;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.15;5.15. Compute the max dispersion;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.16;5.16. Calculate the amount of material dispersion;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.17;5.17. Calculate the intermodel dispersion of a step index fiber;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.18;5.18. Compute the pulse broadening due to modal and combined pulse broadening and also compute the actual BLP;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.19;5.19. Compute the material dispersion;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.2;5.2. Find out the max bandwidth and pulse dispersion per unit length and also find bandwidth length product;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.20;5.20. Calculate the pulse width of the received signal and approximate bit rate;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.21;5.21. Calculate the pulse width of the received signal and approximate bit rate;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.22;5.22. find the total dispersion;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.23;5.23. Find the intermodel dispersion;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.24;5.24. Find the total intermodal and intramodal and total dispersion;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.25;5.25. Find the intermodal dispersion;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.26;5.26. Find the intermodal dispersion per km;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.27;5.27. Find the waveguide dispersion parameter DW;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.28;5.28. Find the pulse spreading due to material dispersion;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.29;5.29. Find the pulse spread due to material and waveguide dispersion;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.3;5.3. Calculate the Na and multipass pulse brodening and bandwidth length product;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.30;5.30. calculate wo and wp for operation at wavelength is 1310 nm and 1550 nm;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.31;5.31. calculate the range of the propagation constant and length of the beat length;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.32;5.32. Estimate the waveguide dispersionfor the given fiber;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.33;5.33. What should be the radius of the core so that the total dispersion at this wavelength is zero;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.4;5.4. find the material dispersion and estimate also the rms pulse broadening;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.5;5.5. Estimate the rms pulse broadening per km of the fibers;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.6;5.6. Find the delay difference and rms pulse broadening and max bit rateand Bandwidth length product for the fiber;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.7;5.7. Estimate the max bit rate assuming only intermodel dispersion;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.8;5.8. Find the delay difference and rms pulse broadening and max bit rate;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3343;5. Dispersion in Optical Fibers;5.9;5.9. Find the rms pulse broadening and Bandwidth length product for the fiber;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3344;6. Preparation of Optical Fibers And Cables;6.1;6.1. Compute the stain on the fiber and what will happen if this condition is maintained;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3344;6. Preparation of Optical Fibers And Cables;6.2;6.2. Find the pulling tension;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3345;7. Optical Fiber Connection Connectors Joints And Couplers;7.1;7.1. Calculate the fiber loss in db;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3345;7. Optical Fiber Connection Connectors Joints And Couplers;7.10;7.10. Find the insertion loss due to misalignment assuming index matching;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3345;7. Optical Fiber Connection Connectors Joints And Couplers;7.11;7.11. Find the insertion loss due to misalignment;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3345;7. Optical Fiber Connection Connectors Joints And Couplers;7.12;7.12. Find the insertion loss of a fiber joint;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3345;7. Optical Fiber Connection Connectors Joints And Couplers;7.13;7.13. Find the insertion losses between the input and output ports and cross talk and split ratio for the device;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3345;7. Optical Fiber Connection Connectors Joints And Couplers;7.14;7.14. Calculate the fresnel loss at each glass air boundary;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3345;7. Optical Fiber Connection Connectors Joints And Couplers;7.15;7.15. Find the numerical aperture ;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3345;7. Optical Fiber Connection Connectors Joints And Couplers;7.16;7.16. Find the coupling ratio and excess loss and insertion loss and cross talk;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3345;7. Optical Fiber Connection Connectors Joints And Couplers;7.17;7.17. What fraction of the input power goes to each port and compute the throughput loss and tap loss and directionality and the excess loss;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3345;7. Optical Fiber Connection Connectors Joints And Couplers;7.18;7.18. What fraction of the input power goes to each port and compute the throughput loss and tap loss and compute the loss due to radiation scattering in the complex;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3345;7. Optical Fiber Connection Connectors Joints And Couplers;7.19;7.19. Determine the attenuation per km for the fiber;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3345;7. Optical Fiber Connection Connectors Joints And Couplers;7.2;7.2. Find the insertion loss due to lateral misalignment;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3345;7. Optical Fiber Connection Connectors Joints And Couplers;7.20;7.20. Determine the optical loss due to scattering for a fiber;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3345;7. Optical Fiber Connection Connectors Joints And Couplers;7.3;7.3. Calculate the total insertion loss at the joint;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3345;7. Optical Fiber Connection Connectors Joints And Couplers;7.4;7.4. Estimate the insertion loss at the joint when there is a small gap and when an index matching fluid is inserted between the fiber end;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3345;7. Optical Fiber Connection Connectors Joints And Couplers;7.5;7.5. Find the insertion loss of a signal in the fwd and backward directions;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3345;7. Optical Fiber Connection Connectors Joints And Couplers;7.6;7.6. Calculate the insertion loss at the jont in the fwd and backward direction;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3345;7. Optical Fiber Connection Connectors Joints And Couplers;7.7;7.7. Determine the insertion loss of the splices;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3345;7. Optical Fiber Connection Connectors Joints And Couplers;7.8;7.8. Determine the refractive index of the fiber core;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3345;7. Optical Fiber Connection Connectors Joints And Couplers;7.9;7.9. Find the numerical aperture of the fiber;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.1;8.1. Find the total carrier recombination life time and power internally generated within the device ;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.10;8.10. Find the external power efficiency of the device;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.11;8.11. Calculate the divergence angle of LED;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.12;8.12. Calculate the irradiance at the detector;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.13;8.13. Calculate the internal quantum efficiency for an LED;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.14;8.14. Calculate the optical power complete into the fiber generated by an optical source;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.15;8.15. Calculate the radiative life time;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.16;8.16. Calculate the bandwidth of the LED with a rise time of 30 ns;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.17;8.17. Compute the divergence angle ;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.18;8.18. calculate the energy in electron volts associated with light source;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.19;8.19. Calculate the cut off wavelength of GaAs material;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.2;8.2. Find the peak emissionwavelength from the device;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.20;8.20. calculate the corresponding divergence angle;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.21;8.21. Calculate the max angle of acceptance and the coupling efficiency of the fiber;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.22;8.22. Calculate the frequency separation of the resonant modes of a GaAs laser;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.23;8.23. Find the LED conversion efficiency from electrical to optical power;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.24;8.24. Find the wavelength of optical emission and determine its live width in Hz;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.25;8.25. Find the internal quantum efficiency and internal power level and also find the power emitted from the device;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.26;8.26. calculate the external power efficiency of the device;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.27;8.27. Determine the length of the optical cavity and the longitudinal modes emitted;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.28;8.28. find the optical loss in dB ;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.29;8.29. What are the frequency and wavelength spacings;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.3;8.3. Find the external power efficiency of a GaAs planar LED;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.4;8.4. Find the coupling efficiency and the optical loss in decibels and loss relative to the internally generated optical power;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.5;8.5. Calculate the optical power coupled into a 200 um diameter;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.6;8.6. What will be the overall efficiency when the frwd voltage across the diode is 2V;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.7;8.7. Find the number of longitudinal modes of a ruby laser;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.8;8.8. Find the wavelength of optical emission from the device;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3346;8. Optical Sources;8.9;8.9. Find the length of the optical cavity and the number of longitudinal modes emitted;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.1;9.1. Calculate the responsivity of the device;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.10;9.10. Calculate the quantum efficiency and responsivity of the detector;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.11;9.11. Calculate the transit time for silicon photodiode;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.12;9.12. Calculate the max 3dB bandwidth for a silicon;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.13;9.13. Find the transit time and junction capacitance and time constant of the photodiode;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.14;9.14. calculate the cut off wavelength for silicon and germanium PIN diodes;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.15;9.15. Calculate the responsivity and received optical power and corresponding number of received photons;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.16;9.16. What will be the output photocurrent;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.17;9.17. Determine the operating wavelength of the device and Calculate the incident power;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.18;9.18. Determine the wavelength;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.19;9.19. Find the optical gain and common emitter gain;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.2;9.2. Calculate the efficiency of a PIN silicon photodiode;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.20;9.20. Calculate the multiplication factor of diode;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.21;9.21. Calculate the multiplication factor of APD;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.22;9.22. Calculate the quantum efficiency and wavelength of operation and responsivity and incident optical power;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.23;9.23. Calculate the multiplication factor of an APD;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.24;9.24. Find the responsivity and optical power and corresponding number of received photons;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.25;9.25. Find the wavelength of incident radiation and output photocurrent and also find the output photocurrent if the multiplication factor is 18;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.26;9.26. calculate the quantum efficiency and max possible band gap energy and mean output photocurrent;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.3;9.3. calculate the quantum efficiency and max possible band gap energy and mean output photocurrent;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.4;9.4. calculate the responsivity and and received optical power and corresponding number of received photons;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.5;9.5. Show that a GaAs photodetector will cease to operate above 087 um ;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.6;9.6. What will be the max response time for the device;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.7;9.7. Find the multiplication factor under these conditions;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.8;9.8. Find wavelength at which photodiode operating and what will be the incident optical power;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3347;9. Optical Detectors;9.9;9.9. Calculate the responsivity of a detector;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3348;10. Optical Fiber Systems;10.1;10.1. Determine the voltage needed to effect a phase change of pi radians;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3348;10. Optical Fiber Systems;10.10;10.10. Find the material dispersion limited distance and modal dispersion and also fint out the attenuation limited distance;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3348;10. Optical Fiber Systems;10.2;10.2. Calculate the total channel loss;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3348;10. Optical Fiber Systems;10.3;10.3. Determine the dispersion equalisation penalty and estimate penalty with and without mode coupling;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3348;10. Optical Fiber Systems;10.4;10.4. Find the possible link length without employing repeaters and max possible link length;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3348;10. Optical Fiber Systems;10.5;10.5. Find the optical power budget for an optical link;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3348;10. Optical Fiber Systems;10.6;10.6. What is the max transmission distance and if transmission is star coupler and if it is reflector star coupler;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3348;10. Optical Fiber Systems;10.7;10.7. Find the rise time and the date rate for a system supporting NRZ and RZ coding;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3348;10. Optical Fiber Systems;10.8;10.8. Find the modal dispersion limited transmission distance;correct;runtime; -1061;Optical Fiber Communication System(M. K. Raina);3348;10. Optical Fiber Systems;10.9;10.9. Find the material dispersion limited transmission distance;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.1;2.1. Example 1;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.10;2.10. Heat Passed;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.11;2.11. Insulated pipe;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.12;2.12. Composite brick;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.13;2.13. Heat flow in a pipe;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.15;2.15. Thickness of insulation;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.16;2.16. Reduction in heat loss in insulated pipe;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.17;2.17. Heat loss in a pipe;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.18;2.18. Arrangements for heat loss;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.19;2.19. Insulation thickness;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.2;2.2. Example 2;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.20;2.20. Heat loss in furnace;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.21;2.21. Rate of heat loss in pipe;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.23;2.23. Example 23;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.25;2.25. Heat loss;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.27;2.27. Heat loss in Wall;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.28;2.28. Thickness of Insulation;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.29;2.29. Heat loss in wall;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.3;2.3. Heat Loss;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.30;2.30. Heat loss and Reduciton;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.31;2.31. Heat flux and Interfacial Temperature;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.32;2.32. Convective conductance ;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.33;2.33. Critical radius of insulation;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.34;2.34. Heat loss in pipe;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.35;2.35. Lumped capacity in Ball;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.36;2.36. Steel ball quenched;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.37;2.37. Ball suddenly plugged in medium ;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.38;2.38. Slab suddenly lowered temperature;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.4;2.4. Heat loss;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.40;2.40. Time required;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.41;2.41. time period;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.42;2.42. Thermocouple junction;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.44;2.44. Heat dissipated fins;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.45;2.45. Heat loss by finned rod;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.47;2.47. Pin fin arrangement;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.48;2.48. Rectangular fins in two mediums;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.49;2.49. Wall surrounded by two medium;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.5;2.5. Heat loss;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.7;2.7. Heat loss;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.8;2.8. Loss per area;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);2712;2. Conduction;2.9;2.9. Heat loss;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.10;3.10. Rate of heat transferred in turbulent flow;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.11;3.11. Heat transfer from plate in unit direction;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.12;3.12. Heat lost by sphere;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.13;3.13. Heat lost by sphere;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.14;3.14. Percent power lost in bulb;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.15;3.15. Heat lost by cylinder;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.16;3.16. Heat transfer in tube;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.17;3.17. Heat transfer coefficient ;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.18;3.18. Heat transfer coefficient in heated tube;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.19;3.19. h of water flowing in tube;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.2;3.2. Boundary layer thickness of plate;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.20;3.20. Overall heat transfer coefficient;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.21;3.21. Number of tubes in exchanger;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.22;3.22. Convective film coefficient;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.23;3.23. Length of tube;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.25;3.25. Outlet temperature of water;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.26;3.26. Inside heat transfer coefficient;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.27;3.27. Film heat transfer coefficient;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.28;3.28. Area of exchanger;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.29;3.29. Natural and forced convection ;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.3;3.3. Thickness of hydrodynamic boundary layer;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.30;3.30. Natural convection;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.31;3.31. Free convection in vertical pipe;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.32;3.32. Heat loss per unit length;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.33;3.33. Free convection in pipe;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.34;3.34. Free convection in plate;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.35;3.35. Heat transfer from disc;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.36;3.36. Rate of heat input to plate;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.37;3.37. Two cases in disc;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.38;3.38. Total heat loss in a pipe;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.39;3.39. Heat loss by free convection;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.40;3.40. Heat loss from cube;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.42;3.42. Nucleate poolboiling;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.43;3.43. Peak Heat flux;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.44;3.44. Stable film pool boiling;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.45;3.45. Heat transfer in tube;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.46;3.46. Nucleat boiling and heat flux;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.47;3.47. Dry steam condensate;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.48;3.48. Laminar Condensate film;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.49;3.49. Saturated vapour condensate in array;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.5;3.5. Rate of heat removed from plate;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.50;3.50. Mass rate of steam condensation;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.51;3.51. Saturated tube condensate in a wall;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.52;3.52. Condensation rate;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.53;3.53. Condensation on vertical plate;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.6;3.6. Heat removed from plate;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.7;3.7. Local heat transfer coefficient;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.8;3.8. Width of plate;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3336;3. Convection;3.9;3.9. Heat transferred in flat plate;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.1;4.1. Heat loss by radiaiton;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.10;4.10. Diwar flask;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.11;4.11. Heat flow due to radiation;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.12;4.12. Heat exchange between concentric shell;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.13;4.13. Evaporation in concenric vessels;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.15;4.15. infinitely long plates;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.17;4.17. Thermal radiation in pipe;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.18;4.18. Heat transfer in concentric tube;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.19;4.19. Heat exchange between black plates;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.2;4.2. Radiation from unlagged steam pipe;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.20;4.20. Radiation shield;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.21;4.21. Heat transfer with radiaiton shield;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.22;4.22. Radiaition shape factor;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.23;4.23. Radiation loss in plates;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.24;4.24. Concentric tube;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.3;4.3. Interchange of radiation energy;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.4;4.4. Heat loss in unlagged steam pipe;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.5;4.5. Loss from horizontal pipe;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.6;4.6. Heat loss by radiation in tube;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.7;4.7. Net radiant interchange;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.8;4.8. Radiant interchange between plates;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3405;4. Radiation;4.9;4.9. Heat loss from thermflask;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3558;6. Evaporation;6.1;6.1. Boiling point Elevation;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3558;6. Evaporation;6.10;6.10. Triple effect evaporator;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3558;6. Evaporation;6.2;6.2. Capacity of evaporator;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3558;6. Evaporation;6.3;6.3. Economy of Evaporator;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3558;6. Evaporation;6.4;6.4. Steam economy;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3558;6. Evaporation;6.5;6.5. Evaporator economy;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3558;6. Evaporation;6.6;6.6. Single effect Evaporator;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3558;6. Evaporation;6.7;6.7. Single effect evaporator reduced pressure;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3558;6. Evaporation;6.8;6.8. Mass flow rate;correct;runtime; -1073;Heat Transfer(K. A. Gavhane);3558;6. Evaporation;6.9;6.9. Heat load in single effect evaporator;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2763;2. Atomic structure and electronic configuration;2.1;2.1. Calculate the distance of the closest approach alpha particles from the copper nucleus;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2763;2. Atomic structure and electronic configuration;2.13;2.13. Assuming that the weight of one proton is equal to that of one neutron find the weight of copper atom and weight of one proton;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2763;2. Atomic structure and electronic configuration;2.15;2.15. find the percentage of Si in Copper silicide;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2763;2. Atomic structure and electronic configuration;2.2;2.2. Calculate the radius and frequency of an electron in the bohr first orbit in hydrogen atom;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2763;2. Atomic structure and electronic configuration;2.3;2.3. Determine the radius of the second bohr orbit in a singly ionized helium atom;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2763;2. Atomic structure and electronic configuration;2.4;2.4. Calculate the unit cell dimensions and atomic diameter;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2763;2. Atomic structure and electronic configuration;2.5;2.5. Calculate the revolutions per second of an electron in the bohr orbit of hydrogen atom;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2763;2. Atomic structure and electronic configuration;2.6;2.6. Determine the orbital frequency of an electron in the first bohr orbit in a hydrogen atom;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2763;2. Atomic structure and electronic configuration;2.7;2.7. Calculate the values of kinetic energy potential energy and total energy of an electron;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2763;2. Atomic structure and electronic configuration;2.8;2.8. Calculate the velocity of an electron in hydrogen atom in bohr first orbit;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2763;2. Atomic structure and electronic configuration;2.9;2.9. Calculate the principal quantum number and wavelengths of radiation in both energies;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.10;3.10. Find the angle Between normals to the planes;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.11;3.11. Determine the packing efficiency and density of sodium chloride;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.12;3.12. Calculate the unit cell dimensions and atomic diameter;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.13;3.13. Calculate the interplaner distance;error;file_not_found;/var/www/scilab_in/uploads-backup/1085/CH3/EX3.13/ : NO SCILAB FILE INSIDE -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.14;3.14. Find the number of atoms per mm2;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.15;3.15. Determine the planer density of Ni;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.16;3.16. Calculate the planar atomic densities of planes;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.17;3.17. Calculate the linear atomic densities of planes;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.18;3.18. Find lattice constant;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.19;3.19. Find the numbers of atoms per unit cell;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.20;3.20. Calculate the line energy of disslocation in bcc iron;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.22;3.22. Calculate the number of vacancies;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.23;3.23. Calculate the surface energy of copper;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.24;3.24. Calculate the equilibrium concentration of vacancies in aluminium;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.25;3.25. Determine the interplanar spacing;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.26;3.26. Calculate the size of unit cell;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.27;3.27. Calculate the Bragg angle;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.28;3.28. Calculate the bragg reflection index;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.29;3.29. Calculate the angle for 3rd order reflection;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.30;3.30. Obtain the interplanar spacing and miller indices of the reflection plane;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2806;3. Crystal Geometry Structure and Defects;3.31;3.31. Determine interatomic spacing;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2928;4. Bonds in Solids;4.1;4.1. Find A and B and the force needed to dissociate this molecule into atoms and the interatomic distance at which the dissociation occurs;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2928;4. Bonds in Solids;4.2;4.2. Find the repulsive exponent n;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2928;4. Bonds in Solids;4.3;4.3. Find the radius of Cl ion;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2928;4. Bonds in Solids;4.4;4.4. Calculate the force of attraction between ions;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2945;5. Electron Theory of Metals;5.1;5.1. Evaluate the temperature;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2945;5. Electron Theory of Metals;5.10;5.10. Find the conductivity of copper;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2945;5. Electron Theory of Metals;5.2;5.2. Find the drift velocity of carriers;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2945;5. Electron Theory of Metals;5.3;5.3. Find the conductivity of copper at 300K;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2945;5. Electron Theory of Metals;5.4;5.4. Find the mobility of condution electron;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2945;5. Electron Theory of Metals;5.5;5.5. Find the mobility of condution electron and drift velocity;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2945;5. Electron Theory of Metals;5.6;5.6. Find the number of free electrons and also calculate mobility of electrons;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2945;5. Electron Theory of Metals;5.7;5.7. Calculate the maximum velocity of an electron in a metal and mobility of electrons;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2945;5. Electron Theory of Metals;5.8;5.8. Calculate the velocity of an electrons at fermi level;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2945;5. Electron Theory of Metals;5.9;5.9. Estimate the mean path of free electrons in pure copper;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2946;6. Photoelectric Effect;6.1;6.1. Find the kinetic energy of electrons ejected from the surface;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2946;6. Photoelectric Effect;6.2;6.2. Calculate the threshold frequency and the corresponding wavelength;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2946;6. Photoelectric Effect;6.3;6.3. Calculate the threshold frequency and the work function of metal;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2946;6. Photoelectric Effect;6.4;6.4. Calculate the photons emitted by lamp per second;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2946;6. Photoelectric Effect;6.5;6.5. Determine the region of electrons spectrum;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2946;6. Photoelectric Effect;6.6;6.6. Calculate the photons emitted by radio receiver;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2946;6. Photoelectric Effect;6.7;6.7. Calculate the wavelength of light which can just eject electron from tungsten and from barrium;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2947;7. Diffusion in Solids;7.1;7.1. find the time required for carburization;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2947;7. Diffusion in Solids;7.2;7.2. Calculate time required to get a boron content of 1023 atoms per m3 at a depth of 2 micro meter;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2947;7. Diffusion in Solids;7.3;7.3. find the constant of the equation and activation energy and determine the diffusion coefficient;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2947;7. Diffusion in Solids;7.4;7.4. Determine the approximate time that will produce same diffussion at 500 C;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2948;8. Mechanical Properties of Materials and Mechanical Tests;8.1;8.1. Determine the fracture strength;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2948;8. Mechanical Properties of Materials and Mechanical Tests;8.2;8.2. Compute the true stress and strain with engineering stress and strain;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2948;8. Mechanical Properties of Materials and Mechanical Tests;8.3;8.3. Determine the fracture strength;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2948;8. Mechanical Properties of Materials and Mechanical Tests;8.4;8.4. Find the resultant elongation;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2948;8. Mechanical Properties of Materials and Mechanical Tests;8.5;8.5. Compute the strain hardening exponent;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2949;9. Alloy Systems Phase Diagrams and Phase Transformations;9.1;9.1. Find the percentage of proeutectoid ferrite;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2949;9. Alloy Systems Phase Diagrams and Phase Transformations;9.3;9.3. Find the minimum number of components in the system;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2950;10. Heat Treatment;10.1;10.1. Determine the grain diameter of an ASTM Number 8;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2951;11. Deformation of Materials;11.1;11.1. Determine the value of critical resolved shear stress;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2951;11. Deformation of Materials;11.3;11.3. Find the yield stress;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2951;11. Deformation of Materials;11.4;11.4. Find the yield stress;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2952;12. Oxidation and Corrosion;12.1;12.1. Find the distance at which magnisium anode capable of giving 2MA;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2952;12. Oxidation and Corrosion;12.2;12.2. Calculate the quality of magnesium required per square meter of the hull surface for a design life of 10 years;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2953;13. Thermal and Optical Properties of Materials;13.1;13.1. Determine the maximum temperature to which the rod may be heated without exceeding a compressive stress of 172 MPa;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2954;14. Electrical and Magnetic Properties of Materials;14.1;14.1. Calculate the resistance of an aluminium wire;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2954;14. Electrical and Magnetic Properties of Materials;14.2;14.2. Find the resistivity of a copper alloy containing 1 atomic percent nickel and 3 atomic percent silver;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2954;14. Electrical and Magnetic Properties of Materials;14.3;14.3. Find the resistivity due to impurity scattering per percent of Ni in the Cu lattice;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2954;14. Electrical and Magnetic Properties of Materials;14.4;14.4. Calculate the relative dielectric constant of a barium titanate crystal;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2954;14. Electrical and Magnetic Properties of Materials;14.5;14.5. Calculate the polarization;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2954;14. Electrical and Magnetic Properties of Materials;14.6;14.6. Find net magnetic moment per iron atom in the crystal;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2954;14. Electrical and Magnetic Properties of Materials;14.7;14.7. Calculate the saturation magnetization and the saturation flux density;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2954;14. Electrical and Magnetic Properties of Materials;14.8;14.8. Calculate the saturation magnetization;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2954;14. Electrical and Magnetic Properties of Materials;14.9;14.9. Calculate eddy current loss at the normal voltage and frequency;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2955;15. Semiconductors;15.1;15.1. Find the conductivity and resistivity of a pure silicon crystal;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2955;15. Semiconductors;15.2;15.2. Find the resistivity at room temperature;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2955;15. Semiconductors;15.3;15.3. Find the resistance of an intrinsic germanium rod;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2955;15. Semiconductors;15.4;15.4. Obtain density relation in P type material;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2956;16. Superconductivity and Superconducting Materials;16.1;16.1. Calculate the energy gap in electron volts and Calculate the wavelength of a photon;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2957;18. Composites;18.1;18.1. Calculate the modulus of elasticity;correct;runtime; -1085;Material Science(S. L. Kakani And A. Kakani);2957;18. Composites;18.2;18.2. Calculate the elastic modulus when the stress is applied perpendicular to the direction of the fibre alignment;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2808;1. Getting Started;1.1;1.1. Date and Time;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2808;1. Getting Started;1.2;1.2. Clearing the Screen;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2808;1. Getting Started;1.3;1.3. Calendar display;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2808;1. Getting Started;1.4;1.4. Users present;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2808;1. Getting Started;1.5;1.5. Processes;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2808;1. Getting Started;1.6;1.6. Listing Files;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2808;1. Getting Started;1.7;1.7. Number of files Unix only;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2808;1. Getting Started;1.8;1.8. Programming basics;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2808;1. Getting Started;1.9;1.9. Exitting;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2809;2. The Unix Architecture and Command Usage;2.1;2.1. Shell Name;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2809;2. The Unix Architecture and Command Usage;2.2;2.2. Type of keywords;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2809;2. The Unix Architecture and Command Usage;2.3;2.3. Path Variable;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2809;2. The Unix Architecture and Command Usage;2.4;2.4. Option using;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2809;2. The Unix Architecture and Command Usage;2.5;2.5. Man Pages;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2817;3. General Purpose Utilities;3.1;3.1. Calendar;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2817;3. General Purpose Utilities;3.10;3.10. Machine Characteristics;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2817;3. General Purpose Utilities;3.11;3.11. Terminal Name;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2817;3. General Purpose Utilities;3.2;3.2. Date and Time;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2817;3. General Purpose Utilities;3.3;3.3. Use of echo;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2817;3. General Purpose Utilities;3.4;3.4. printf usage;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2817;3. General Purpose Utilities;3.5;3.5. hexadecimal printing;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2817;3. General Purpose Utilities;3.6;3.6. Calculator;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2817;3. General Purpose Utilities;3.7;3.7. Session recording by script;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2860;4. The File System;4.1;4.1. Displaying the home directory;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2860;4. The File System;4.2;4.2. Current working Directory;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2860;4. The File System;4.3;4.3. Changing Directory;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2860;4. The File System;4.4;4.4. Creating Directories;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2860;4. The File System;4.5;4.5. Removing Directories;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2860;4. The File System;4.6;4.6. Relative Pathnames;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2860;4. The File System;4.7;4.7. ls command;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2885;5. Handling Ordinary Files;5.1;5.1. cat command;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2885;5. Handling Ordinary Files;5.2;5.2. cp command;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2885;5. Handling Ordinary Files;5.3;5.3. rm command;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2885;5. Handling Ordinary Files;5.4;5.4. mv command;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2885;5. Handling Ordinary Files;5.5;5.5. lp command;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2885;5. Handling Ordinary Files;5.6;5.6. wc command;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2885;5. Handling Ordinary Files;5.7;5.7. od command;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2885;5. Handling Ordinary Files;5.8;5.8. cmp command;error;runtime; -1088;Unix: Concepts And Applications(S. Das);2861;14. Essential Shell Programming;14.1;14.1. Program 1;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2861;14. Essential Shell Programming;14.10;14.10. Program 10;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2861;14. Essential Shell Programming;14.11;14.11. Program 11;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2861;14. Essential Shell Programming;14.12;14.12. Program 12;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2861;14. Essential Shell Programming;14.13;14.13. Program 14;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2861;14. Essential Shell Programming;14.2;14.2. Program 2;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2861;14. Essential Shell Programming;14.3;14.3. Program 3;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2861;14. Essential Shell Programming;14.4;14.4. Program 4;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2861;14. Essential Shell Programming;14.5;14.5. Program 5;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2861;14. Essential Shell Programming;14.6;14.6. Program 6;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2861;14. Essential Shell Programming;14.7;14.7. Program 7;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2861;14. Essential Shell Programming;14.8;14.8. Program 8;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2861;14. Essential Shell Programming;14.9;14.9. Program 9;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);3131;18. awk An Advanced Filter;18.1;18.1. Program 1;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);3131;18. awk An Advanced Filter;18.2;18.2. Program 2;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2975;19. perl The Master Manipulator;19.1;19.1. Program 1;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2975;19. perl The Master Manipulator;19.10;19.10. Program 10;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2975;19. perl The Master Manipulator;19.11;19.11. Program 11;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2975;19. perl The Master Manipulator;19.12;19.12. Program 12;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2975;19. perl The Master Manipulator;19.13;19.13. Program 13;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2975;19. perl The Master Manipulator;19.14;19.14. Program 14;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2975;19. perl The Master Manipulator;19.15;19.15. Program 15;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2975;19. perl The Master Manipulator;19.16;19.16. Program 16;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2975;19. perl The Master Manipulator;19.17;19.17. Program 17;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2975;19. perl The Master Manipulator;19.18;19.18. Program 18;warning;runtime; -1088;Unix: Concepts And Applications(S. Das);2975;19. perl The Master Manipulator;19.2;19.2. Program 2;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2975;19. perl The Master Manipulator;19.3;19.3. Program 3;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2975;19. perl The Master Manipulator;19.4;19.4. Program 4;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2975;19. perl The Master Manipulator;19.5;19.5. Program 5;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2975;19. perl The Master Manipulator;19.6;19.6. Program 6;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2975;19. perl The Master Manipulator;19.7;19.7. Program 7;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2975;19. perl The Master Manipulator;19.8;19.8. Program 8;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);2975;19. perl The Master Manipulator;19.9;19.9. Program 9;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);3132;21. Advanced Shell Programming;21.1;21.1. Program 1;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);3132;21. Advanced Shell Programming;21.2;21.2. Program 2;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);3132;21. Advanced Shell Programming;21.3;21.3. Program 3;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);3132;21. Advanced Shell Programming;21.4;21.4. Program 4;correct;runtime; -1088;Unix: Concepts And Applications(S. Das);3133;23. Systems Programming 1 Files;23.1;23.1. Program 1;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3133;23. Systems Programming 1 Files;23.10;23.10. Program 10;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3133;23. Systems Programming 1 Files;23.11;23.11. Program 11;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3133;23. Systems Programming 1 Files;23.12;23.12. Program 12;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3133;23. Systems Programming 1 Files;23.13;23.13. Program 13;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3133;23. Systems Programming 1 Files;23.2;23.2. Program 2;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3133;23. Systems Programming 1 Files;23.3;23.3. Program 3;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3133;23. Systems Programming 1 Files;23.4;23.4. Program 4;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3133;23. Systems Programming 1 Files;23.5;23.5. Program 5;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3133;23. Systems Programming 1 Files;23.6;23.6. Program 6;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3133;23. Systems Programming 1 Files;23.7;23.7. Program 7;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3133;23. Systems Programming 1 Files;23.8;23.8. Program 8;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3133;23. Systems Programming 1 Files;23.9;23.9. Program 9;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3134;24. Systems Programming 2 Process Control;24.1;24.1. Program 1;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3134;24. Systems Programming 2 Process Control;24.10;24.10. Program 10;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3134;24. Systems Programming 2 Process Control;24.11;24.11. Program 11;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3134;24. Systems Programming 2 Process Control;24.12;24.12. Program 12;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3134;24. Systems Programming 2 Process Control;24.13;24.13. Program 13;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3134;24. Systems Programming 2 Process Control;24.14;24.14. Program 14;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3134;24. Systems Programming 2 Process Control;24.15;24.15. Program 15;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3134;24. Systems Programming 2 Process Control;24.16;24.16. Program 16;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3134;24. Systems Programming 2 Process Control;24.2;24.2. Program 2;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3134;24. Systems Programming 2 Process Control;24.3;24.3. Program 3;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3134;24. Systems Programming 2 Process Control;24.4;24.4. Program 4;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3134;24. Systems Programming 2 Process Control;24.5;24.5. Program 5;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3134;24. Systems Programming 2 Process Control;24.6;24.6. Program 6;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3134;24. Systems Programming 2 Process Control;24.7;24.7. Program 7;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3134;24. Systems Programming 2 Process Control;24.8;24.8. Program 8;error;runtime; -1088;Unix: Concepts And Applications(S. Das);3134;24. Systems Programming 2 Process Control;24.9;24.9. Program 9;error;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2729;1. ELECTROMECHANICAL FUNDAMENTALS;1.1;1.1. calculate average voltage;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2729;1. ELECTROMECHANICAL FUNDAMENTALS;1.10;1.10. calculate Z and Eg;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2729;1. ELECTROMECHANICAL FUNDAMENTALS;1.11;1.11. calculate F and find its direction;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2729;1. ELECTROMECHANICAL FUNDAMENTALS;1.12;1.12. repeat previous eg with angle 75;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2729;1. ELECTROMECHANICAL FUNDAMENTALS;1.13;1.13. calculate counter emf;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2729;1. ELECTROMECHANICAL FUNDAMENTALS;1.14;1.14. calculate Eg phi in linesperpole and mWb;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2729;1. ELECTROMECHANICAL FUNDAMENTALS;1.2;1.2. calculate e and E;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2729;1. ELECTROMECHANICAL FUNDAMENTALS;1.3;1.3. calculate E;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2729;1. ELECTROMECHANICAL FUNDAMENTALS;1.4;1.4. calculate E for different theta;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2729;1. ELECTROMECHANICAL FUNDAMENTALS;1.5;1.5. calculate Eperpath Eg Ia Ra Vt P;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2729;1. ELECTROMECHANICAL FUNDAMENTALS;1.6;1.6. repeated previous eg with 4poles;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2729;1. ELECTROMECHANICAL FUNDAMENTALS;1.7;1.7. calculate Eav per coil and per coilside;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2729;1. ELECTROMECHANICAL FUNDAMENTALS;1.8;1.8. verify previous eg with phi in webers;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2729;1. ELECTROMECHANICAL FUNDAMENTALS;1.9;1.9. verify eg1 5b with eq1 5a;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2746;2. DYNAMO CONSTRUCTION AND WINDINGS;2.1;2.1. calculate a for lap and wave windings;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2746;2. DYNAMO CONSTRUCTION AND WINDINGS;2.2;2.2. calculate generated emf;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2746;2. DYNAMO CONSTRUCTION AND WINDINGS;2.3;2.3. calculate polespan p kp;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2746;2. DYNAMO CONSTRUCTION AND WINDINGS;2.4;2.4. calculate kp;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2746;2. DYNAMO CONSTRUCTION AND WINDINGS;2.5;2.5. find alpha n theta;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2746;2. DYNAMO CONSTRUCTION AND WINDINGS;2.6;2.6. find n alpha kd for different number of slots;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2746;2. DYNAMO CONSTRUCTION AND WINDINGS;2.7;2.7. calculate Eg Np kd kp Egp;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2746;2. DYNAMO CONSTRUCTION AND WINDINGS;2.8;2.8. calculate f S omega;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2782;3. DC DYNAMO VOLTAGE RELATIONS DC GENERATORS;3.1;3.1. calculate I1 If Ia Eg;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2782;3. DC DYNAMO VOLTAGE RELATIONS DC GENERATORS;3.10;3.10. determine approx size of dynamo;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2782;3. DC DYNAMO VOLTAGE RELATIONS DC GENERATORS;3.2;3.2. calculate Rd Eg;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2782;3. DC DYNAMO VOLTAGE RELATIONS DC GENERATORS;3.3;3.3. calculate Vnoload;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2782;3. DC DYNAMO VOLTAGE RELATIONS DC GENERATORS;3.4;3.4. calculate E;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2782;3. DC DYNAMO VOLTAGE RELATIONS DC GENERATORS;3.5;3.5. calculate Ia Eg;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2782;3. DC DYNAMO VOLTAGE RELATIONS DC GENERATORS;3.6;3.6. calculate VR;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2782;3. DC DYNAMO VOLTAGE RELATIONS DC GENERATORS;3.7;3.7. calculate Vnoload;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2782;3. DC DYNAMO VOLTAGE RELATIONS DC GENERATORS;3.8;3.8. calculate IsNs Rd;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);2782;3. DC DYNAMO VOLTAGE RELATIONS DC GENERATORS;3.9;3.9. calculate Rd Vnl Vfl;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.1;4.1. calculate force and torque;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.10;4.10. calculate power developed ;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.11;4.11. convert torque readings into Nm and lbft;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.12;4.12. calculate Ist and percentage of load current;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.13;4.13. calculate Rs at various back Emfs and Ec at zero Rs;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.14;4.14. calculate field flux in percent and final torque developed;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.15;4.15. calculate torque developed for varying flux and Ia;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.16;4.16. calculate speed at rated load and P and hp;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.17;4.17. calculate speed torque and horsepower;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.18;4.18. calculate speed with and without diverter;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.19;4.19. calculate percentage speed regulation;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.2;4.2. calculate force and torque;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.20;4.20. calculate no load speed;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.21;4.21. calculate internal and external torque;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.22;4.22. calculate output torque in ounceinches;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.23;4.23. calculate speed and torque;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.3;4.3. calculate average force and torque;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.4;4.4. calculate torque developed;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.5;4.5. calculate armature current;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.6;4.6. calculate torque due to change in field flux;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.7;4.7. calculate Ia and percentage change in Ia and E;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.8;4.8. calculate speed at different loads;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3220;4. DC DYNAMO TORQUE RELATIONS DC MOTORS;4.9;4.9. calculate speed with increased line current;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3464;5. ARMATURE REACTION AND COMMUTATION IN DYNAMOS;5.1;5.1. calculate Zp;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3464;5. ARMATURE REACTION AND COMMUTATION IN DYNAMOS;5.2;5.2. calculate cross and de magnetising ampereconductorsperpole and ampereturnsperpole;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3465;6. AC DYNAMO VOLTAGE RELATIONS ALTERNATORS;6.1;6.1. calculate Eg at unity PF and point75 lagging PF;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3465;6. AC DYNAMO VOLTAGE RELATIONS ALTERNATORS;6.2;6.2. calculate Eg at point75 PF and point4 lead;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3465;6. AC DYNAMO VOLTAGE RELATIONS ALTERNATORS;6.3;6.3. calculate percent voltage regulation;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3465;6. AC DYNAMO VOLTAGE RELATIONS ALTERNATORS;6.4;6.4. calculate Rdc Rac Zp Xs VR at point8 PF lag and lead;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3465;6. AC DYNAMO VOLTAGE RELATIONS ALTERNATORS;6.5;6.5. calculate prev eg values for delta connection;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3465;6. AC DYNAMO VOLTAGE RELATIONS ALTERNATORS;6.6;6.6. calculate Imax overload and Isteady;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3465;6. AC DYNAMO VOLTAGE RELATIONS ALTERNATORS;6.7;6.7. calculate P and Pperphase and Egp magnitude phase angle and torque angle;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3465;6. AC DYNAMO VOLTAGE RELATIONS ALTERNATORS;6.8;6.8. calculate torqueperphase and total torque;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3533;7. PARALLEL OPERATION;7.1;7.1. calculate I Ia and P;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3533;7. PARALLEL OPERATION;7.10;7.10. calculate synchronizing I and P and P losses;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3533;7. PARALLEL OPERATION;7.11;7.11. calculate mesh currents line currents phase voltages phasor diagram;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3533;7. PARALLEL OPERATION;7.2;7.2. calculate all currents and power of the generator;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3533;7. PARALLEL OPERATION;7.3;7.3. calculate VL IL Pg and PL;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3533;7. PARALLEL OPERATION;7.4;7.4. calculate total load and kW output of each G;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3533;7. PARALLEL OPERATION;7.5;7.5. calculate max and min E and frequency and Epeak and n;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3533;7. PARALLEL OPERATION;7.6;7.6. calculate max and min E and f and phase relations;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3533;7. PARALLEL OPERATION;7.7;7.7. calculate Is in both alternators;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3533;7. PARALLEL OPERATION;7.8;7.8. calculate generator and motor action and P loss and terminal V and phasor diagram;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3533;7. PARALLEL OPERATION;7.9;7.9. calculate synchronizing I and P and P losses;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3552;8. AC DYNAMO TORQUE RELATIONS SYNCHRONOUS MOTORS;8.1;8.1. calculate alpha Er Ia Pp Pt Power loss Pd;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3552;8. AC DYNAMO TORQUE RELATIONS SYNCHRONOUS MOTORS;8.10;8.10. calculate cost of raising PF to unity and point85 lagging;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3552;8. AC DYNAMO TORQUE RELATIONS SYNCHRONOUS MOTORS;8.11;8.11. calculate Po jQo and power triangle;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3552;8. AC DYNAMO TORQUE RELATIONS SYNCHRONOUS MOTORS;8.12;8.12. calculate Pf jQf Pa jQa kVA and draw power tabulation grid;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3552;8. AC DYNAMO TORQUE RELATIONS SYNCHRONOUS MOTORS;8.13;8.13. calculate Pf jQf Pa jQa kVA and power tabulation grid;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3552;8. AC DYNAMO TORQUE RELATIONS SYNCHRONOUS MOTORS;8.14;8.14. calculate original and final kVA kvar P and correction kvar Sa;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3552;8. AC DYNAMO TORQUE RELATIONS SYNCHRONOUS MOTORS;8.15;8.15. calculate kVA added Pa and Qa and Pf Qf and PF ;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3552;8. AC DYNAMO TORQUE RELATIONS SYNCHRONOUS MOTORS;8.16;8.16. Verify tellegens theorem for kVAs found in Ex 8 15;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3552;8. AC DYNAMO TORQUE RELATIONS SYNCHRONOUS MOTORS;8.17;8.17. calculate overall PF using unity PF SM;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3552;8. AC DYNAMO TORQUE RELATIONS SYNCHRONOUS MOTORS;8.18;8.18. calculate overall PF using point8 PF leading SM;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3552;8. AC DYNAMO TORQUE RELATIONS SYNCHRONOUS MOTORS;8.19;8.19. calculate kVA and PF of system and same for SM;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3552;8. AC DYNAMO TORQUE RELATIONS SYNCHRONOUS MOTORS;8.2;8.2. calculate alpha Er Ia Pp Pt Power loss Pd;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3552;8. AC DYNAMO TORQUE RELATIONS SYNCHRONOUS MOTORS;8.20;8.20. calulate speeds and poles for alternator and motor;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3552;8. AC DYNAMO TORQUE RELATIONS SYNCHRONOUS MOTORS;8.3;8.3. calculate Ia PF hp;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3552;8. AC DYNAMO TORQUE RELATIONS SYNCHRONOUS MOTORS;8.4;8.4. calculate IL Iap Zp IaZp theta deba Egp;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3552;8. AC DYNAMO TORQUE RELATIONS SYNCHRONOUS MOTORS;8.5;8.5. calculate torque angle ;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3552;8. AC DYNAMO TORQUE RELATIONS SYNCHRONOUS MOTORS;8.6;8.6. calculate Pp Pt hp internal and external torque and motor efficiency;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3552;8. AC DYNAMO TORQUE RELATIONS SYNCHRONOUS MOTORS;8.7;8.7. calculate total load I and PF using IM and SM percent reduction in I and overall PF;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3552;8. AC DYNAMO TORQUE RELATIONS SYNCHRONOUS MOTORS;8.8;8.8. calculate Tp and hp;correct;runtime; -1092;Electric Machinery And Transformers(I. L. Kosow);3552;8. AC DYNAMO TORQUE RELATIONS SYNCHRONOUS MOTORS;8.9;8.9. calculate original kvar and kvar correction and kVA and Io and If and power triangle;correct;runtime; -1094;Electric Machines(M. S. Sarma);2804;2. Three Phase Circuits;2.2.1;2.2.1. find the line to neutral voltage and output line to line voltage and kVA and kW and kVAR;correct;runtime; -1094;Electric Machines(M. S. Sarma);2804;2. Three Phase Circuits;2.2.2;2.2.2. Find the phase current and line current and power factor and power absorbed;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2766;2. Work;2.1;2.1. chapter 2 example 1;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2766;2. Work;2.2;2.2. chapter 2 example 2;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2766;2. Work;2.3;2.3. chapter 2 example 3;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2767;3. Temperature and Heat;3.1;3.1. chapter 3 example 1;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2767;3. Temperature and Heat;3.2;3.2. chapter 3 example 2;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2767;3. Temperature and Heat;3.3;3.3. chapter 3 example 3;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2767;3. Temperature and Heat;3.4;3.4. chapter 3 example 4;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2768;5. First Law of Thermodynamics;5.1;5.1. Chapter 5 example 1;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2768;5. First Law of Thermodynamics;5.2;5.2. chapter 5 example 2;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2768;5. First Law of Thermodynamics;5.3;5.3. chapter 5 example 3;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2768;5. First Law of Thermodynamics;5.4;5.4. chapter 5 example 4;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2769;6. Flow Procesess First law analysis;6.1;6.1. Chapter 6 example 1;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2769;6. Flow Procesess First law analysis;6.2;6.2. chapter 6 example 2;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2769;6. Flow Procesess First law analysis;6.3;6.3. chapter 6 example 3;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2770;8. Basic applications of the second law;8.1;8.1. Chapter 8 example 1;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2770;8. Basic applications of the second law;8.2;8.2. chapter 8 example 2;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2770;8. Basic applications of the second law;8.3;8.3. chapter 8 example 3;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2770;8. Basic applications of the second law;8.4;8.4. chapter 8 example 4;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2770;8. Basic applications of the second law;8.5;8.5. chapter 8 example 5;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2770;8. Basic applications of the second law;8.6;8.6. chapter 8 example 6;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2771;10. Tabulated properties Steam Tables;10.1;10.1. Chapter 10 example 1;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2771;10. Tabulated properties Steam Tables;10.10;10.10. chapter 10 example 10;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2771;10. Tabulated properties Steam Tables;10.11;10.11. chapter 10 example 11;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2771;10. Tabulated properties Steam Tables;10.2;10.2. chapter 10 example 2;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2771;10. Tabulated properties Steam Tables;10.3;10.3. chapter 10 example 3;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2771;10. Tabulated properties Steam Tables;10.4;10.4. chapter 10 example 4;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2771;10. Tabulated properties Steam Tables;10.5;10.5. chapter 10 example 5;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2771;10. Tabulated properties Steam Tables;10.6;10.6. chapter 10 example 6;error;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2772;11. Properties of Gases;11.1;11.1. Chapter 11 example 1;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2772;11. Properties of Gases;11.2;11.2. chapter 11 example 2;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2772;11. Properties of Gases;11.4;11.4. chapter 11 example 4;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2772;11. Properties of Gases;11.5;11.5. chapter 11 example 5;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2773;12. Properties of Gaseous Mixtures;12.1;12.1. Chapter 12 example 1;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2773;12. Properties of Gaseous Mixtures;12.2;12.2. chapter 12 example 2;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2773;12. Properties of Gaseous Mixtures;12.3;12.3. chapter 12 example 3;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2773;12. Properties of Gaseous Mixtures;12.4;12.4. chapter 12 example 4;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2773;12. Properties of Gaseous Mixtures;12.5;12.5. chapter 12 example 5;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2774;13. Vapor cycles;13.1;13.1. Chapter 13 example 1;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2774;13. Vapor cycles;13.2;13.2. chapter 13 example 2;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2774;13. Vapor cycles;13.3;13.3. chapter 13 example 3;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2774;13. Vapor cycles;13.4;13.4. chapter 13 example 4;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2775;14. Combustion Processes First law analysis;14.1;14.1. Chapter 14 example 1;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2775;14. Combustion Processes First law analysis;14.4;14.4. chapter 14 example 4;error;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2775;14. Combustion Processes First law analysis;14.5;14.5. chapter 14 example 5;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2775;14. Combustion Processes First law analysis;14.6;14.6. chapter 14 example 6;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2775;14. Combustion Processes First law analysis;14.7;14.7. chapter 14 example 7;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2775;14. Combustion Processes First law analysis;14.8;14.8. chapter 14 example 8;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2776;15. Gas cycles;15.1;15.1. Chapter 15 example 1;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2776;15. Gas cycles;15.2;15.2. chapter 15 example 2;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2776;15. Gas cycles;15.3;15.3. chapter 15 example 3;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2777;16. Fluid Flow Nozzles and Turbines;16.1;16.1. chapter 16 example 1;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2777;16. Fluid Flow Nozzles and Turbines;16.2;16.2. chapter 16 example 2;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2777;16. Fluid Flow Nozzles and Turbines;16.3;16.3. chapter 16 example 3;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2778;17. Gas compression;17.1;17.1. chapter 17 example 1;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2778;17. Gas compression;17.2;17.2. chapter 17 example 2;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2778;17. Gas compression;17.3;17.3. chapter 17 example 3;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2778;17. Gas compression;17.4;17.4. chapter 17 example 4;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2779;18. Refrigeration;18.1;18.1. chapter 18 example 1;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2780;19. Heat Transmission;19.2;19.2. chapter 19 example 2;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2780;19. Heat Transmission;19.3;19.3. chapter 19 example 3;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2780;19. Heat Transmission;19.4;19.4. chapter 19 example 4;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2780;19. Heat Transmission;19.5;19.5. chapter 19 example 5;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2780;19. Heat Transmission;19.6;19.6. chapter 19 example 6;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2780;19. Heat Transmission;19.7;19.7. chapter 19 example 7;correct;runtime; -1100;Introduction To Thermodynamics And Heat Transfer(D. A. Mooney);2780;19. Heat Transmission;19.8;19.8. chapter 19 example 8;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2790;1. Integrated Circuit Fabrication;1.1;1.1. sheet resistance of Ptype diffusion;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2790;1. Integrated Circuit Fabrication;1.2;1.2. sheet resistance of polysilicon layer;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2791;2. Circuit Configurations for Linear ICs;2.1;2.1. current source to proide output current;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2791;2. Circuit Configurations for Linear ICs;2.2;2.2. identical transistor circuit;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2791;2. Circuit Configurations for Linear ICs;2.3;2.3. output current of transistor;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2791;2. Circuit Configurations for Linear ICs;2.4;2.4. resistance required to produce a current;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2791;2. Circuit Configurations for Linear ICs;2.5;2.5. multiple current source;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2791;2. Circuit Configurations for Linear ICs;2.6;2.6. design current source using MOSFET;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2791;2. Circuit Configurations for Linear ICs;2.7;2.7. differential amplifier CMRR;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2791;2. Circuit Configurations for Linear ICs;2.8;2.8. Qpoint of differential amplifier;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2791;2. Circuit Configurations for Linear ICs;2.9;2.9. Qpoint for MOSFET of differential amplifier;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.1;3.1. input stage with bias circuit;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.10;3.10. open loop dc voltage gain;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.11;3.11. time taken to change output;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.12;3.12. undistorted sine wave;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.13;3.13. max input signal for undistorted output;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.14;3.14. amplify square wave with rise time;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.15;3.15. effect of output voltage change on slew rate;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.16;3.16. max input frequency for undistorted output;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.17;3.17. max input voltage for undistorted output;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.18;3.18. noise gain of circuit;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.19;3.19. closed loop voltage gain;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.2;3.2. gain stage of Opamp;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.20;3.20. closed loop voltage gain and beta;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.21;3.21. noninverting amplifier circuit;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.22;3.22. noninverting amplifier with IL;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.23;3.23. capacitor coupled voltage follower;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.24;3.24. high impedence capacitor coupled voltage follower;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.25;3.25. high impedence capacitor coupled noninverting amplifier;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.26;3.26. capacitor coupled inverting amplifier;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.27;3.27. capacitor coupled noninverting amplifier;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.28;3.28. common mode gain Acm;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.29;3.29. differential amplifier with two opamp;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.3;3.3. output stage of opamp;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.4;3.4. average bias current;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.5;3.5. maximum output offset voltage;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.6;3.6. bias current compensation;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.7;3.7. Opamp drift specification;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.8;3.8. frequency response;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2792;3. Operational Amplifier Characteristics;3.9;3.9. unity gain bandwidth;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2793;4. Applications of Operational Amplifiers;4.1;4.1. phase lag circuit;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2793;4. Applications of Operational Amplifiers;4.10;4.10. design a differentiator;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2793;4. Applications of Operational Amplifiers;4.11;4.11. design a differentiator using opamp;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2793;4. Applications of Operational Amplifiers;4.12;4.12. solving differential equation using opamp;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2793;4. Applications of Operational Amplifiers;4.13;4.13. transfer function using opamp;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2793;4. Applications of Operational Amplifiers;4.2;4.2. output current;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2793;4. Applications of Operational Amplifiers;4.3;4.3. determine the current;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2793;4. Applications of Operational Amplifiers;4.4;4.4. determine the current through RL;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2793;4. Applications of Operational Amplifiers;4.5;4.5. determine load gain;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2793;4. Applications of Operational Amplifiers;4.6;4.6. voltage to current converter with floating load;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2793;4. Applications of Operational Amplifiers;4.7;4.7. summing amplifier;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2793;4. Applications of Operational Amplifiers;4.8;4.8. input impedence;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2793;4. Applications of Operational Amplifiers;4.9;4.9. practical integrator circuit;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2794;5. Operational Amplifier Nonlinear Circuits;5.1;5.1. transfer characteristics of comparator;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2794;5. Operational Amplifier Nonlinear Circuits;5.2;5.2. inverting schmitt trigger;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2794;5. Operational Amplifier Nonlinear Circuits;5.3;5.3. clipper circuit;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2794;5. Operational Amplifier Nonlinear Circuits;5.4;5.4. negative clamping circuit;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2795;6. Active Filters;6.1;6.1. first order low pass butterworth filter;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2795;6. Active Filters;6.10;6.10. bandpass filter;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2795;6. Active Filters;6.11;6.11. bandpass filter with resonant frequency;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2795;6. Active Filters;6.12;6.12. narrowband bandpass filter;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2795;6. Active Filters;6.13;6.13. narrowband bandpass filter with resonant frequency;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2795;6. Active Filters;6.14;6.14. clock frequency;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2795;6. Active Filters;6.2;6.2. first order low pass filter;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2795;6. Active Filters;6.3;6.3. second order low pass butterworth filter;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2795;6. Active Filters;6.4;6.4. second order low pass butterworth filter with uppercutoff frequency;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2795;6. Active Filters;6.5;6.5. third order low pass butterworth filter;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2795;6. Active Filters;6.6;6.6. fourth order low pass butterworth filter;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2795;6. Active Filters;6.7;6.7. first order high pass filter;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2795;6. Active Filters;6.8;6.8. second order high pass butterworth filter variable gain;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2795;6. Active Filters;6.9;6.9. fourth order high pass butterworth filter;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2876;7. Waveform Generators;7.1;7.1. RC Phase shift oscillator;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2876;7. Waveform Generators;7.10;7.10. Teletypewriter;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2876;7. Waveform Generators;7.2;7.2. Wien bridge oscillator;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2876;7. Waveform Generators;7.3;7.3. Astable multivibrator;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2876;7. Waveform Generators;7.4;7.4. Square wave oscillator;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2876;7. Waveform Generators;7.5;7.5. Triangular wave generator;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2876;7. Waveform Generators;7.6;7.6. Sawtooth wave generator;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2876;7. Waveform Generators;7.7;7.7. Monostable multivibrator;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2876;7. Waveform Generators;7.8;7.8. Frequency of oscillation;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2876;7. Waveform Generators;7.9;7.9. Astable multivibrator;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2877;8. Voltage Regulators;8.1;8.1. Linear Voltage Regulator;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2877;8. Voltage Regulators;8.2;8.2. 7805 Voltage Regulator;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2877;8. Voltage Regulators;8.3;8.3. 7805 Regulator Circuit;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2877;8. Voltage Regulators;8.4;8.4. LM317 Regulator;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2877;8. Voltage Regulators;8.5;8.5. Voltage regulator using LM317;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2877;8. Voltage Regulators;8.6;8.6. Current Limiting Circuit;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2877;8. Voltage Regulators;8.7;8.7. LM723 Regulator;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2877;8. Voltage Regulators;8.8;8.8. Continuously adjustable power supply;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2878;9. Analog Multipliers;9.1;9.1. DC Component;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2879;10. Phase Locked Loop;10.1;10.1. DC Control voltage;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2879;10. Phase Locked Loop;10.2;10.2. VCO Circuit;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2879;10. Phase Locked Loop;10.3;10.3. PLL565;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2879;10. Phase Locked Loop;10.4;10.4. IC565;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2879;10. Phase Locked Loop;10.5;10.5. IC565 Output frequency;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2879;10. Phase Locked Loop;10.6;10.6. PLL;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2879;10. Phase Locked Loop;10.7;10.7. IC565 as FM modulator;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2880;11. DAC and ADC;11.1;11.1. Resolution;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2880;11. DAC and ADC;11.10;11.10. Successive approximation ADC;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2880;11. DAC and ADC;11.2;11.2. DAC resolution;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2880;11. DAC and ADC;11.3;11.3. Ladder type DAC;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2880;11. DAC and ADC;11.4;11.4. 8bit DAC;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2880;11. DAC and ADC;11.5;11.5. 4bit converter;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2880;11. DAC and ADC;11.6;11.6. Inverted R2R ladder;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2880;11. DAC and ADC;11.7;11.7. Output voltage for digital input;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2880;11. DAC and ADC;11.8;11.8. Resolution and dynamic range;correct;runtime; -1106;Linear Integrated Circuits(S. Salivahanan And V. S. K. Bhaaskaran);2880;11. DAC and ADC;11.9;11.9. 8bit ADC;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);2764;1. Special Diodes;1.1;1.1. current through LED;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);2764;1. Special Diodes;1.2;1.2. transition capacitance and constant K;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);2765;2. Frequency Response;2.1;2.1. maximum voltage gain;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);2765;2. Frequency Response;2.2;2.2. gain of the amplifier;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);2765;2. Frequency Response;2.3;2.3. gain of an amplifier;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);2765;2. Frequency Response;2.4;2.4. low frequency response of the amplifier;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);2765;2. Frequency Response;2.5;2.5. low frequency response of the FET amplifier;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);2765;2. Frequency Response;2.6;2.6. high frequency response of the amplifier;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);2765;2. Frequency Response;2.7;2.7. high frequency response of the amplifier;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3401;3. Feedback Amplifiers;3.1;3.1. gain fL and fH;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3401;3. Feedback Amplifiers;3.10;3.10. Avf and Rif and Rof;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3401;3. Feedback Amplifiers;3.11;3.11. voltage gain and input and output resistance;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3401;3. Feedback Amplifiers;3.12;3.12. Ai and beta and Aif;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3401;3. Feedback Amplifiers;3.13;3.13. beta and Av and Avf and Rif and Rof;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3401;3. Feedback Amplifiers;3.14;3.14. gain and new bandwidth;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3401;3. Feedback Amplifiers;3.15;3.15. show voltage gain with feedback;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3401;3. Feedback Amplifiers;3.16;3.16. GMf and Rif and Rof;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3401;3. Feedback Amplifiers;3.17;3.17. feedback factor and Rif and Rof;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3401;3. Feedback Amplifiers;3.18;3.18. gain with feedback and new bandwidth;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3401;3. Feedback Amplifiers;3.19;3.19. overall voltage gain and bandwidth;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3401;3. Feedback Amplifiers;3.2;3.2. Vo and second harmonic distortion with feedback;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3401;3. Feedback Amplifiers;3.3;3.3. beta and Af;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3401;3. Feedback Amplifiers;3.4;3.4. beta and Av and Avf and Rif and Rof;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3401;3. Feedback Amplifiers;3.5;3.5. Avf and Rif and Rof;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3401;3. Feedback Amplifiers;3.6;3.6. Avf and Rif and Rof;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3401;3. Feedback Amplifiers;3.7;3.7. D and Avf and Rif and Rof;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3401;3. Feedback Amplifiers;3.8;3.8. voltage gain;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3401;3. Feedback Amplifiers;3.9;3.9. Avf;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.1;4.1. C and hfe;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.10;4.10. series and parallel resonant freqency;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.11;4.11. series and parallel resonant freqency;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.12;4.12. Varify Barkhausen criterion and find frequency of oscillation;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.13;4.13. minimum and maximum values of R2;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.14;4.14. frequency of oscillation and minimum hfe;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.15;4.15. range of frequency of oscillation;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.16;4.16. frequency of oscillation;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.17;4.17. gain of the transistor;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.18;4.18. new frequency and inductance;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.19;4.19. new frequency of oscillation;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.2;4.2. frequency of oscillation;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.20;4.20. R and hfe;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.21;4.21. component values of wien bridge;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.22;4.22. values of C2 and new frequency of oscillation;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.23;4.23. series and parallel resonant freqency and Qfactor;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.24;4.24. change in frequency and trimmer capacitance;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.25;4.25. design RC phase shift oscillator;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.26;4.26. range of capacitor;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.27;4.27. change in frequency of oscillation;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.3;4.3. R and C;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.4;4.4. C and RD;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.5;4.5. minimum and maximum R2;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.6;4.6. range over capacitor is varied;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.7;4.7. frequency of oscillation;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.8;4.8. frequency of oscillation;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3416;4. Oscillators;4.9;4.9. calculate C;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.1;5.1. design a combinational logic circuit;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.10;5.10. implement boolean function using 4to1 multiplexer;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.11;5.11. implement boolean function using 8to1 MUX;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.12;5.12. implement boolean function using 4to1 MUX;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.13;5.13. implement boolean function using 8to1 MUX;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.14;5.14. implement boolean function using 8to1 MUX;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.15;5.15. implement boolean function using 8to1 MUX;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.16;5.16. determine boolean expression;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.17;5.17. realize using 4 to 1 MUX;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.18;5.18. design 1 to 8 DEMUX;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.19;5.19. implement full subtractor;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.2;5.2. design a circuit with control line C and data lines;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.20;5.20. construst 1 to 32 DEMUX;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.21;5.21. design 3 to 8 decoder;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.22;5.22. design 5 to 32 decoder;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.23;5.23. design 4 line to 16 line decoder;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.24;5.24. implement using 74LS138;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.25;5.25. implement full substractor;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.26;5.26. implement gray to binary code converter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.27;5.27. design 2 bit comparator;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.28;5.28. design full adder circuit;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.29;5.29. implement BCD to 7 segment decoder;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.3;5.3. design combinational circuit;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.30;5.30. design interfacing diagram using decimal to BCD encoder;error;file_not_found;/var/www/scilab_in/uploads-backup/1133/CH5/EX5.30/ : NO SCILAB FILE INSIDE -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.31;5.31. implement 32 input to 5 output encoder;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.4;5.4. design logic circuit;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.5;5.5. design circuit to detect invalid BCD number;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.6;5.6. design two level combinational circuit;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.7;5.7. design 32 to 1 multiplexer;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.8;5.8. design a 32 to 1 multiplexer;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3418;5. Combinational Logic Circuits;5.9;5.9. implement boolean function using 8to1 multiplexer;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3419;6. Sequential Logic Circuits;6.4;6.4. analyze the circuit;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3420;7. Shift Registers;7.1;7.1. determine number of flip flops needed;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.1;8.1. count after 12 pulse;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.10;8.10. design a divide by 128 counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.11;8.11. design divide by 78 counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.12;8.12. design divide by 6 counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.13;8.13. find fmax;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.14;8.14. determine states;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.15;8.15. design MOD 10 counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.16;8.16. design down counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.17;8.17. design programmable frequency divider;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.18;8.18. design a counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.19;8.19. programmable frequency divider;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.2;8.2. count in binary;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.20;8.20. design divide by 2 and divide by 5 counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.21;8.21. design mod 9 counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.22;8.22. determine MOD number and counter range;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.23;8.23. design a divide by 20 counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.24;8.24. design divide by 96 counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.25;8.25. design divide by 93 counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.26;8.26. design divide by 78 counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.28;8.28. 7490 IC;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.30;8.30. sketch output waveforms of counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.31;8.31. explain operation of circuit;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.32;8.32. design divide by 40000 counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.33;8.33. design modulo 11 counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.34;8.34. design excess 3 decimal counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.35;8.35. modulus greater than 16;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.36;8.36. modulo 8 counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.37;8.37. synchronous decade counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.38;8.38. flip flops;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.39;8.39. design mod 5 synchronous counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.4;8.4. draw logic diagram;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.40;8.40. design MOD 4 down counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.41;8.41. design MOD 12 synchronous counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.42;8.42. design 4 bit 4 state ring counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.44;8.44. design 4 bit 8 state johnson counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.45;8.45. johnson counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.5;8.5. output frequency;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.6;8.6. maximum operating frequency;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.8;8.8. design 4 bit up down ripple counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3421;8. Counters;8.9;8.9. design divide by 9 counter;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.1;9.1. output voltage;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.10;9.10. calculate trip point and hysteresis;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.11;9.11. design schmitt trigger;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.12;9.12. design op amp schmitt trigger;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.13;9.13. VUT and VLT and frequency of oscillation;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.17;9.17. design op amp circuit;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.18;9.18. design monostable using IC 555;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.19;9.19. design a timer;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.20;9.20. draw timer using IC 555;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.21;9.21. frequency of output and duty cycle;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.26;9.26. design astable multivibrator;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.27;9.27. design astable multivibrator;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.28;9.28. design astable mode to generate square wave;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.3;9.3. input bias current;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.32;9.32. define resolution;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.33;9.33. output voltage;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.34;9.34. find VoFS;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.35;9.35. find out stepsize and analog output;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.36;9.36. find output voltage;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.38;9.38. find resolution and digital output;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.39;9.39. calculate quantizing error;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.4;9.4. design inverting schmitt trigger;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.40;9.40. dual scope ADC;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.41;9.41. find digital output of ADC;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.42;9.42. find conversion time;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.43;9.43. find maximum frequency of input sine wave;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.5;9.5. threshold voltage;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.6;9.6. tripping voltage;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.8;9.8. time duration;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3427;9. Op amp Applications;9.9;9.9. calculate R1 and R2;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3428;10. Voltage Regulators;10.1;10.1. find line and load regulation and ripple refection;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3428;10. Voltage Regulators;10.2;10.2. design op amp series voltage regulator;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3428;10. Voltage Regulators;10.4;10.4. calculate output voltage;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3428;10. Voltage Regulators;10.7;10.7. determine regulated output voltage;correct;runtime; -1133;Analog And Digital Electronics(U. A. Bakshi And A. P. Godse);3428;10. Voltage Regulators;10.8;10.8. find the range;correct;runtime; -1139;Programming With Java(E. Balagurusamy);2787;4. Constants Variables and Data Types;4.13;4.13. Write a program to determine the sum of the folowing harmonic series for a given value of n;error;runtime; -1139;Programming With Java(E. Balagurusamy);2787;4. Constants Variables and Data Types;4.14;4.14. Write a program to read the price of an item in decimal form and print the output in paise like 7595;error;runtime; -1139;Programming With Java(E. Balagurusamy);2787;4. Constants Variables and Data Types;4.15;4.15. Write a program to convert the given teprature in fahrenheit to celsius using the given conversion formula;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2825;2. Network Models;2.1;2.1. Bus topology LAN;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2825;2. Network Models;2.2;2.2. physical address example;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2825;2. Network Models;2.3;2.3. LAN and router communication;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2825;2. Network Models;2.4;2.4. Two computers communicating;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2825;2. Network Models;2.5;2.5. single number portaddress;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.1;3.1. Power in houses;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.10;3.10. Bandwidth spectrum;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.11;3.11. Bandwidth spectrum 2;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.12;3.12. Frequency domain of signal;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.13;3.13. AM Radio Bandwidth;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.14;3.14. FM Radio Bandwidth;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.15;3.15. Black and white TV;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.16;3.16. Bits per level;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.17;3.17. Bits per level 2;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.18;3.18. Download text document;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.19;3.19. Bitrate calculation;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.2;3.2. Battery voltage;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.20;3.20. HDTV bitrate;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.21;3.21. LAN;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.22;3.22. Base band transmission;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.23;3.23. Maximum bitrate calculation;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.24;3.24. Broadband transmission example;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.25;3.25. Digital cellular telephone;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.26;3.26. Attenuation calculation;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.27;3.27. Amplification calculation;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.28;3.28. Resultant decibel calculation;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.29;3.29. Pm from dBm;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.3;3.3. House power period;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.30;3.30. dB per km;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.31;3.31. SNR and SNRdB;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.32;3.32. Noiseless channel SNR and SNRdB;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.33;3.33. Nyquist and baseband transmission;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.34;3.34. Noiseless channel bitrate;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.35;3.35. Noiseless channel bitrate 2;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.36;3.36. Noiseless channel signal levels;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.37;3.37. C for extremely noisy channel;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.38;3.38. C for noisy channel;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.39;3.39. C using SNRdB;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.4;3.4. Period in microseconds;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.40;3.40. C formula simplification;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.41;3.41. Shannon and Nyquist formula;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.42;3.42. Modulation using modem;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.43;3.43. Increasing bandwidth of line;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.44;3.44. Throughput of network;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.45;3.45. Propagation time calculation;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.46;3.46. Propagation and transmission time;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.47;3.47. Propagation and transmission time 2;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.48;3.48. Bandwidth delay product;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.5;3.5. Frequency from period;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.6;3.6. Calculation of phase;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.7;3.7. Time and frequency domains;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.8;3.8. Periodic composite signal;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2854;3. Data and Signals;3.9;3.9. Nonperiodic composite signal;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2826;4. Digital Transmission;4.1;4.1. average baud rate;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2826;4. Digital Transmission;4.10;4.10. minimum sampling rate;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2826;4. Digital Transmission;4.11;4.11. bandpass sampling rate;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2826;4. Digital Transmission;4.12;4.12. SNR db formula;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2826;4. Digital Transmission;4.13;4.13. telephone bits per sample;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2826;4. Digital Transmission;4.14;4.14. human voice digitization;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2826;4. Digital Transmission;4.15;4.15. digital minimum bandwidth;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2826;4. Digital Transmission;4.2;4.2. Nyquist formula equivalence;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2826;4. Digital Transmission;4.3;4.3. Extra bits calculation;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2826;4. Digital Transmission;4.4;4.4. avg baud and min bandwidth;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2826;4. Digital Transmission;4.5;4.5. Block coding minimum bandwidth;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2826;4. Digital Transmission;4.6;4.6. sampling and recovery;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2826;4. Digital Transmission;4.7;4.7. Sampling of clock;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2826;4. Digital Transmission;4.8;4.8. wheel rotation undersampling;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2826;4. Digital Transmission;4.9;4.9. telephone sampling rate;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2827;5. Analog Transmission;5.1;5.1. analog signal bit rate;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2827;5. Analog Transmission;5.2;5.2. data and signal elements;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2827;5. Analog Transmission;5.3;5.3. ASK fc and bitrate;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2827;5. Analog Transmission;5.4;5.4. Full duplex ASK;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2827;5. Analog Transmission;5.5;5.5. FSK fc and bitrate;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2827;5. Analog Transmission;5.6;5.6. bandwidth of MFSK;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2827;5. Analog Transmission;5.7;5.7. bandwidth of QPSK;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2827;5. Analog Transmission;5.8;5.8. Three constellations diagrams;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2828;6. Bandwidth Utilization Multiplexing and Spreading;6.1;6.1. FDM configuration;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2828;6. Bandwidth Utilization Multiplexing and Spreading;6.10;6.10. 4 sources interleaving;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2828;6. Bandwidth Utilization Multiplexing and Spreading;6.11;6.11. 2 channels multiplexing;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2828;6. Bandwidth Utilization Multiplexing and Spreading;6.2;6.2. bandwidth with guards;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2828;6. Bandwidth Utilization Multiplexing and Spreading;6.3;6.3. satellite channel FDM;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2828;6. Bandwidth Utilization Multiplexing and Spreading;6.4;6.4. Advanced MobilePhone System;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2828;6. Bandwidth Utilization Multiplexing and Spreading;6.5;6.5. three durations calculation;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2828;6. Bandwidth Utilization Multiplexing and Spreading;6.6;6.6. Synchronous TDM;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2828;6. Bandwidth Utilization Multiplexing and Spreading;6.7;6.7. Four connections multiplexing;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2828;6. Bandwidth Utilization Multiplexing and Spreading;6.8;6.8. Four channels TDM;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2828;6. Bandwidth Utilization Multiplexing and Spreading;6.9;6.9. 2 bits timeslot;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2829;8. Switching;8.1;8.1. circuit switched network for telephones;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2829;8. Switching;8.2;8.2. circuit switched network of computers;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2829;8. Switching;8.3;8.3. Design a three stage switch;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2829;8. Switching;8.4;8.4. Clos criteria switch;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.1;10.1. block coding error;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.10;10.10. linear block codes;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.11;10.11. d min calculation;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.12;10.12. some transmission scenarios;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.13;10.13. path of three datawords;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.14;10.14. calculate k and n;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.15;10.15. single bit error;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.16;10.16. two isolated single bit errors;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.17;10.17. burst error generators;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.18;10.18. sum error detection;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.19;10.19. checksum error detection;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.2;10.2. 2 bit dataword;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.20;10.20. 21 1s complement;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.21;10.21. negative 1s complement;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.22;10.22. complement checksum error;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.23;10.23. Forouzan text checksum;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.3;10.3. 3 redundant bits codeword;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.4;10.4. find Hamming distance;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.5;10.5. minimum Hamming distance;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.6;10.6. minimum Hamming distance 2;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.7;10.7. error detection and correction;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.8;10.8. block code dmin;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2830;10. Error Detection and Correction;10.9;10.9. Hamming distance dmin 4;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2843;11. Data link control;11.1;11.1. Simplest protocol;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2843;11. Data link control;11.10;11.10. Piggybacking without Error;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2843;11. Data link control;11.11;11.11. Piggybacking with Error;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2843;11. Data link control;11.12;11.12. Network layer packet;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2843;11. Data link control;11.2;11.2. Stop and wait;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2843;11. Data link control;11.3;11.3. Stop and wait ARQ;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2843;11. Data link control;11.4;11.4. Bandwidth delay product;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2843;11. Data link control;11.5;11.5. link utilization percentage;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2843;11. Data link control;11.6;11.6. Go Back N;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2843;11. Data link control;11.7;11.7. loss of frame;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2843;11. Data link control;11.8;11.8. Selective Repeat ARQ;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2843;11. Data link control;11.9;11.9. Connection and disconnection;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2844;12. Multiple Access;12.1;12.1. ALOHA TB calculation;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2844;12. Multiple Access;12.2;12.2. Collision free ALOHA;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2844;12. Multiple Access;12.3;12.3. Pure ALOHA throughput;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2844;12. Multiple Access;12.4;12.4. Slotted ALOHA throughput;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2844;12. Multiple Access;12.5;12.5. Minimum frame size;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2844;12. Multiple Access;12.6;12.6. Chips for network;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2844;12. Multiple Access;12.7;12.7. Number of sequences;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2844;12. Multiple Access;12.8;12.8. Proof;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2784;13. Wired LANs Ethernet;13.1;13.1. Define the type;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2784;13. Wired LANs Ethernet;13.2;13.2. Sending the address;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2785;16. Wireless WANs Cellular Telephone and Satellite Networks;16.1;16.1. Period of moon;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2785;16. Wireless WANs Cellular Telephone and Satellite Networks;16.2;16.2. Period of geostationary satellite;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2845;17. SONET SDH;17.1;17.1. Datarate of STS1;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2845;17. SONET SDH;17.2;17.2. Datarate of STS3;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2845;17. SONET SDH;17.3;17.3. Duration of STSs;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2845;17. SONET SDH;17.4;17.4. User datarate STS1;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2845;17. SONET SDH;17.5;17.5. H1 and H2;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2786;19. Network layer Logical addressing;19.1;19.1. Dotted decimal notation;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2786;19. Network layer Logical addressing;19.10;19.10. design sub blocks;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2786;19. Network layer Logical addressing;19.11;19.11. find original address;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2786;19. Network layer Logical addressing;19.2;19.2. Binary notation;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2786;19. Network layer Logical addressing;19.3;19.3. Find the error;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2786;19. Network layer Logical addressing;19.4;19.4. Find the class;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2786;19. Network layer Logical addressing;19.5;19.5. block of addresses;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2786;19. Network layer Logical addressing;19.6;19.6. Find first address;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2786;19. Network layer Logical addressing;19.7;19.7. Find last address;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2786;19. Network layer Logical addressing;19.8;19.8. number of addresses;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2786;19. Network layer Logical addressing;19.9;19.9. addresses using mask;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2846;20. Network Layer Internet Protocol;20.1;20.1. Acceptance of packet;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2846;20. Network Layer Internet Protocol;20.10;20.10. IPv4 header checksum;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2846;20. Network Layer Internet Protocol;20.2;20.2. Bytes of options;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2846;20. Network Layer Internet Protocol;20.3;20.3. Bytes of data;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2846;20. Network Layer Internet Protocol;20.4;20.4. Time and protocol;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2846;20. Network Layer Internet Protocol;20.5;20.5. M equals 0;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2846;20. Network Layer Internet Protocol;20.6;20.6. M equals 1;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2846;20. Network Layer Internet Protocol;20.7;20.7. M and offset;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2846;20. Network Layer Internet Protocol;20.8;20.8. First byte number;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2846;20. Network Layer Internet Protocol;20.9;20.9. First and last byte number;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2847;21. Network Layer Address Mapping Error Reporting and Multicasting;21.1;21.1. ARP request and reply;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2847;21. Network Layer Address Mapping Error Reporting and Multicasting;21.2;21.2. Echo request message checksum;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2847;21. Network Layer Address Mapping Error Reporting and Multicasting;21.3;21.3. ping program;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2847;21. Network Layer Address Mapping Error Reporting and Multicasting;21.4;21.4. trace route program;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2847;21. Network Layer Address Mapping Error Reporting and Multicasting;21.5;21.5. trace longer route;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2847;21. Network Layer Address Mapping Error Reporting and Multicasting;21.6;21.6. report messages sequence;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2847;21. Network Layer Address Mapping Error Reporting and Multicasting;21.7;21.7. Ethernet multicast physical address;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2847;21. Network Layer Address Mapping Error Reporting and Multicasting;21.8;21.8. Ethernet multicast address;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2847;21. Network Layer Address Mapping Error Reporting and Multicasting;21.9;21.9. netstat nra;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2805;22. Network layer Delivery Forwarding and Routing;22.1;22.1. Routing Table for router;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2805;22. Network layer Delivery Forwarding and Routing;22.2;22.2. Forwarding process 1;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2805;22. Network layer Delivery Forwarding and Routing;22.3;22.3. Forwarding process 2;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2805;22. Network layer Delivery Forwarding and Routing;22.4;22.4. Forwarding process 3;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2805;22. Network layer Delivery Forwarding and Routing;22.5;22.5. Hierarchical routing;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2805;22. Network layer Delivery Forwarding and Routing;22.6;22.6. netstat and ifconfig;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2848;23. Process to Process Delivery UDp TCp and SCTP;23.1;23.1. grep etc services;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2848;23. Process to Process Delivery UDp TCp and SCTP;23.2;23.2. Checksum with padding;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2848;23. Process to Process Delivery UDp TCp and SCTP;23.3;23.3. Segment sequence number;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2848;23. Process to Process Delivery UDp TCp and SCTP;23.4;23.4. Value of rwnd;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2848;23. Process to Process Delivery UDp TCp and SCTP;23.5;23.5. Window for host;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2848;23. Process to Process Delivery UDp TCp and SCTP;23.6;23.6. Unrealistic sliding window;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2849;26. Remote Logging Electronic Mail and File Transfer;26.1;26.1. Option negotiation;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2849;26. Remote Logging Electronic Mail and File Transfer;26.2;26.2. Suboption negotiation;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2849;26. Remote Logging Electronic Mail and File Transfer;26.3;26.3. Email using SMTP;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2849;26. Remote Logging Electronic Mail and File Transfer;26.4;26.4. FTP session;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2849;26. Remote Logging Electronic Mail and File Transfer;26.5;26.5. Anonymous FTP;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2850;27. WWW and HTTP;27.1;27.1. Retrieving document using GET;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2850;27. WWW and HTTP;27.2;27.2. Send data using POST;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2850;27. WWW and HTTP;27.3;27.3. Connect to server using TELNET;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2851;28. Network Management SNMP;28.1;28.1. Define INTEGER 14;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2851;28. Network Management SNMP;28.2;28.2. Define OCTETSTRING HI;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2851;28. Network Management SNMP;28.3;28.3. Define ObjectIdentifier;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2851;28. Network Management SNMP;28.4;28.4. Define IPAddress;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2851;28. Network Management SNMP;28.5;28.5. SNMP message to retrieve UDP datagrams;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2852;30. Cryptography;30.1;30.1. Monoalphabetic cipher;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2852;30. Cryptography;30.10;30.10. Diffie Hellman method;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2852;30. Cryptography;30.2;30.2. Polyalphabetic cipher;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2852;30. Cryptography;30.3;30.3. Shiftkey 15 encryption;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2852;30. Cryptography;30.4;30.4. Shiftkey 15 decryption;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2852;30. Cryptography;30.5;30.5. Encryption of message;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2852;30. Cryptography;30.6;30.6. Decryption of message;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2852;30. Cryptography;30.7;30.7. RSA plaintext 5;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2852;30. Cryptography;30.8;30.8. RSA message NO;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2852;30. Cryptography;30.9;30.9. RSA realistic example;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2853;31. Network Security;31.1;31.1. Lossless compression method;correct;runtime; -1163;Data Communications And Networking(B. A. Forouzan);2853;31. Network Security;31.2;31.2. Checksum method;correct;runtime; -1181;Introduction To Fluid Mechanics And Fluid Machines(S. K. Som And G. Biswas );2868;1. Introduction And FUndamental Concepts;1.1;1.1. calculatingshearstress;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3102;1. Introduction to Electronic communication ;1.1.a;1.1.a. Calculate the wavelength of given frequency;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3102;1. Introduction to Electronic communication ;1.1.b;1.1.b. Calculate the Wavelength of given frequency;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3102;1. Introduction to Electronic communication ;1.1.c;1.1.c. Calculate the Wavelength of given frequency;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3102;1. Introduction to Electronic communication ;1.1.d;1.1.d. Calculate the wavelength of given frequency;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3102;1. Introduction to Electronic communication ;1.2;1.2. Calculate the frequency of the signal with given wavelength;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3102;1. Introduction to Electronic communication ;1.3;1.3. Calculate the frequency of the signal;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3102;1. Introduction to Electronic communication ;1.4;1.4. Calculate the frequency of the electromagnetic wave;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3102;1. Introduction to Electronic communication ;1.5;1.5. Calculate the bandwidth;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3102;1. Introduction to Electronic communication ;1.6;1.6. Calculate the upper frequency limit from bandwidth;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.1;2.1. Calculate the voltage gain of the amplifier ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.10;2.10. Calculate the power gain for the power amplifier ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.11;2.11. Calculate the output power of the amplifier ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.12;2.12. Calculate the input voltage given to the circuit consisting of two amplifiers;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.13;2.13. Calculate the power in watts;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.14;2.14. Calculate the resonant frequency of the circuit;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.15;2.15. Calculate the value of inductor required for the resonance of the circuit ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.16;2.16. Calculate the bandwidth of the resonant circuit ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.17;2.17. Calculate the bandwidth resonant frequency and quality factor of the resonant circuit;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.18;2.18. Calculate the 3dB down frequencies for the resonant circuit;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.19;2.19. Calculate the voltage across the capacitor of the resonant circuit;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.2;2.2. Calculate the input power given to the amplifier;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.20;2.20. Calculate the impedance of the parallel LC circuit;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.21;2.21. Calculate the impedance of the circuit ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.22;2.22. Calculate the value of resistor required to set the bandwidth of a parallel tuned circuit to 1 Mhz;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.23;2.23. Calculate the cutoff frequency of the single section RC low pass filter ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.24;2.24. Calculate the closest resistor value for the cutoff frequency ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.25;2.25. Calculate the value of the capacitor required in RC twin T notch filter ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.26;2.26. Calculate the frequency and rms value of the fifth harmonic of the square wave;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.27;2.27. Calculate the average dc value signal and the minimum bandwidth necessary to pass signal without excessive distortion ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.28;2.28. Calculate the bandwidth required to pass the pulse train ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.29;2.29. Calculate the fastest rise time that can passed by the circuit ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.3;2.3. Calculate the output power of the three cascaded amplifier;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.30;2.30. Calculate the rise time of the displayed square wave;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.4;2.4. Calculate gain of the second stage of two cascaded amplifiers;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.5.a;2.5.a. Calculate the attenuation ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.5.b;2.5.b. Calculate amplifier gain need to offset the loss for an overall gain of 1;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.6;2.6. Calculate the attenuation factor for the amplifier;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.7.a;2.7.a. Calculate the gain of amplifier ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.7.b;2.7.b. Calculate attenuation of the filter ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.8;2.8. Calculate the input power given to amplifier ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3175;2. The Fundamentals of Electronics A Review;2.9;2.9. Calculate the output voltage of the amplifier;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3189;3. Amplitude Modulation Fundamentals ;3.1;3.1. Calculate modulation index Vc and Vm for the AM signal ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3189;3. Amplitude Modulation Fundamentals ;3.2;3.2. Calculate the frequencies of the lower and upper sideband of the standard AM broadcast station and also calculate bandwidth;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3189;3. Amplitude Modulation Fundamentals ;3.3;3.3. Calculate the total power and power in one sideband ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3189;3. Amplitude Modulation Fundamentals ;3.4;3.4. Calculate the carrier power total powerand sideband power ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3189;3. Amplitude Modulation Fundamentals ;3.5;3.5. Calculate the percentage of modulation;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3189;3. Amplitude Modulation Fundamentals ;3.6;3.6. Calculate the power in one sideband of the transmitter ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3189;3. Amplitude Modulation Fundamentals ;3.7;3.7. Calculate the Peak Envelop Power for the SSB transmitter;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3189;3. Amplitude Modulation Fundamentals ;3.8;3.8. Calculate the Peak Envelope Power and average power of the transmitter;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3190;4. Amplitude Modulator and Demodulator circuits;4.1;4.1. Calculate the RF input power AF powe carrier output power Power in one sideband maximum and minimum dc supply voltage swing ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3190;4. Amplitude Modulator and Demodulator circuits;4.2;4.2. Calculate the upper and lower sideband ranges of the SSB transmitter and center frequency of a bandpass filter ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3191;5. Fundamentals of Frequency Modulation;5.1;5.1. Calculate the maximum and minimum frequencies that occur during modulation;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3191;5. Fundamentals of Frequency Modulation;5.2;5.2. Calculate the deviation of TV sound ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3191;5. Fundamentals of Frequency Modulation;5.3;5.3. Calculate the maximum modulating frequency;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3191;5. Fundamentals of Frequency Modulation;5.4;5.4. Sate the amplitudes of the carrier and four sidebands of FM signal;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3191;5. Fundamentals of Frequency Modulation;5.5;5.5. Calculate the bandwidth of the FM signal ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3191;5. Fundamentals of Frequency Modulation;5.6;5.6. Calculate the frequency deviation caused by the noise and improved output signal to noise ratio;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3192;6. FM circuits;6.1;6.1. Calculate the value of the inductor required to resonate the circuit ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3192;6. FM circuits;6.2;6.2. Calculate the frequency of the carrier crystal oscillator and the phase shift require to produce the necessary deviation ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3192;6. FM circuits;6.3;6.3. Calculate two capacitance values require to achieve the total deviation for the FM transmitter;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3193;7. Digital Communication Techniques;7.1;7.1. Calculate the signal frequency fourth harmonic and minimum sampling frequency;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3193;7. Digital Communication Techniques;7.2;7.2. Calculate the number of discrete levels represented by the ADC Number of voltage increments used to divide the voltage range and the resolution of the digitization;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3193;7. Digital Communication Techniques;7.3;7.3. Calculate the SINAD and ENOB;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3193;7. Digital Communication Techniques;7.4;7.4. Calculate the output voltage and gain of the compander;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3193;7. Digital Communication Techniques;7.5;7.5. Calculate the output voltage and gain of the compander;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3194;8. Radio Transmitters ;8.1;8.1. Calculate the maximum and the minimum frequencies of the crystal given the stability of the crystal;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3194;8. Radio Transmitters ;8.2;8.2. Calculate output frequency of the transmitter and maximum and minimum frequencies that can be achieved by the transmitter ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3194;8. Radio Transmitters ;8.3;8.3. Calculate the output frequency of the synthesizer;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3194;8. Radio Transmitters ;8.4;8.4. Find that step change in theoutput frequency of the synthesizer is equal to the phase detector reference range ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3195;9. Communication Receivers ;9.1;9.1. Calculate the local oscillator tuning range the frequency of the second local oscillator and first IF image frequency range of the Superheterodyne receiver;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3195;9. Communication Receivers ;9.2;9.2. Calculate the open circuit noise voltage;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3195;9. Communication Receivers ;9.3;9.3. What is the input thermal noise voltage of a receiver;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3195;9. Communication Receivers ;9.4;9.4. Calculate the average noise power of a device;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3195;9. Communication Receivers ;9.5;9.5. Calculate the noise factor and noise figure of the RF amplifier ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3195;9. Communication Receivers ;9.6;9.6. Calculate the input noise power the input signal power signal to noise ratio in decibels for receiver and noise factor signal to noise ratio and noise temperature for the amplifier;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3196;10. Multiplexing and Demultiplexing ;10.1;10.1. Calculate the number of cahnnels carried by the cable TV service;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3196;10. Multiplexing and Demultiplexing ;10.2;10.2. Calculate the number of available data channels number of bits per frame serial data rate for the PCM system;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3197;11. The Transmission of Binary data in Communication Systems ;11.1;11.1. Calculate the time required to transmit single word single bit and speed of transmission for the serially transmitted data;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3197;11. The Transmission of Binary data in Communication Systems ;11.2;11.2. Calculate the maximum theoretical data rate the maximum theoretical channel capacity and the number coding levels required to achieve the maximum speed;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3197;11. The Transmission of Binary data in Communication Systems ;11.3;11.3. Calculate the average number of errors that can be expected in the transmission;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3198;12. Introduction to Networking and Local Area Network;12.1;12.1. Calculate the number of interconnecting wires required to communicate with each PC in the office;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3198;12. Introduction to Networking and Local Area Network;12.2;12.2. Calculate the time required for the transmission of data on Ethernet packet and Token ring packet;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3199;13. Transmission Lines;13.1;13.1. 1 Calculate the length of the cable considered to be a transmission line;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3199;13. Transmission Lines;13.2;13.2. Calculate the physical length of the transmission line ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3199;13. Transmission Lines;13.3;13.3. Calculate the total attenuation and output power of the antenna ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3199;13. Transmission Lines;13.4;13.4. Calculate the load impedance equivalent inductance time delay phase shift and total attenuation of the cable;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3199;13. Transmission Lines;13.5;13.5. Calculate the SWR reflection coefficient and value of resistive load;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3199;13. Transmission Lines;13.6;13.6. Calculate the output power of the cable ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3199;13. Transmission Lines;13.7;13.7. Calculate the characteristics impedance of the microstrip transmission line and the reactance of the capacitor;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3199;13. Transmission Lines;13.8;13.8. Calculate the length of the transmission line ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3200;14. Antennas and Wave Propagation ;14.1;14.1. Calculate the length and radiation resistance for different antennas ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3200;14. Antennas and Wave Propagation ;14.2;14.2. Calculate the transmission line loss and effective radiated power;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3200;14. Antennas and Wave Propagation ;14.3;14.3. Calculate the length of the impedance matching section ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3200;14. Antennas and Wave Propagation ;14.4;14.4. Calculate the length of the impedance matching section ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3200;14. Antennas and Wave Propagation ;14.5;14.5. Calculate the maximum transmitting distance and received power at that distance;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3201;16. Microwave Communication;16.1;16.1. Calculate the required impedance of the microstrip and its length;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3201;16. Microwave Communication;16.2;16.2. Calculate the cutoff frequency and operating frequency of the rectangular waveguide;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3201;16. Microwave Communication;16.3;16.3. Criterion for the operation of rectangular waveguide in the C band ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3201;16. Microwave Communication;16.4;16.4. Calculate the lowest possible operating frequency gain and beam width for the parabolic reflector;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3201;16. Microwave Communication;16.5;16.5. Calculate line of sight distance to aircraft and the altitude of the aircraft ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3202;17. Satellite Communication ;17.1;17.1. Calculate the approximate azimuth and elevation setting of the antenna;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3202;17. Satellite Communication ;17.2;17.2. Calculate the uplink frequency and the maximum theoretical data rate of satellite transponder ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3202;17. Satellite Communication ;17.3;17.3. Calculate local oscillator frequency to achieve the desired IF;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3205;19. Optical Communication;19.1;19.1. Calculate the critical angle of the fiber optic cable ;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3205;19. Optical Communication;19.2;19.2. Calculate the bandwidth of the cable;correct;runtime; -1184;Principles Of Electronic Communication Systems(L. E. Frenzel);3205;19. Optical Communication;19.3;19.3. Calculate the dispersion factor of the fiber optic cable;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2841;1. Measurement of phase and frequency;1.1;1.1. To Calculate the inductance of the circuit and resonant frequency;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.1;2.1. To Calculate the displacement of the free end;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.10;2.10. To plot the graph of error versus K;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.11;2.11. Calculating the output voltage;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.12;2.12. Calculating the maximum excitation voltage and the sensitivity;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.13;2.13. Calculating the resolution of the potentiometer;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.14;2.14. Checking the suitability of the potentiometer;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.15;2.15. Checking the suitability of the potentiometer;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.16;2.16. Calculating the possions ratio;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.17;2.17. Calculating the value of the resistance of the gauges;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.18;2.18. Calculating the percentage change in value of the gauge resistance;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.19;2.19. Calculating the Gauge factor;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.2;2.2. To calculate the natural length of the spring and dispacement;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.20;2.20. Calculating the change in length and the force applied;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.21;2.21. To calculate the linear approximation;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.22;2.22. Calculate the linear approximation;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.23;2.23. Calculate the resistance and the temperature;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.24;2.24. Calculate the resistance;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.25;2.25. Calculate the time;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.26;2.26. To Calculate the resistance;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.27;2.27. Calculating the resistance;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.28;2.28. calculating the change in temperature;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.29;2.29. calculating the frequencies of oscillation;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.3;2.3. To calculate the deflection at center and natural frequency of the diaphragm;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.30;2.30. Calculating the sensitivity and maximum output voltage;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.31;2.31. Calculating the temperature;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.32;2.32. Calcating the series resistance and approximate error;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.33;2.33. Calculate the values of resistance R1 and R2;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.34;2.34. Design the circuit;error;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.35;2.35. Calculate the change in inductance;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.36;2.36. Calculate the percentage linearity;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.37;2.37. Calculate senstivity of the LVDT Instrument and resolution of instrument in mm;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.38;2.38. calculate the deflection maximum and minimum force;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.39;2.39. calculating the sensitivity of the transducer;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.4;2.4. To calculate the angle of twist;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.40;2.40. Calculate the value of the capacitance afte the application of pressure;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.41;2.41. Calculate the change in frequency of the oscillator;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.42;2.42. Calculate the dielectric stress change in value of capacitance;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.43;2.43. Calculate the value of time constant phase shift series resistance amplitude ratio and voltage sensitivity;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.44;2.44. Calculate the change in capacitance and ratio;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.47;2.47. Calculate the output voltage and charge sensitivity;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.48;2.48. Calculate the force;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.49;2.49. Calculate the strain charge and capacitance;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.5;2.5. To calculate Reynoids number and differential pressure and deflection at the center of diaphragm;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.50;2.50. Calculate peak to peak voltage swing under open and loaded conditions and calculate maximum change in crystal thickness;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.51;2.51. Calculate the minimum frequency and phase shift;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.52;2.52. calculate sensitivity of the transducer high frequency sensitivity Lowest frequency and Calculate external shunt capacitance and high frequency sensitivity after connecting the external shunt capacitance;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.53;2.53. Calculate output voltage 10 ms after the application of impulse;error;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.54;2.54. prove time constant should be approximately 20T to keep undershoot within 5 percent;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.55;2.55. Calculate the output voltage;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.56;2.56. Calculate the external resistance and dark current;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.57;2.57. Calculate the output voltage of bridge;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.6;2.6. To calculate mean velocity of water and velocity of air;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.7;2.7. To calculate depth of flow;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.8;2.8. To calculate uncertinity in discharge;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2842;2. Primary sensing elements and transducers;2.9;2.9. To calculate the displacement and resolution of the potentiometer;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2869;3. Measurement of non electrical quantities;3.1;3.1. To calculate the optimum setting;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2869;3. Measurement of non electrical quantities;3.2;3.2. Calculating the radius of curvature;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2869;3. Measurement of non electrical quantities;3.3;3.3. Calculating the vertical displacement;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2869;3. Measurement of non electrical quantities;3.4;3.4. To calculate the true temperature;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2869;3. Measurement of non electrical quantities;3.5;3.5. To calculate the error in the measurement of temperature;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2869;3. Measurement of non electrical quantities;3.6;3.6. To calculate average flow rate and percentage decrease in voltage;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2870;4. Telemetry and data acquisition system;4.1;4.1. To calculate the frequencies present in output;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2870;4. Telemetry and data acquisition system;4.10;4.10. Calculating the fuel level;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2870;4. Telemetry and data acquisition system;4.11;4.11. Calculating the lowest practical sampling rate;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2870;4. Telemetry and data acquisition system;4.12;4.12. Calculating the maximum possible data transmission rate minimum sampling rate per channel and maximum number of channels;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2870;4. Telemetry and data acquisition system;4.13;4.13. Calculating the cut off frequency;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2870;4. Telemetry and data acquisition system;4.14;4.14. Calculating the number of transmission channels;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2870;4. Telemetry and data acquisition system;4.15;4.15. Calculating bandwidth of intelligence and rise time;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2870;4. Telemetry and data acquisition system;4.2;4.2. To calculate the frequencies range occupied by the side bands;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2870;4. Telemetry and data acquisition system;4.3;4.3. To calculate the radiation power;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2870;4. Telemetry and data acquisition system;4.4;4.4. To calculate the modulation indicies;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2870;4. Telemetry and data acquisition system;4.5;4.5. Calculating the carrier modulating frequencies modulation index maximum deviation and power dissipation;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2870;4. Telemetry and data acquisition system;4.6;4.6. Calculating bandwidth of intelligence and rise time;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2870;4. Telemetry and data acquisition system;4.7;4.7. Write down the voltage expression;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2870;4. Telemetry and data acquisition system;4.8;4.8. Calculating the quantization error;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2870;4. Telemetry and data acquisition system;4.9;4.9. Calculating the minimum carrier chnnel bandwidth;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2910;5. Advanced measuring instruments;5.1;5.1. calculating number of turns and current;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2910;5. Advanced measuring instruments;5.2;5.2. Calculating the frequency range;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2910;5. Advanced measuring instruments;5.3;5.3. Calculating the phase displacement for the fundamental and 5th harmonic;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2910;5. Advanced measuring instruments;5.4;5.4. Calculate the percentage errors in the production of harmonics;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2910;5. Advanced measuring instruments;5.5;5.5. Calculating the speed of the tape;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2910;5. Advanced measuring instruments;5.6;5.6. Calculating the number density of the tape;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2911;6. Cathode ray oscilloscope;6.1;6.1. calculating the amplitude of voltage after 10 ms;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2911;6. Cathode ray oscilloscope;6.10;6.10. Calculating the input voltage required for deflection of 3mm;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2911;6. Cathode ray oscilloscope;6.11;6.11. Calculating the velocity of the beam and cutt off frequency;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2911;6. Cathode ray oscilloscope;6.2;6.2. calculating the voltage across the capacitor after 50 microsecond;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2911;6. Cathode ray oscilloscope;6.3;6.3. Calculating the rise time;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2911;6. Cathode ray oscilloscope;6.4;6.4. Calculating the attenuation factor;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2911;6. Cathode ray oscilloscope;6.5;6.5. Calculating the attenuation factor;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2911;6. Cathode ray oscilloscope;6.6;6.6. Calculating the voltage per division voltage value;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2911;6. Cathode ray oscilloscope;6.7;6.7. Compare the output voltage of the voltage divider attenuator for dc and ac ;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2911;6. Cathode ray oscilloscope;6.8;6.8. Calculating the maximum velocity of the beam of electrons;correct;runtime; -1199;Advanced Measurements And Instrumentation(A. K. Sawhney);2911;6. Cathode ray oscilloscope;6.9;6.9. Calculating the maximum velocity of the beam of electrons deflection sensitivity and deflection factor;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3521;2. Theoretical Models of Chemical Processes;2.1;2.1. Stirred tank blending process;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3521;2. Theoretical Models of Chemical Processes;2.2;2.2. Degrees of freedom 1;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3521;2. Theoretical Models of Chemical Processes;2.3;2.3. Degrees of freedom 2;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3521;2. Theoretical Models of Chemical Processes;2.4;2.4. Electrically heated stirred tank process;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3521;2. Theoretical Models of Chemical Processes;2.5;2.5. Nonlinear dynamic behavior of CSTR;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3522;6. Development of Empirical Models from Process Data;6.1;6.1. Gas turbine generator;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3522;6. Development of Empirical Models from Process Data;6.2;6.2. Continuous stirred tank reactor;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3522;6. Development of Empirical Models from Process Data;6.3;6.3. Off gas C02 concentration response;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3522;6. Development of Empirical Models from Process Data;6.5;6.5. Estimation of model parameters;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3522;6. Development of Empirical Models from Process Data;6.6;6.6. Step test of distillation column;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3523;8. Control System Instrumentation;8.2;8.2. Pump and heat exchanger system;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3545;9. Process Safety and Process Control;9.1;9.1. Liquid surge system;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3545;9. Process Safety and Process Control;9.2;9.2. Abnormal event in distillation column;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3545;9. Process Safety and Process Control;9.3;9.3. Reliability of flow control loop;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3531;10. Dynamic Behavior and Stability of Closed Loop Control Systems;10.10;10.10. Routh Array 1;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3531;10. Dynamic Behavior and Stability of Closed Loop Control Systems;10.11;10.11. Routh Array 2;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3531;10. Dynamic Behavior and Stability of Closed Loop Control Systems;10.13;10.13. Root Locus;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3531;10. Dynamic Behavior and Stability of Closed Loop Control Systems;10.14;10.14. Transient response from root locus;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3531;10. Dynamic Behavior and Stability of Closed Loop Control Systems;10.2;10.2. Set point response of level control system;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3531;10. Dynamic Behavior and Stability of Closed Loop Control Systems;10.3;10.3. Disturbance response of level control system;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3531;10. Dynamic Behavior and Stability of Closed Loop Control Systems;10.4;10.4. Stability of feedback control system;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3543;11. PID Controller Design Tuning and Troubleshooting;11.1;11.1. Direct synthesis for PID;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3543;11. PID Controller Design Tuning and Troubleshooting;11.3;11.3. PI and PID control of liquid storage tank;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3543;11. PID Controller Design Tuning and Troubleshooting;11.4;11.4. IMC for lag dominant model;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3543;11. PID Controller Design Tuning and Troubleshooting;11.5;11.5. PI controller IMC ITAE;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3543;11. PID Controller Design Tuning and Troubleshooting;11.6;11.6. Controller with two degrees of freedom;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3543;11. PID Controller Design Tuning and Troubleshooting;11.7;11.7. Continuous cycling method;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3543;11. PID Controller Design Tuning and Troubleshooting;11.8;11.8. Reaction curve method;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3551;12. Control Strategies at the Process Unit Level;12.1;12.1. Degrees of freedom;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3532;13. Frequency response analysis and control system design;13.3;13.3. Bode Plot;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3532;13. Frequency response analysis and control system design;13.4;13.4. Bode;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3532;13. Frequency response analysis and control system design;13.5;13.5. PI control of overdamped second order process;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3532;13. Frequency response analysis and control system design;13.6;13.6. Bode plot;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3532;13. Frequency response analysis and control system design;13.7;13.7. Bode Plot;error;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3532;13. Frequency response analysis and control system design;13.8;13.8. Maximum permissible time delay for stability;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3541;14. Feedforward and Ratio Control;14.1;14.1. Ratio control;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3541;14. Feedforward and Ratio Control;14.5;14.5. Feedforward control in blending process;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3529;15. Enhanced Single Loop Control Strategies;15.1;15.1. Stability limits for proportional cascade controller;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3529;15. Enhanced Single Loop Control Strategies;15.2;15.2. Set point response for second order transfer function;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3546;16. Multiloop and Multivariable Control;16.6;16.6. Sensitivity of steady state gain matrix;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3546;16. Multiloop and Multivariable Control;16.7;16.7. Preferred multiloop control strategy;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3547;17. Digital Sampling Filtering and Control;17.1;17.1. Performance of alternative filters;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3547;17. Digital Sampling Filtering and Control;17.2;17.2. Response of first order difference equation;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3547;17. Digital Sampling Filtering and Control;17.3;17.3. Recursive relation with inputs;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3547;17. Digital Sampling Filtering and Control;17.6;17.6. Dahlin controller;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3547;17. Digital Sampling Filtering and Control;17.7;17.7. Non ringing Dahlin controller;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3530;19. Real Time Optimization;19.2;19.2. Nitration of Decane;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3530;19. Real Time Optimization;19.3;19.3. Refinery blending and production;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3555;22. Biosystems Control Design;22.1;22.1. Fermentor;correct;runtime; -1202;Process Dynamics And Controls(D. E. Seborg, T. F. Edgar, D. A. Mellichamp And F. J. Doyle III);3555;22. Biosystems Control Design;22.3;22.3. Type 1 Diabetes;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2783;2. Statics of particles;2.1;2.1. Sample problem 1;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2783;2. Statics of particles;2.12.1;2.12.1. Rectangular component in space Example 1;error;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2783;2. Statics of particles;2.12.2;2.12.2. Rectangular component in space Example 2;error;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2783;2. Statics of particles;2.2;2.2. Sample problem 2;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2783;2. Statics of particles;2.3;2.3. Sample problem 3;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2783;2. Statics of particles;2.4;2.4. Sample problem 4;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2783;2. Statics of particles;2.5;2.5. Sample problem 5;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2783;2. Statics of particles;2.6;2.6. Sample problem 6;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2783;2. Statics of particles;2.7;2.7. Sample problem 7;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2783;2. Statics of particles;2.7.1;2.7.1. Rectangular component of force Example 1;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2783;2. Statics of particles;2.7.2;2.7.2. Rectangular component of force Example 2;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2783;2. Statics of particles;2.7.3;2.7.3. Rectangular component of force Example 3;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2783;2. Statics of particles;2.8;2.8. Sample problem 8;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2789;3. Rigid Bodies Equivalent systems of forces;3.1;3.1. Sample problem 1;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2789;3. Rigid Bodies Equivalent systems of forces;3.10;3.10. Sample problem 10;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2789;3. Rigid Bodies Equivalent systems of forces;3.11;3.11. Sample problem 11;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2789;3. Rigid Bodies Equivalent systems of forces;3.2;3.2. Sample problem 2;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2789;3. Rigid Bodies Equivalent systems of forces;3.3;3.3. sample problem 3;error;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2789;3. Rigid Bodies Equivalent systems of forces;3.4;3.4. Sample problem 4;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2789;3. Rigid Bodies Equivalent systems of forces;3.5;3.5. Sample problem 5;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2789;3. Rigid Bodies Equivalent systems of forces;3.6;3.6. Sample problem 6;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2789;3. Rigid Bodies Equivalent systems of forces;3.7;3.7. Sample problem 7;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2789;3. Rigid Bodies Equivalent systems of forces;3.8;3.8. Sample problem 8;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2789;3. Rigid Bodies Equivalent systems of forces;3.9;3.9. Sample problem 9;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2797;4. Equilibrium of Rigid Bodies;4.1;4.1. Sample problem 1;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2797;4. Equilibrium of Rigid Bodies;4.2;4.2. Sample problem 2;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2797;4. Equilibrium of Rigid Bodies;4.3;4.3. Sample problem 3;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2797;4. Equilibrium of Rigid Bodies;4.4;4.4. Sample problem 4;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2797;4. Equilibrium of Rigid Bodies;4.5;4.5. Sample problem 5;correct;runtime; -1205;Vector Mechanics For Engineers: Statics And Dynamics(F. P. Beer, E. R. Johnston, D. F. Mazurek, P. J. Cornwell, E. R. Eisenberg And Sanghi);2797;4. Equilibrium of Rigid Bodies;4.6;4.6. Sample problem 6;correct;runtime; -1208;Engineering Economics(H. Agarwal);2920;1. Time Value of Money;1.1;1.1. Calculate compound interest;correct;runtime; -1208;Engineering Economics(H. Agarwal);2920;1. Time Value of Money;1.10;1.10. Find the compounded Amount;correct;runtime; -1208;Engineering Economics(H. Agarwal);2920;1. Time Value of Money;1.11;1.11. Calculate present value;correct;runtime; -1208;Engineering Economics(H. Agarwal);2920;1. Time Value of Money;1.12;1.12. Calculate how much amount should be deposited today;correct;runtime; -1208;Engineering Economics(H. Agarwal);2920;1. Time Value of Money;1.13;1.13. Calculate borrowed sum;correct;runtime; -1208;Engineering Economics(H. Agarwal);2920;1. Time Value of Money;1.14;1.14. Calculate present value of a series of unequal cashflows;correct;runtime; -1208;Engineering Economics(H. Agarwal);2920;1. Time Value of Money;1.15;1.15. Calculate ammount of each instalment;correct;runtime; -1208;Engineering Economics(H. Agarwal);2920;1. Time Value of Money;1.16;1.16. Calculate annual payment;correct;runtime; -1208;Engineering Economics(H. Agarwal);2920;1. Time Value of Money;1.17;1.17. Calculate size of instalment;correct;runtime; -1208;Engineering Economics(H. Agarwal);2920;1. Time Value of Money;1.2;1.2. Calculate Doubling Time;correct;runtime; -1208;Engineering Economics(H. Agarwal);2920;1. Time Value of Money;1.3.a;1.3.a. calculate compound value on yearly basis;correct;runtime; -1208;Engineering Economics(H. Agarwal);2920;1. Time Value of Money;1.3.b;1.3.b. calculate compound value on quarterly basis;correct;runtime; -1208;Engineering Economics(H. Agarwal);2920;1. Time Value of Money;1.4;1.4. calculate compounded Amount;correct;runtime; -1208;Engineering Economics(H. Agarwal);2920;1. Time Value of Money;1.5;1.5. calculate compounded amount received by child;correct;runtime; -1208;Engineering Economics(H. Agarwal);2920;1. Time Value of Money;1.6.1;1.6.1. Calculate Effective rate of interest compounding half yearly;correct;runtime; -1208;Engineering Economics(H. Agarwal);2920;1. Time Value of Money;1.6.2;1.6.2. Calculate Effective rate of interest compounding half quarterly;correct;runtime; -1208;Engineering Economics(H. Agarwal);2920;1. Time Value of Money;1.6.3;1.6.3. Calculate Effective rate of interest compounding monthly;correct;runtime; -1208;Engineering Economics(H. Agarwal);2920;1. Time Value of Money;1.7;1.7. Find out rate of interest;correct;runtime; -1208;Engineering Economics(H. Agarwal);2920;1. Time Value of Money;1.8;1.8. Calculate future value;correct;runtime; -1208;Engineering Economics(H. Agarwal);2920;1. Time Value of Money;1.9;1.9. Calculate future value;correct;runtime; -1208;Engineering Economics(H. Agarwal);2921;2. Simple and compound interest;2.1;2.1. Calculate compound interest;correct;runtime; -1208;Engineering Economics(H. Agarwal);2921;2. Simple and compound interest;2.10;2.10. Calculate simple interest;correct;runtime; -1208;Engineering Economics(H. Agarwal);2921;2. Simple and compound interest;2.2;2.2. Find compound interest;correct;runtime; -1208;Engineering Economics(H. Agarwal);2921;2. Simple and compound interest;2.3;2.3. Find the ammount and compounded interest;correct;runtime; -1208;Engineering Economics(H. Agarwal);2921;2. Simple and compound interest;2.4;2.4. Find the time;correct;runtime; -1208;Engineering Economics(H. Agarwal);2921;2. Simple and compound interest;2.5.a;2.5.a. Find compound interest reckoned quarterly;correct;runtime; -1208;Engineering Economics(H. Agarwal);2921;2. Simple and compound interest;2.5.b;2.5.b. Find compound interest reckoned half yearly;correct;runtime; -1208;Engineering Economics(H. Agarwal);2921;2. Simple and compound interest;2.5.c;2.5.c. Find compound interest reckoned yearly;correct;runtime; -1208;Engineering Economics(H. Agarwal);2921;2. Simple and compound interest;2.6;2.6. Find compound interest;correct;runtime; -1208;Engineering Economics(H. Agarwal);2921;2. Simple and compound interest;2.7;2.7. Find the amount;correct;runtime; -1208;Engineering Economics(H. Agarwal);2921;2. Simple and compound interest;2.8;2.8. Find the time;correct;runtime; -1208;Engineering Economics(H. Agarwal);2921;2. Simple and compound interest;2.9;2.9. Find the principal amount;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.1;4.1. Calculate payback period;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.10;4.10. Calculate internal rate of return;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.11;4.11. Calculate internal rate of return;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.12;4.12. Discuss according to internal rate of return;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.13.1;4.13.1. Calculate payback period;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.13.2;4.13.2. Calculate average rate of return;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.13.3;4.13.3. Calculate Net present value;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.13.4;4.13.4. Calculate profitability index;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.13.5;4.13.5. Calculate internal rate of return;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.14.1;4.14.1. Compute payback period;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.14.2;4.14.2. Compute average rate of return;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.14.3;4.14.3. Compute Net present value;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.14.4;4.14.4. Calculate profitability index;error;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.14.5;4.14.5. Calculate internal rate of return;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.2;4.2. Calculate payback period;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.3;4.3. Calculate payback period;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.4;4.4. Calculate payback period;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.5;4.5. Find average investment;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.6;4.6. Calculate accounting rate of return;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.7;4.7. Calculate average rate of return;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.8;4.8. Determine average rate of return;correct;runtime; -1208;Engineering Economics(H. Agarwal);2922;4. Capital Budgeting;4.9;4.9. Appraise profitability of proposed investment;correct;runtime; -1208;Engineering Economics(H. Agarwal);2923;5. Analysis of public projects;5.2;5.2. Demonstrate use of annual present and future worth operation;correct;runtime; -1208;Engineering Economics(H. Agarwal);2923;5. Analysis of public projects;5.3;5.3. Calculate the BC ratio;correct;runtime; -1208;Engineering Economics(H. Agarwal);3327;8. Product Process and Operation Costing;8.1;8.1. Process account and Abnormal Loss Acount;correct;runtime; -1208;Engineering Economics(H. Agarwal);3327;8. Product Process and Operation Costing;8.10;8.10. Closing Inventory and material transfered;correct;runtime; -1208;Engineering Economics(H. Agarwal);3327;8. Product Process and Operation Costing;8.11;8.11. Process account and Unrealised profit;correct;runtime; -1208;Engineering Economics(H. Agarwal);3327;8. Product Process and Operation Costing;8.12;8.12. Process account and statement of profit;correct;runtime; -1208;Engineering Economics(H. Agarwal);3327;8. Product Process and Operation Costing;8.13;8.13. Labour cost and value of work in progress;correct;runtime; -1208;Engineering Economics(H. Agarwal);3327;8. Product Process and Operation Costing;8.2;8.2. Equivalent Production;correct;runtime; -1208;Engineering Economics(H. Agarwal);3327;8. Product Process and Operation Costing;8.3;8.3. Calculation of effective production and process cost sheet;correct;runtime; -1208;Engineering Economics(H. Agarwal);3327;8. Product Process and Operation Costing;8.4;8.4. Calculation of effective production and process account;correct;runtime; -1208;Engineering Economics(H. Agarwal);3327;8. Product Process and Operation Costing;8.5;8.5. Process accounts;correct;runtime; -1208;Engineering Economics(H. Agarwal);3327;8. Product Process and Operation Costing;8.6;8.6. Various process account and finished stock account;correct;runtime; -1208;Engineering Economics(H. Agarwal);3327;8. Product Process and Operation Costing;8.7;8.7. Process account and Abnormal wastage and gain;correct;runtime; -1208;Engineering Economics(H. Agarwal);3327;8. Product Process and Operation Costing;8.8;8.8. Computation of Equivalent and analysis of Cost sheet;correct;runtime; -1208;Engineering Economics(H. Agarwal);3327;8. Product Process and Operation Costing;8.9;8.9. Output transfered and closing and opening work in progress;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.1;9.1. Calculate material variances;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.10;9.10. Calculate material variances;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.11;9.11. Calculate material variances;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.12;9.12. Calculate labour variances;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.13;9.13. Calculate labour variances;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.14;9.14. Calculate idle time variances;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.15;9.15. Calculate idle time variances;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.16;9.16. Calculate labour variances;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.17;9.17. Calculate labour variances;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.18;9.18. Calculate labour variances;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.19;9.19. Calculate labour variances;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.2;9.2. Calculate material variances;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.21;9.21. Calculate labour variances;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.22;9.22. Calculate labour variances;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.3;9.3. Calculate material variances;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.4;9.4. Calculate material variances;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.5;9.5. Calculate material variances;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.6;9.6. Calculate material variances when mix ratio is same;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.7.a;9.7.a. Calculate material cost variances;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.7.b;9.7.b. Calculate material usage variance;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.7.c;9.7.c. Calculate material price variance;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.7.d;9.7.d. Calculate material mix variance;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.7.e;9.7.e. Calculate material sub usage variances;error;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.8;9.8. Calculate material variances;correct;runtime; -1208;Engineering Economics(H. Agarwal);2924;9. standard costing;9.9;9.9. Calculate material variances;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);2959;2. An Overview of Java;2.1;2.1. A simple program;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);2959;2. An Overview of Java;2.2;2.2. A short program;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);2959;2. An Overview of Java;2.3;2.3. Demonstrate the if;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);2959;2. An Overview of Java;2.4;2.4. Demonstrate the for loop;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);2959;2. An Overview of Java;2.5;2.5. Demonstrate a block of code;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3129;3. Data Types Variables and Arrays;3.1;3.1. Compute light distance;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3129;3. Data Types Variables and Arrays;3.10;3.10. One dimensional array;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3129;3. Data Types Variables and Arrays;3.11;3.11. One dimensional array;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3129;3. Data Types Variables and Arrays;3.12;3.12. Averaging array of values;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3129;3. Data Types Variables and Arrays;3.13;3.13. Two dimensional array;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3129;3. Data Types Variables and Arrays;3.14;3.14. Ragged array;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3129;3. Data Types Variables and Arrays;3.15;3.15. Two dimensional array;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3129;3. Data Types Variables and Arrays;3.16;3.16. Three dimensional array;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3129;3. Data Types Variables and Arrays;3.2;3.2. Area of circle;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3129;3. Data Types Variables and Arrays;3.3;3.3. Char data type;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3129;3. Data Types Variables and Arrays;3.4;3.4. Behaviour of char;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3129;3. Data Types Variables and Arrays;3.5;3.5. Demonstrate boolean values;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3129;3. Data Types Variables and Arrays;3.6;3.6. Demonstrate dynamic initialization;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3129;3. Data Types Variables and Arrays;3.7;3.7. Demonstrate block scope;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3129;3. Data Types Variables and Arrays;3.8;3.8. Lifetime of variable;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3129;3. Data Types Variables and Arrays;3.9;3.9. Demonstrate casts;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3078;4. Operators;4.1;4.1. Basic Arithmetic operators;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3078;4. Operators;4.2;4.2. Demonstrate modulo;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3078;4. Operators;4.3;4.3. Assignment operators;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3078;4. Operators;4.4;4.4. Demonstrate increment operator;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3078;4. Operators;4.5;4.5. Variation of if;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.1;5.1. Demonstrate if else;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.10;5.10. Demonstrate for loop;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.11;5.11. variation in for loop;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.12;5.12. Test for primes;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.13;5.13. variation in for loop;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.14;5.14. Variation of for;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.15;5.15. Variation of for;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.16;5.16. Variation of for;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.17;5.17. Variation of for;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.18;5.18. Variation of for;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.19;5.19. Searching array;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.2;5.2. Switch Example;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.20;5.20. Nested loops;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.21;5.21. break to exit loop;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.22;5.22. Break to exit while;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.23;5.23. break with nested loop;error;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.24;5.24. break to exit from nested loop;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.25;5.25. Demonstrate continue;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.26;5.26. Demonstrate continue;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.27;5.27. Demonstrate return;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.3;5.3. Switch Example;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.4;5.4. Improvisation using switch;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.5;5.5. String to control switch;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.6;5.6. Demonstrate while loop;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.7;5.7. For loop;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.8;5.8. Do while loop;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3089;5. Control Statements;5.9;5.9. Menu selection;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3226;7. A Closer Look at Methods and Classes;7.1;7.1. Length array member;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3226;7. A Closer Look at Methods and Classes;7.2;7.2. Demonstrate Strings;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3226;7. A Closer Look at Methods and Classes;7.3;7.3. Demonstrate string array;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3239;10. Exception Handling;10.1;10.1. Simple try catch;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3239;10. Exception Handling;10.2;10.2. Simple try catch;error;runtime; -1214;Java: The Complete Reference(H. Schildt);3328;13. IO Applets and Other Topics;13.1;13.1. Read characters from console;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -1214;Java: The Complete Reference(H. Schildt);3328;13. IO Applets and Other Topics;13.2;13.2. Read a string from console;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -1214;Java: The Complete Reference(H. Schildt);3328;13. IO Applets and Other Topics;13.3;13.3. Sample editor;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3328;13. IO Applets and Other Topics;13.4;13.4. Demonstrate output;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3328;13. IO Applets and Other Topics;13.5;13.5. Demonstrate output;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3328;13. IO Applets and Other Topics;13.6;13.6. A simple applet;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3329;15. String Handling;15.1;15.1. Construct string from another;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3329;15. String Handling;15.10;15.10. Demonstrate indexOf;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3329;15. String Handling;15.2;15.2. string length;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3329;15. String Handling;15.3;15.3. string literals;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3329;15. String Handling;15.4;15.4. string concatenation;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3329;15. String Handling;15.5;15.5. string concatenation;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3329;15. String Handling;15.6;15.6. Demonstrate string function;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3329;15. String Handling;15.7;15.7. bubble sort for strings;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3329;15. String Handling;15.8;15.8. Demonstrate case conversion;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3329;15. String Handling;15.9;15.9. Demonstrate reverse;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3276;16. Exploring java lang;16.1;16.1. equality;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3276;16. Exploring java lang;16.2;16.2. Sum of list of numbers;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -1214;Java: The Complete Reference(H. Schildt);3276;16. Exploring java lang;16.3;16.3. Convert to binary hexa and octal;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3276;16. Exploring java lang;16.4;16.4. Demonstrating methods;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3273;18. java util Part 2 More Utility Classes;18.1;18.1. Format specifiers;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3273;18. java util Part 2 More Utility Classes;18.2;18.2. Format specifiers;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3273;18. java util Part 2 More Utility Classes;18.3;18.3. table of squares and cubes;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3273;18. java util Part 2 More Utility Classes;18.4;18.4. Precision modifier;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3273;18. java util Part 2 More Utility Classes;18.5;18.5. Left justification;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3273;18. java util Part 2 More Utility Classes;18.6;18.6. Space Format Specifier;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3330;22. The Applet Class;22.1;22.1. Demonstrate applet;correct;runtime; -1214;Java: The Complete Reference(H. Schildt);3331;24. Introducing the AWT Working with Windows Graphics and Text;24.1;24.1. Demonstrate lines;error;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.1;1.1. Find various parameters of Differential Amplifier;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.10;1.10. Determine Load current;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.11;1.11. Design a two transistor pnp current source;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.12;1.12. Determine various parameters of differential amplifier;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.13;1.13. Design Differential Amplifier;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.14;1.14. Design Differential Amplifier;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.15;1.15. Find differential input resistance;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.16;1.16. Find out the value of resistor Rc;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.17;1.17. Calculate various parameters of differential amplifier;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.18;1.18. Design a three transistor current source;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.19;1.19. Design a Widlar current source;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.2;1.2. Calculate output voltage and CMRR in dB;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.20;1.20. Design a Widlar current source with multiple output transistor;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.21;1.21. Calculate current through resistor Rc and collector current of each transistor;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.22;1.22. Design current steering circuit;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.23;1.23. Determine various parameters of differential amplifier;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.24;1.24. Determine various parameters of differential amplifier;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.25;1.25. Determine smallest possible and largest possible input offset current;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.26;1.26. Determine various parameters of differential amplifier;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.27;1.27. Design a level shifter circuit;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.3;1.3. Find output voltage of Differential Amplifier;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.4;1.4. Calculate differential mode and common mode output voltages;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.5;1.5. Find magnitude of differential mode gain and common mode gain and small signal CMRR;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.6;1.6. Design a dual input balanced output differential amplifier;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.7;1.7. Design a dual input balanced output differential amplifier;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.8;1.8. Calculate various parameters of differential amplifier;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2933;1. Differential Amplifiers;1.9;1.9. Design a two transistor current source;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2934;2. Opamp Fundamentals;2.2;2.2. Calculate two base bias current;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2934;2. Opamp Fundamentals;2.3;2.3. Calculate output voltage;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2934;2. Opamp Fundamentals;2.4;2.4. Find out 741C opamp can be used or not;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2934;2. Opamp Fundamentals;2.5;2.5. Find the rise time;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2934;2. Opamp Fundamentals;2.6;2.6. Find out the time for output change;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2934;2. Opamp Fundamentals;2.7;2.7. Calculate maximum voltage;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2934;2. Opamp Fundamentals;2.8;2.8. Find the limiting frequency;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2935;3. Opamp with negative feedback;3.1;3.1. Determine various parameters of differential amplifier;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2935;3. Opamp with negative feedback;3.2;3.2. Design closed loop non inverting amplifier;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2935;3. Opamp with negative feedback;3.3;3.3. Design closed loop non inverting amplifier;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2935;3. Opamp with negative feedback;3.4;3.4. Design inverting amplifier;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2935;3. Opamp with negative feedback;3.5;3.5. Determine various parameters of opamp;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2935;3. Opamp with negative feedback;3.6;3.6. Design an inverting summing amplifier;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2935;3. Opamp with negative feedback;3.7;3.7. Design inverting opamp circuit;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2935;3. Opamp with negative feedback;3.8;3.8. Design inverting opamp circuit;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2935;3. Opamp with negative feedback;3.9;3.9. Design preamplifier for a microphone;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2936;4. Basic application of an opamp;4.10;4.10. Determine output voltage for an instrumentation amplifier;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2936;4. Basic application of an opamp;4.12;4.12. Determine an instrumentation amplifier;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2936;4. Basic application of an opamp;4.13;4.13. Calculate output voltage;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2936;4. Basic application of an opamp;4.15;4.15. Design a practical integrator circuit;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2936;4. Basic application of an opamp;4.16;4.16. Design a circuit;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2936;4. Basic application of an opamp;4.2;4.2. Determine Vo for adder subtractor;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2936;4. Basic application of an opamp;4.22;4.22. Design a practical differentiator;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2936;4. Basic application of an opamp;4.25;4.25. Design a practical differentiator circuit;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2936;4. Basic application of an opamp;4.3;4.3. Find values for constant A and B;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2936;4. Basic application of an opamp;4.4;4.4. Determine values of unknown resistors;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2936;4. Basic application of an opamp;4.5;4.5. Determine output of the circuit;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2936;4. Basic application of an opamp;4.7;4.7. Determine output of the circuit;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2936;4. Basic application of an opamp;4.8;4.8. Determine input impedence;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2936;4. Basic application of an opamp;4.9;4.9. Determine the gain for an instrumentation amplifier;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.1;5.1. Design a square wave generator;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.10;5.10. Design an astable multivibrator;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.11;5.11. Design IC555 as a monostable multivibrator;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.12;5.12. Design a timer circuit using IC555;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.13;5.13. Find out the value of R;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.14;5.14. Design a triangular wave generator;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.15;5.15. Find amplitude and frequency;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.16;5.16. Design a phase shift oscillator;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.17;5.17. Design a Wein bridge oscillator;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.19;5.19. Determine frequency of oscillation;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.2;5.2. Design a square wave generator;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.20;5.20. Determine various parameters of opamp;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.21;5.21. Calculate free running frequency lock range and capture range;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.22;5.22. Determine frequency of reference oscillator;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.3;5.3. Determine output signal frequency;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.4;5.4. Design a circuit to produce an asymmetrical wave;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.5;5.5. Design a circuit to produce an square wave;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.6;5.6. Determine frequency of oscillation and duty cycle;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.7;5.7. Design an astable multivibrator;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.8;5.8. Design 555 timer as an astable multivibrator;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2937;5. Waveform Generators;5.9;5.9. Design 555 timer as an astable multivibrator;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2938;6. Active Filters;6.10;6.10. Design a second order low pass filter;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2938;6. Active Filters;6.11;6.11. calculate 3dB frequency filter type and pass band gain;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2938;6. Active Filters;6.12;6.12. Design a second order high pass filter;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2938;6. Active Filters;6.13;6.13. Design a band pass filter;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2938;6. Active Filters;6.14;6.14. Design a band pass filter with single opamp;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2938;6. Active Filters;6.15;6.15. Design a filter to meet the specifications;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2938;6. Active Filters;6.16;6.16. Determine type of filter to produce given phase shift;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2938;6. Active Filters;6.17.a;6.17.a. Find type of response;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2938;6. Active Filters;6.17.b;6.17.b. Determine low and high cut off frequency;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2938;6. Active Filters;6.17.c;6.17.c. Determine band pass center frequency;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2938;6. Active Filters;6.17.d;6.17.d. Determine band pass bandwidth;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2938;6. Active Filters;6.17.e;6.17.e. Determine band pass gain at center frequency;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2938;6. Active Filters;6.2;6.2. Determine cut off frequency;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2938;6. Active Filters;6.3;6.3. Design a first order low pass filter;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2938;6. Active Filters;6.4;6.4. Using frequency scaling change the cut off frequency;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2938;6. Active Filters;6.5;6.5. Design a first order high pass filter;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2938;6. Active Filters;6.6;6.6. Design a filter using sallen key unity gain low pass active filter;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2938;6. Active Filters;6.7;6.7. Determine the type and frequency of filter;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2938;6. Active Filters;6.8;6.8. Design a filter using sallen key equal component low pass active filter;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2938;6. Active Filters;6.9;6.9. Calculate critical frequency;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2939;7. Non Linear Circuits;7.3;7.3. Design a schmitt trigger;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2939;7. Non Linear Circuits;7.4;7.4. Determine threshold voltages and hysteresis voltage;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2939;7. Non Linear Circuits;7.5;7.5. Design a schmitt trigger circuit;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );3161;8. Analog Multiplier and Operational Transconductance Amplifier;8.1;8.1. Find Transfer Function;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );3161;8. Analog Multiplier and Operational Transconductance Amplifier;8.2;8.2. Find Transfer Function;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );3161;8. Analog Multiplier and Operational Transconductance Amplifier;8.3;8.3. Find Transfer Function;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );3161;8. Analog Multiplier and Operational Transconductance Amplifier;8.4;8.4. Find Transfer Function;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2940;9. Voltage Regulators;9.1;9.1. Obtain 18 v from 15 volt regulator;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2940;9. Voltage Regulators;9.2;9.2. Design a current source using 7808 regulator;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2940;9. Voltage Regulators;9.3;9.3. Calculate output current;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2940;9. Voltage Regulators;9.4;9.4. Design adjustable voltage regulator using LM317;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2940;9. Voltage Regulators;9.5;9.5. Calculate minimum and maximum output voltage;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2940;9. Voltage Regulators;9.6;9.6. Design a voltage regulator using IC723;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2940;9. Voltage Regulators;9.7;9.7. Design a voltage regulator using IC723;correct;runtime; -1217;Analog Integrated Circuits(P. Sharma );2940;9. Voltage Regulators;9.8;9.8. Design a regulated power supply;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3096;1. Semiconductor materials and diodes;1.1;1.1. Calculate intrinsic carrier concentration in silicon;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3096;1. Semiconductor materials and diodes;1.10;1.10. Calculate currents in a circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3096;1. Semiconductor materials and diodes;1.11;1.11. Design the value of resistance required to limit the current in given circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3096;1. Semiconductor materials and diodes;1.2;1.2. Calculate thermal equilibrium electron and hole concentrations;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3096;1. Semiconductor materials and diodes;1.3;1.3. Calculate the built in potential barrier of a pn junction;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3096;1. Semiconductor materials and diodes;1.4;1.4. Calculate the junction capacitance of a pn junction;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3096;1. Semiconductor materials and diodes;1.5;1.5. Determine the diode current in pn junction;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3096;1. Semiconductor materials and diodes;1.6;1.6. Determine the diode voltage and current;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3096;1. Semiconductor materials and diodes;1.7;1.7. Determine the diode voltage and current;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3096;1. Semiconductor materials and diodes;1.9;1.9. Analysing the circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3097;2. Diode Circuits;2.1;2.1. Compare voltages and the transformer turns ratio in two full wave rectifier circuits;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3097;2. Diode Circuits;2.10;2.10. Calculate the photocurrent generated in a photodiode;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3097;2. Diode Circuits;2.11;2.11. Determine the value of R required to limit the current in circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3097;2. Diode Circuits;2.2;2.2. Determine the capacitance required to yield a particular ripple voltage;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3097;2. Diode Circuits;2.3;2.3. Design a full wave rectifier;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3097;2. Diode Circuits;2.5;2.5. Determine the percent regulation of a voltage regulator;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3097;2. Diode Circuits;2.8;2.8. Determine the output voltage and diode currents;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3099;3. The Bipolar Junction Transistor;3.1;3.1. Calculate the collector and emitter currents;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3099;3. The Bipolar Junction Transistor;3.10;3.10. Calculate the currents output voltage and power dissipation;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3099;3. The Bipolar Junction Transistor;3.13;3.13. Design the circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3099;3. The Bipolar Junction Transistor;3.14;3.14. Analyze a circuit using voltage divider bias circuit and determine the change in Q point;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3099;3. The Bipolar Junction Transistor;3.15;3.15. Design a bias stable circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3099;3. The Bipolar Junction Transistor;3.16;3.16. Determine the currents in a two transistor current source;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3099;3. The Bipolar Junction Transistor;3.17;3.17. Calculate the dc voltages at each node and the dc currents through the elements in mulstistage circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3099;3. The Bipolar Junction Transistor;3.2;3.2. Calculate the breakdown voltage of a transistor;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3099;3. The Bipolar Junction Transistor;3.3;3.3. Calculate the base collector and emitter currents and ce voltage for common emitter circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3099;3. The Bipolar Junction Transistor;3.4;3.4. Analyse the common emitter circuit with pnp transistor;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3099;3. The Bipolar Junction Transistor;3.5;3.5. Calculate the currents and voltages in a circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3099;3. The Bipolar Junction Transistor;3.6;3.6. Calculate the characteristics of a circuit containing an emitter resistor;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3099;3. The Bipolar Junction Transistor;3.7;3.7. Calculate the characteristics of a circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3099;3. The Bipolar Junction Transistor;3.9;3.9. Calculate the characteristics of an npn bipolar circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3100;4. Basic BJT Amplifiers;4.1;4.1. Calculate the small signal voltage gain of a bipolar transistor;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3100;4. Basic BJT Amplifiers;4.10;4.10. Calculate the small signal voltage gain of an emitter circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3100;4. Basic BJT Amplifiers;4.2;4.2. Determine the small signal voltage gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3100;4. Basic BJT Amplifiers;4.4;4.4. Determine the small signal voltage gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3100;4. Basic BJT Amplifiers;4.5;4.5. Determine the small signal voltage gain of a common emitter circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3100;4. Basic BJT Amplifiers;4.7;4.7. Determine the small signal voltage gain of a common emitter circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3100;4. Basic BJT Amplifiers;4.8;4.8. Determine the dc and ac load lines;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3100;4. Basic BJT Amplifiers;4.9;4.9. Determine the maximum symmetrical swing;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3101;5. The Field Effect Transistor;5.1;5.1. Calculate the current in an n channel MOSFET;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3101;5. The Field Effect Transistor;5.10;5.10. Calculate the characteristics of a circuit containing a depletion load device;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3101;5. The Field Effect Transistor;5.11;5.11. Determine the dc transistor currents and voltages in a circuit containing a depletion load device;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3101;5. The Field Effect Transistor;5.13;5.13. Determine the currents and voltages in a MOSFET constant current source;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3101;5. The Field Effect Transistor;5.14;5.14. Design the size of a power MOSFET to meet the specification of particular switch application;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3101;5. The Field Effect Transistor;5.16;5.16. Calculate Id and Vds in an n channel pn JFET;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3101;5. The Field Effect Transistor;5.17;5.17. Design the dc bias of a JFET circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3101;5. The Field Effect Transistor;5.19;5.19. Calculate the quiscent current and voltage values;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3101;5. The Field Effect Transistor;5.2;5.2. Determine the source to drain voltage required to bias p channel MOSFET;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3101;5. The Field Effect Transistor;5.20;5.20. Design a circuit with an enhancement mode MESFET;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3101;5. The Field Effect Transistor;5.3;5.3. Calculate the drain current and drain to source voltage of circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3101;5. The Field Effect Transistor;5.4;5.4. Calculate the drain current and drain to source voltage of circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3101;5. The Field Effect Transistor;5.6;5.6. Design the dc bias of a MOSFET circuit to produce specified drain current;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3101;5. The Field Effect Transistor;5.7;5.7. Design a MOSFET circuit biased with a constant current source;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3101;5. The Field Effect Transistor;5.8;5.8. Calculate the characteristics of a circuit containing an enhancement load device;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3103;6. Basic FET Amplifier;6.1;6.1. Calculate the transconductance of an n chennel MOSFET;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3103;6. Basic FET Amplifier;6.11;6.11. Design the small signal voltage gain of an NMOS amplifier;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3103;6. Basic FET Amplifier;6.12;6.12. Determine the small signal voltage gain of a circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3103;6. Basic FET Amplifier;6.13;6.13. Determine the small signal voltage gain of a circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3103;6. Basic FET Amplifier;6.14;6.14. Design the biasing of a multistage MOSFET;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3103;6. Basic FET Amplifier;6.15;6.15. Design the biasing of cascade circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3103;6. Basic FET Amplifier;6.17;6.17. Determine the small signal voltage gain of a circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3103;6. Basic FET Amplifier;6.18;6.18. Determine the small signal voltage gain of a circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3103;6. Basic FET Amplifier;6.19;6.19. Design a JFET source folllower;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3103;6. Basic FET Amplifier;6.2;6.2. Determine the small signal voltage gain of a MOSFET;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3103;6. Basic FET Amplifier;6.3;6.3. Determine the small signal voltage gain and input and output resistance of a commoon source amplifier;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3103;6. Basic FET Amplifier;6.4;6.4. Design the bias of a MOSFET such that the Q point is in the middle of saturation;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3103;6. Basic FET Amplifier;6.6;6.6. Determine the small signal voltage gain of a circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3103;6. Basic FET Amplifier;6.7;6.7. Determine the small signal voltage gain of a circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3103;6. Basic FET Amplifier;6.9;6.9. Calculate the output resistance of a source follower circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3104;7. Frequency Response;7.1;7.1. Determine the corner frequencies and maximum magnitude asymptotes;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3104;7. Frequency Response;7.10;7.10. Calculate bandwidth and capacitance;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3104;7. Frequency Response;7.12;7.12. Determine the unity gain bandwidth;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3104;7. Frequency Response;7.13;7.13. Determine the Miller capacitance and cutoff frequency;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3104;7. Frequency Response;7.14;7.14. Determine the upper corner frequency and midband gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3104;7. Frequency Response;7.15;7.15. Determine the upper corner frequency and midband gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3104;7. Frequency Response;7.16;7.16. Determine the upper corner frequency and midband gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3104;7. Frequency Response;7.17;7.17. Determine the frequency of a zero and a pole;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3104;7. Frequency Response;7.2;7.2. Determine the corner frequencies and bandwidth;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3104;7. Frequency Response;7.3;7.3. Determine the corner frequencies and maximum gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3104;7. Frequency Response;7.4;7.4. Design the circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3104;7. Frequency Response;7.5;7.5. Determine 3dB frequency;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3104;7. Frequency Response;7.6;7.6. Determine the corner frequencies and maximum gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3104;7. Frequency Response;7.7;7.7. Determine the mid gain corner frequencies and bandwidth of a circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3104;7. Frequency Response;7.8;7.8. Determine the corner frequencies and limiting horizontal asymptotes;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3104;7. Frequency Response;7.9;7.9. Determine 3dB frequency;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3105;8. Ouput Stages and Power Amplifier;8.11;8.11. Determine the currents and the current gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3105;8. Ouput Stages and Power Amplifier;8.2;8.2. Determine the maximum power dissipation;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3105;8. Ouput Stages and Power Amplifier;8.3;8.3. Determine the maximum safe power dissipation;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3105;8. Ouput Stages and Power Amplifier;8.7;8.7. Determine the required biasing in MOSFET class AB;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3105;8. Ouput Stages and Power Amplifier;8.8;8.8. Design a transformer coupled emitter follower amplifier;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3105;8. Ouput Stages and Power Amplifier;8.9;8.9. Design the class AB output stage;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3106;9. The Ideal Operational Amplifier;9.5;9.5. Determine a load current in a voltage to current converter;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3106;9. The Ideal Operational Amplifier;9.9;9.9. Determine the time constant;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3107;10. Integrated Circuit Biasing and Active Loads;10.1;10.1. Design a two transistor current source;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3107;10. Integrated Circuit Biasing and Active Loads;10.10;10.10. Calculate the open circuit voltage gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3107;10. Integrated Circuit Biasing and Active Loads;10.11;10.11. Calculate the small signal voltage gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3107;10. Integrated Circuit Biasing and Active Loads;10.12;10.12. Calculate the small signal voltage gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3107;10. Integrated Circuit Biasing and Active Loads;10.2;10.2. Determine the change in load current;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3107;10. Integrated Circuit Biasing and Active Loads;10.4;10.4. Design a Widlar current source;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3107;10. Integrated Circuit Biasing and Active Loads;10.5;10.5. Determine the change in load current;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3107;10. Integrated Circuit Biasing and Active Loads;10.6;10.6. Design a generalized current mirror;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3107;10. Integrated Circuit Biasing and Active Loads;10.7;10.7. Design a MOSFET current source;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3107;10. Integrated Circuit Biasing and Active Loads;10.8;10.8. Compare the output resistances;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3107;10. Integrated Circuit Biasing and Active Loads;10.9;10.9. Determiine the currents and voltages;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3109;11. Differential and Multistage Amplifier;11.1;11.1. Determine the quiescent collector current and collector emitter voltage;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3109;11. Differential and Multistage Amplifier;11.10;11.10. Calculate the dc characteristics of a MOSFET diff amp;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3109;11. Differential and Multistage Amplifier;11.11;11.11. Compare the forward transconductance;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3109;11. Differential and Multistage Amplifier;11.12;11.12. Determine the differential mode voltage gain common mode voltage gain CMRR;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3109;11. Differential and Multistage Amplifier;11.13;11.13. Determine the differential mode voltage gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3109;11. Differential and Multistage Amplifier;11.15;11.15. Determine the differential mode voltage gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3109;11. Differential and Multistage Amplifier;11.16;11.16. Calculate the input resistance and the small signal voltage gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3109;11. Differential and Multistage Amplifier;11.17;11.17. Calculate the output resistance;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3109;11. Differential and Multistage Amplifier;11.19;11.19. Determine the differential mode voltage gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3109;11. Differential and Multistage Amplifier;11.20;11.20. Determine the zero and pole frequencies;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3109;11. Differential and Multistage Amplifier;11.3;11.3. Determine the differential and common mode gains;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3109;11. Differential and Multistage Amplifier;11.7;11.7. Determine the CMRR of a differential amplifier;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3109;11. Differential and Multistage Amplifier;11.8;11.8. Design a bipolar source;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3109;11. Differential and Multistage Amplifier;11.9;11.9. Determine the differential and common mode input resistance;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3111;12. Feedback and Stability;12.1;12.1. Calculate the feedback transfer function;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3111;12. Feedback and Stability;12.11;12.11. Determine the transconductance gain of a transistor feedback circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3111;12. Feedback and Stability;12.16;12.16. Determine the loop gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3111;12. Feedback and Stability;12.19;12.19. Determine the stability of an amplifier;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3111;12. Feedback and Stability;12.2;12.2. Calculate the percent change in the closed loop gain Af;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3111;12. Feedback and Stability;12.22;12.22. Determine the shift in the 3dB frequency;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3111;12. Feedback and Stability;12.23;12.23. Determine the shift in the 3dB frequency;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3111;12. Feedback and Stability;12.3;12.3. Determine the bandwidth of a feedback amplifier;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3111;12. Feedback and Stability;12.5;12.5. Determine the input resistance and output resistance;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3111;12. Feedback and Stability;12.6;12.6. Determine the input resistance and output resistance;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3111;12. Feedback and Stability;12.7;12.7. Determine the expected input resistance;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3114;13. Operational Amplifier Circuits;13.1;13.1. Calculate the dc currents;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3114;13. Operational Amplifier Circuits;13.10;13.10. Determine the differential mode voltage gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3114;13. Operational Amplifier Circuits;13.12;13.12. Determine the small signal voltage gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3114;13. Operational Amplifier Circuits;13.13;13.13. Determine the small signal voltage gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3114;13. Operational Amplifier Circuits;13.14;13.14. Determine the dominant pole frequency and unity gain bandwidth;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3114;13. Operational Amplifier Circuits;13.2;13.2. Calculate the bias currents;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3114;13. Operational Amplifier Circuits;13.3;13.3. Calculate the bias currents;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3114;13. Operational Amplifier Circuits;13.4;13.4. Determine the small signal differential voltage gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3114;13. Operational Amplifier Circuits;13.5;13.5. Determine the small signal voltage gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3114;13. Operational Amplifier Circuits;13.6;13.6. Calculate the output resistance;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3114;13. Operational Amplifier Circuits;13.7;13.7. Determine the dominant pole frequency of the 741 op amp;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3114;13. Operational Amplifier Circuits;13.9;13.9. Determine the small signal voltage gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3115;14. Nonideal Effects in Operational Amplifier Circuits;14.10;14.10. Calculate the offset voltage in MOSFET diff amp;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3115;14. Nonideal Effects in Operational Amplifier Circuits;14.11;14.11. Determine the range of voltage produced by an offset voltage compensation network;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3115;14. Nonideal Effects in Operational Amplifier Circuits;14.13;14.13. Determine the bias current effect;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3115;14. Nonideal Effects in Operational Amplifier Circuits;14.2;14.2. Determine the closed loop input resistance;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3115;14. Nonideal Effects in Operational Amplifier Circuits;14.3;14.3. Determine the closed loop input resistance;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3115;14. Nonideal Effects in Operational Amplifier Circuits;14.5;14.5. Determine the unity gain bandwidth and the closed loop gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3115;14. Nonideal Effects in Operational Amplifier Circuits;14.6;14.6. Calculate the slew rate of the 741 op amp;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3115;14. Nonideal Effects in Operational Amplifier Circuits;14.7;14.7. Determine the small signal bandwidth of an amplifier and full power bandwidth;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3115;14. Nonideal Effects in Operational Amplifier Circuits;14.8;14.8. Calculate the offset voltage in bipolar diff amp;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3116;15. Applications and Design of Integrated Circuits;15.10;15.10. Design the 555IC as a monostable multivibrator;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3116;15. Applications and Design of Integrated Circuits;15.13;15.13. Design the supply voltage;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3116;15. Applications and Design of Integrated Circuits;15.14;15.14. Determine the output resistance and load regulation;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3116;15. Applications and Design of Integrated Circuits;15.15;15.15. Determine the output resistance and variation in output voltage;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3116;15. Applications and Design of Integrated Circuits;15.16;15.16. Determine the bias current temperature compensated reference voltage and required resistor;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3116;15. Applications and Design of Integrated Circuits;15.2;15.2. Determine the clock frequency;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3116;15. Applications and Design of Integrated Circuits;15.3;15.3. Design a one pole low pass switched capacitor filter;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3116;15. Applications and Design of Integrated Circuits;15.4;15.4. Determine the oscillation frequency and required amplifier gain;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3116;15. Applications and Design of Integrated Circuits;15.6;15.6. Determine the hysteresis width of a particular Schmitt trigger;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3116;15. Applications and Design of Integrated Circuits;15.7;15.7. Design a Schmitt trigger circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3117;16. MOSFET Digital Circuits;16.10;16.10. Calculate the power dissipation in CMOS inverter;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3117;16. MOSFET Digital Circuits;16.11;16.11. Determine the noise margins of a CMOS inverter;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3117;16. MOSFET Digital Circuits;16.15;16.15. Determine the currents voltages and power dissipation in two NMOS SPAM cells;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3117;16. MOSFET Digital Circuits;16.3;16.3. Design the aspect ratio and determine the power dissipation;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3117;16. MOSFET Digital Circuits;16.4;16.4. Design the aspect ratio and determine the power dissipation;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3117;16. MOSFET Digital Circuits;16.5;16.5. Determine the noise margin of an inverter with enhancement load;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3117;16. MOSFET Digital Circuits;16.9;16.9. Determine the critical voltage on the voltage transfer curve of a CMOS inverter;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3118;17. Bipolar Digital Circuits;17.1;17.1. Calculate the currents and voltages in the basic differential amplifier circuit used as digital circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3118;17. Bipolar Digital Circuits;17.11;17.11. Determine the currents in a Schottky transistor;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3118;17. Bipolar Digital Circuits;17.12;17.12. Calculate the power dissipation in a low power Schottky TTL circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3118;17. Bipolar Digital Circuits;17.2;17.2. Calculate the currents resistors and logic 0 values in the basic ECL logic gate;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3118;17. Bipolar Digital Circuits;17.3;17.3. Design the reference position of the ECL circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3118;17. Bipolar Digital Circuits;17.4;17.4. Calculate the power dissipated in the ECL logic circuit;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3118;17. Bipolar Digital Circuits;17.5;17.5. Calculate minimum fanout of ECL logic gate;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3118;17. Bipolar Digital Circuits;17.7;17.7. Analyze the modified ECL logic gate;correct;runtime; -1223;Electronic Circuit Analysis And Design(D. A. Neamen);3118;17. Bipolar Digital Circuits;17.9;17.9. Calculate the currents and voltages for the basic TTL NAND circuit;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.1;3.1. Carnot engine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.10;3.10. Otto cycle and Atkinson cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.11;3.11. Otto cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.12;3.12. Otto cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.13;3.13. Otto cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.14;3.14. Otto cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.15;3.15. Otto cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.17;3.17. Diesel Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.18;3.18. Diesel Cycle;error;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.19;3.19. Diesel Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.2;3.2. Carnot power cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.20;3.20. Diesel Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.21;3.21. Diesel cycle;error;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.22;3.22. Diesel Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.23;3.23. Dual Combustion Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.24;3.24. Dual Combustion Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.25;3.25. Dual Combustion Cycle;error;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.26;3.26. Dual Combustion Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.27;3.27. Dual Combustion Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.28;3.28. Dual Combustion Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.29;3.29. Dual Combustion Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.3;3.3. Efficiencies of carnot cycle;error;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.31;3.31. Atkinson Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.32;3.32. Brayton Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.33;3.33. Brayton Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.34;3.34. Brayton Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.35;3.35. Brayton Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.36;3.36. Brayton Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.37;3.37. Brayton Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.38;3.38. Brayton Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.39;3.39. Brayton Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.4;3.4. Carnot Engine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.40;3.40. Stirling Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.5;3.5. Carnot Engine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.7;3.7. Otto cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.8;3.8. Otto cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3459;3. Air Standard cycles;3.9;3.9. Otto Cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3098;4. Fuel Air and Actual Cycles;4.10;4.10. Otto cycle work done and efficiency;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3098;4. Fuel Air and Actual Cycles;4.2;4.2. Percentage change in otto cycle efficiency;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3098;4. Fuel Air and Actual Cycles;4.3;4.3. Percentage change in otto cycle efficiency;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3098;4. Fuel Air and Actual Cycles;4.4;4.4. Change in air standard efficiency;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3098;4. Fuel Air and Actual Cycles;4.5;4.5. Maximum pressure in cylinder;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3098;4. Fuel Air and Actual Cycles;4.6;4.6. Maximum pressure in cylinder;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3098;4. Fuel Air and Actual Cycles;4.7;4.7. Percentage of the stroke when the combustion is completed;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3098;4. Fuel Air and Actual Cycles;4.8;4.8. Percentage of the stroke when the combustion is completed;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3098;4. Fuel Air and Actual Cycles;4.9;4.9. Maximum pressure and temperature ignoring and considering fuel expansion;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2798;5. Combustion in SI engines;5.1;5.1. Time for combustion process and total crank rotation;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2798;5. Combustion in SI engines;5.2;5.2. Time of spark;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2788;7. Air Capacity of Four Stroke Engines;7.1;7.1. Volume of Gas;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2788;7. Air Capacity of Four Stroke Engines;7.10;7.10. Volumetric Efficiency and Heating Value;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2788;7. Air Capacity of Four Stroke Engines;7.12;7.12. Nominal Diameter of Inlet Valve and Volumetric Efficiency vs Mach Index;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2788;7. Air Capacity of Four Stroke Engines;7.2;7.2. Volumetric Efficiency;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2788;7. Air Capacity of Four Stroke Engines;7.3;7.3. Volumetric Efficiency;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2788;7. Air Capacity of Four Stroke Engines;7.4;7.4. Volumetric Efficiency;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2788;7. Air Capacity of Four Stroke Engines;7.5;7.5. Brake Torque;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2788;7. Air Capacity of Four Stroke Engines;7.6;7.6. Percentage change in output;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2788;7. Air Capacity of Four Stroke Engines;7.7;7.7. Percentage change in output;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2788;7. Air Capacity of Four Stroke Engines;7.8;7.8. Percentage change in Volumetric efficiency and Brake Power;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2788;7. Air Capacity of Four Stroke Engines;7.9;7.9. Volumetric Efficiency and Indicated Power for Supercharged Engine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2858;11. Carburation and carburettors;11.1;11.1. Suction at throat;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2858;11. Carburation and carburettors;11.10;11.10. Fuel consumption and air velocity through tube;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2858;11. Carburation and carburettors;11.11;11.11. Air fuel ratio at a given altitude;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2858;11. Carburation and carburettors;11.2;11.2. Depression in Venturi throat and throat area;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2858;11. Carburation and carburettors;11.3;11.3. Diameter of the fuel jet;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2858;11. Carburation and carburettors;11.4;11.4. Venturi depression and diameter and velocity of air across venturi;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2858;11. Carburation and carburettors;11.5;11.5. Throat pressure with respct to air cleaner;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2858;11. Carburation and carburettors;11.6;11.6. Throat diameter;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2858;11. Carburation and carburettors;11.7;11.7. Throat diameter and orifice diameter;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2858;11. Carburation and carburettors;11.8;11.8. Choke diameter and fuel jet diameter;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2858;11. Carburation and carburettors;11.9;11.9. Air fuel ratio with respect to nozzle lip;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2796;12. Fuel Injection Systems for CI Engines;12.1;12.1. Quantity of fuel injected per cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2796;12. Fuel Injection Systems for CI Engines;12.2;12.2. Diameter of injector nozzle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2796;12. Fuel Injection Systems for CI Engines;12.3;12.3. Volume of fuel injected and diameter of Injector;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2796;12. Fuel Injection Systems for CI Engines;12.4;12.4. Diameter of injector nozzle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2796;12. Fuel Injection Systems for CI Engines;12.5;12.5. Fuel consumption;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2796;12. Fuel Injection Systems for CI Engines;12.6;12.6. Injector orifice area;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2796;12. Fuel Injection Systems for CI Engines;12.7;12.7. Amount of fuel injected and injector diameter;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2796;12. Fuel Injection Systems for CI Engines;12.8;12.8. Plunger displacement and effective stroke;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2796;12. Fuel Injection Systems for CI Engines;12.9;12.9. Calculation of fuel spray time;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2799;15. Engine Cooling;15.1;15.1. Coolant required for petrol and diesel engine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2799;15. Engine Cooling;17.28;17.28. Indicated mean effective pressure and brake mean effective pressure;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2815;16. Supercharging of IC Engines;16.1;16.1. Power supplied to supercharger;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2815;16. Supercharging of IC Engines;16.2;16.2. Engine Capacity and Brake Mean effective Pressure;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2815;16. Supercharging of IC Engines;16.3;16.3. Increase in Brake Power due to supercharger;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2815;16. Supercharging of IC Engines;16.4;16.4. Engine Capacity and Brake Mean effective Pressure;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);2815;16. Supercharging of IC Engines;16.5;16.5. Compressor run by supercharged Engine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.1;17.1. Indicated power;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.10;17.10. BSFC and brake thermal efficiency;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.11;17.11. Indicated thermal efficiency and brake power;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.12;17.12. Volumetric efficiency and BSFC;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.13;17.13. Mechanical efficiency;error;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.14;17.14. Engine bore and stroke;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.15;17.15. Indicated thermal efficiency and brake thermal efficiency and mechanical efficiency;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.16;17.16. BSFC and brake thermal efficiency;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.17;17.17. Fuel consumption and calorific value of fuel;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.18;17.18. Engine bore and stroke and Fuel consumption;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.19;17.19. Volumetric efficiency and brake thermal efficiency and brake torque;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.2;17.2. Bore and Stroke of engine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.20;17.20. Average no of misfires per min;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.21;17.21. Indicated power and indicated thermal efficiency;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.22;17.22. Finding all engine parameters;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.23;17.23. Brake mean effective pressure;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.24;17.24. Volumetric efficiency;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.25;17.25. finding all parameters of engine;error;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.26;17.26. Compression ratio and thermal efficiency and gas consumption;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.27;17.27. Mean effective pressure developed;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.28;17.28. Indicated mean effective pressure and brake mean effective pressure;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.29;17.29. Finding all parameters of engine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.3;17.3. Brake power;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.30;17.30. Full load brake power and mechanical efficiency;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.31;17.31. Mechanical efficiency and brake thermal efficiency;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.32;17.32. Finding all parameters of the engine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.33;17.33. Finding all parameters of the engine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.34;17.34. Indicated thermal efficiency and brake mean effective pressure;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.35;17.35. Finding all parameters of IC engine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.36;17.36. Finding all parameters of IC engine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.37;17.37. Heat balance sheet;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.38;17.38. Heat balance sheet;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.39;17.39. heat balance sheet;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.4;17.4. Engine displacement;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.40;17.40. Finding the parameters for IC engine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.41;17.41. Heat balance sheet;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.42;17.42. Heat balance sheet;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.43;17.43. Heat balance sheet;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.44;17.44. Heat balance sheet;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.45;17.45. Morse test;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.46;17.46. Morse test;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.5;17.5. Bore and stroke;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.6;17.6. Ratio of power output when using different fuels;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.7;17.7. Brake power and brake thermal efficiency;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.8;17.8. Brake power;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3135;17. Testing and Performance of IC Engines;17.9;17.9. Indicated power and brake power and mechanical efficiency;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.1;20.1. Single stage reciprocating compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.10;20.10. Percentage change in volume and power;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.11;20.11. Single stage double acting compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.12;20.12. Two cylinder single acting compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.13;20.13. Single stage double acting compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.14;20.14. Single stage single acting compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.15;20.15. Double acting compressor;error;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.16;20.16. Two stage compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.17;20.17. Two stage compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.18;20.18. Two stage compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.19;20.19. Two stage compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.2;20.2. Motor power and bore of single stage compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.20;20.20. Two stage compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.21;20.21. Single acting two stage compressor;error;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.22;20.22. Single acting two stage compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.23;20.23. Two stage compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.24;20.24. Two stage double acting compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.25;20.25. Two stage single acting compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.26;20.26. Two stage single acting compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.27;20.27. Three stage compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.28;20.28. Three stage compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.29;20.29. Three stage compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.3;20.3. Work done and heat transferred during single stage compression;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.30;20.30. Multi stage compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.31;20.31. Multi stage compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.32;20.32. Three stage compressor;error;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.34;20.34. Indicated power and air supplied per minute;error;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.35;20.35. Comparison of roots blower and vane type compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.36;20.36. Roots blower;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.37;20.37. Centrifugal compressor;error;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.38;20.38. Single inlet type centrifugal compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.39;20.39. Centrifugal compressor;error;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.4;20.4. Single stage compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.40;20.40. Centrifugal compressor;error;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.41;20.41. Centrifugal compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.42;20.42. Centrifugal compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.43;20.43. Centrifugal compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.44;20.44. Axial flow compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.45;20.45. Axial flow compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.46;20.46. Axial flow compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.47;20.47. Eight stage axial flow compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.48;20.48. Axial flow compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.49;20.49. Multi stage axial flow compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.5;20.5. Low pressure water jacketed rotary compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.6;20.6. Single stage double acting compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.7;20.7. Single stage double acting compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.8;20.8. Single stage double acting compressor;error;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3557;20. Air Compressors;20.9;20.9. Single stage single acting compressor;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.1;21.1. Open cycle gas turbine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.10;21.10. Multi stage gas turbine;error;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.11;21.11. Power developed and efficiency of power plant;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.13;21.13. Efficiency of gas turbine cycle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.14;21.14. Heat exchanger in gas turbine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.15;21.15. Multi stage gas turbine with intercooler and heat exchanger;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.16;21.16. Multi stage gas turbine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.17;21.17. gas turbine power plant;error;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.18;21.18. Multi stage gas turbine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.19;21.19. Turbo jet engine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.2;21.2. Open cycle gas turbine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.20;21.20. Turbo jet engine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.21;21.21. Jet propulsion;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.22;21.22. Turbo jet with diffuser and nozzle;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.23;21.23. Jet engine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.3;21.3. Thermal efficiency of Gas turbine;error;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.4;21.4. Air fuel ratio for gas turbine ;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.5;21.5. Thermal efficiency of gas turbine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.6;21.6. Open cycle gas turbine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.7;21.7. Pressure ratio and temperature of the exhaust;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.8;21.8. Efficiency of open cycle gas turbine;correct;runtime; -1226;Internal Combustion Engines(R. K. Rajput);3460;21. Gas Turbines and Jet Propulsion;21.9;21.9. Multi stage gas turbine;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.1.a;1.1.a. decimal to binary conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.1.b;1.1.b. binary to decimal conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.10.a;1.10.a. hex to decimal conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.10.b;1.10.b. decimal to hex conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.11;1.11. hex to binary and decimal conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.12;1.12. hex to binary and octal and decimal conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.13.a;1.13.a. hex to decimal conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.13.b;1.13.b. hex to decimal conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.14.a;1.14.a. addition of two binary numbers;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.14.b;1.14.b. addition of two binary numbers;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.14.c;1.14.c. addition of two binary numbers;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.15.a;1.15.a. subtraction of two binary numbers;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.15.b;1.15.b. subtraction of two binary numbers;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.16.a;1.16.a. multiplication of two binary numbers;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.16.b;1.16.b. multiplication of two binary numbers;error;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.17.a;1.17.a. division of two binary numbers;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.17.b;1.17.b. division of two binary numbers;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.18.a;1.18.a. binary to hex conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.18.b;1.18.b. decimal to octal conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.18.c;1.18.c. binary to decimal conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.19.a;1.19.a. decimal to octal conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.19.b;1.19.b. decimal to octal conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.19.c;1.19.c. decimal to octal conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.2;1.2. binary to decimal conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.20.a;1.20.a. decimal to signed binary number conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.20.b;1.20.b. decimal to signed binary system conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.20.c;1.20.c. decimal to signed binary system conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.21.a;1.21.a. subtraction using ones complement;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.21.b;1.21.b. subtraction using ones complement;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.21.c;1.21.c. subtraction using ones complement;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.21.d;1.21.d. subtraction using ones complement;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.21.e;1.21.e. subtraction using ones complement;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.22.a;1.22.a. subtraction using twos complement;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.22.b;1.22.b. subtraction using twos complement;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.22.c;1.22.c. subtraction using twos complement ;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.22.d;1.22.d. subtraction using twos complement;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.22.e;1.22.e. subtraction using twos complement;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.22.f;1.22.f. subtraction using twos complement;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.24.a;1.24.a. binary to gray code conversion ;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.24.b;1.24.b. binary to gray code conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.24.c;1.24.c. binary to gray code conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.25.a;1.25.a. subtraction using ones complement;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.25.b;1.25.b. gray code to binary conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.25.c;1.25.c. decimal to BCD conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.25.d;1.25.d. subtraction using ones complement;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.26.a;1.26.a. finding equivalent in decimal for excess 3 code;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.26.b;1.26.b. finding equivalent in decimal for excess 3 code;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.26.c;1.26.c. finding equivalent in decimal for excess 3 code;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.26.d;1.26.d. finding equivalent in decimal for excess 3 code;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.26.e;1.26.e. finding equivalent in decimal for excess 3 code;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.27.a;1.27.a. gray code to binary conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.27.b;1.27.b. gray code to binary conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.27.c;1.27.c. gray code to binary conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.28.a;1.28.a. constructing an even parity 7 bit hamming code;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.28.b;1.28.b. constructing an even parity 7 bit hamming code;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.29;1.29. locating error in hamming code and correcting it;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.3;1.3. binary to decimal conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.4;1.4. decimal to binary conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.5;1.5. decimal to octal conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.6;1.6. octal to decimal conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.7;1.7. binary to octal conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.8.a;1.8.a. decimal to binary conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.8.b;1.8.b. binary to decimal conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.9.a;1.9.a. decimal to binary conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.9.b;1.9.b. decimal to binary conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.9.c;1.9.c. decimal to binary conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3110;1. Number systems and binary codes;1.9.d;1.9.d. binary to decimal conversion;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.10.a;2.10.a. simplification of boolean expression;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.10.b;2.10.b. simplification of boolean expression;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.10.c;2.10.c. simplification of boolean expression;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.11;2.11. simplification of boolean expression;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.13.a;2.13.a. simplification of boolean expression;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.13.b;2.13.b. simplification of boolean expression;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.29;2.29. finding SOP;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.30;2.30. finding POS;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.31.a;2.31.a. conversion to canonical SOP;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.31.b;2.31.b. conversion to canonical POS;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.32;2.32. finding SOP and POS;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.33;2.33. finding SOP and POS;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.34;2.34. finding maxterms and minterms;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.35;2.35. finding maxterms;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.36;2.36. finding required data;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.37;2.37. finding SOP;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.38;2.38. finding sum of minterms and product of maxterms;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.8.a;2.8.a. simplification of boolean expression;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.8.b;2.8.b. simplification of boolean expression;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.9.a;2.9.a. simplification of boolean expression;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.9.b;2.9.b. simplification of boolean expression;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3334;2. Boolean algebra logic gates karnaugh map and minimization;2.9.c;2.9.c. simplification of boolean expression;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3316;3. Wave shaping clipping clamping and sweep circuits;3.1;3.1. finding required data;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3316;3. Wave shaping clipping clamping and sweep circuits;3.2;3.2. finding maximum amplification;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3316;3. Wave shaping clipping clamping and sweep circuits;3.3.a;3.3.a. finding clamping level voltage;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3316;3. Wave shaping clipping clamping and sweep circuits;3.3.b;3.3.b. finding clamping level voltage;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3316;3. Wave shaping clipping clamping and sweep circuits;3.4;3.4. finding output voltage;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3316;3. Wave shaping clipping clamping and sweep circuits;3.6;3.6. finding resistance and capacitance;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3316;3. Wave shaping clipping clamping and sweep circuits;3.7;3.7. finding peak voltage;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3326;5. Sequential circuits flip flops and multivibrators;5.1;5.1. finding required time;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3326;5. Sequential circuits flip flops and multivibrators;5.2;5.2. finding frequency and duty cycle;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3326;5. Sequential circuits flip flops and multivibrators;5.3;5.3. finding frequency and duty cycle;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.1;8.1. finding binary equivalent weights;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.10;8.10. finding required data;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.11;8.11. calculating output voltages;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.12;8.12. finding output voltages;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.13;8.13. calculating maximum scale voltage;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.14;8.14. finding required data;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.15;8.15. calculating number of bits;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.16;8.16. finding resolution;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.17;8.17. calculating required data;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.18;8.18. calculating conversion time;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.19;8.19. finding resolution;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.2;8.2. calculating required data;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.20;8.20. finding number of bits;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.21;8.21. calculating maximum conversion time;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.22;8.22. finding error in voltage;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.23;8.23. finding aperture time;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.24;8.24. finding quantisation error;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.25;8.25. finding digital output in binary form;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.3;8.3. calculating required data;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.4;8.4. finding required data;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.5;8.5. calculating required data;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.6;8.6. calculating required data;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.7;8.7. calculating value of resistors;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.8;8.8. finding value of resistor;correct;runtime; -1238;Digital Electronics: Circuits And Systems(V. K. Puri);3264;8. D to A and A to D converters;8.9;8.9. finding required data;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.1;2.1. Convert 10111 to decimal;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.10;2.10. Subtract one from 100;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.11;2.11. Multiply 1011 by 101;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.12;2.12. Multiply 11010 by 11011;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.13;2.13. Divide 110110 by 101;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.14;2.14. Convert 1010111010 to hexadecimal;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.15;2.15. Convert 11011110101110 to hexadecimal;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.16;2.16. Convert 4A8C to binary;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.17;2.17. Convert FACE to binary;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.18;2.18. Convert 2C9 to decimal;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.19;2.19. Convert EB4A to decimal;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.2;2.2. Convert 1011101001 to decimal;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.20;2.20. Convert 423 to hexadecimal;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.21;2.21. Convert 72905 to hexadecimal;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.22;2.22. Add 1A8 and 67B;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.23;2.23. Add ACEF1 and 16B7D;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.24;2.24. Subtract 3A8 from 1273;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.25;2.25. Multiply 1A3 by 89;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.26;2.26. Divide 1EC87 by A5;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.27;2.27. Convert 11111011110101 to octal;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.28;2.28. Convert 1011110100011000111 to octal;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.29;2.29. Convert octal number 3674 to binary;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.3;2.3. Convert 110111 to decimal;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.30;2.30. Minus 5 in twos complement form;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.31;2.31. 12 bit twos complement ;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.32;2.32. 16 bit twos complement ;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.33;2.33. Twos complement of minus4 second method;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.34;2.34. Twos complement of minus17 second method;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.35;2.35. Twos complement of minus4 third method;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.36;2.36. Twos complement of minus17 third method;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.37;2.37. Negative decimal number represented by 10011011;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.38;2.38. Add minus 17 to minus 30;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.39;2.39. Add minus 20 to 26;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.4;2.4. Convert 43 to binary;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.40;2.40. Add minus 29 to 14;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.41;2.41. Ones complement of minus 13;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.42;2.42. Ones complement of minus 13 second method;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.43;2.43. Ones complement addition using 4 bits;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.44;2.44. Ones complement addition using 4 bits;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.45;2.45. Ones complement addition using 8 bits;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.46;2.46. Convert 1101 point 000101 to decimal;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.47;2.47. Convert point 375 to binary;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.48;2.48. Convert point 54545 to binary;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.49;2.49. Convert 38 point 21 to binary;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.5;2.5. Convert 200 to binary;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.50;2.50. Binary addition;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.51;2.51. Binary mutiplication;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.6;2.6. Convert 43 to binary;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.7;2.7. Convert 200 to binary;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.8;2.8. Add 1011 and 110;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3136;2. Number Systems;2.9;2.9. Add 11110 and 11;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3204;3. Binary Codes;3.1;3.1. Add 647 to 492 in BCD;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3204;3. Binary Codes;3.10;3.10. Hamming code for 0101;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3204;3. Binary Codes;3.11;3.11. Correction of Hamming code 1111101;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3204;3. Binary Codes;3.2;3.2. Add 4318 and 7678 in BCD;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3204;3. Binary Codes;3.3;3.3. Add 3 and 2 in XS3;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3204;3. Binary Codes;3.4;3.4. Add 6 and 8 in XS3;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3204;3. Binary Codes;3.5;3.5. Convert binary 1011 to Gray code;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3204;3. Binary Codes;3.6;3.6. Convert binary 1001011 to Gray code;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3204;3. Binary Codes;3.7;3.7. Convert Gray code 1011 to binary;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3204;3. Binary Codes;3.8;3.8. Convert Gray code 1001011 to binary;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3204;3. Binary Codes;3.9;3.9. Hamming code for 1011;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3206;4. Boolean Algebra;4.1;4.1. Demorganize a function;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3206;4. Boolean Algebra;4.2;4.2. Reduce an expression;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3206;4. Boolean Algebra;4.3;4.3. Reduce an expression;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3206;4. Boolean Algebra;4.4;4.4. Reduce a boolean expression;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3206;4. Boolean Algebra;4.5;4.5. Reduce a Boolean expression;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3241;6. Combinational Logic;6.1;6.1. Convert A plus B to minterms;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3241;6. Combinational Logic;6.10;6.10. 4 variable mapping;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3241;6. Combinational Logic;6.11;6.11. Reduce an expression by Kmap;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3241;6. Combinational Logic;6.12;6.12. Reduce an expression using Kmap;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3241;6. Combinational Logic;6.13;6.13. Reduce expression by kmap;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3241;6. Combinational Logic;6.14.a;6.14.a. Inputs Required;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3241;6. Combinational Logic;6.14.b;6.14.b. Inputs required;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3241;6. Combinational Logic;6.14.c;6.14.c. Inputs required;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3241;6. Combinational Logic;6.14.d;6.14.d. Inputs required;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3241;6. Combinational Logic;6.17;6.17. Kmap POS SOP;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3241;6. Combinational Logic;6.19;6.19. Reduce kmap by POS;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3241;6. Combinational Logic;6.2;6.2. Find minterms for A plus BC;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3241;6. Combinational Logic;6.24;6.24. Multiple output equation using mapping;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3241;6. Combinational Logic;6.25;6.25. Multiple output equation using mapping;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3241;6. Combinational Logic;6.3;6.3. Find minterms for AB plus ACD;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3241;6. Combinational Logic;6.30;6.30. Reducing expression by Kmap;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3241;6. Combinational Logic;6.4;6.4. Minterm designation;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3241;6. Combinational Logic;6.5;6.5. Minterm designation;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3241;6. Combinational Logic;6.6;6.6. 2 variable mapping;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3241;6. Combinational Logic;6.7;6.7. 3 variable mapping;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3207;11. Analog Digital Conversion;11.1;11.1. Percentage resolution of 5bit DA converter;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3207;11. Analog Digital Conversion;11.2;11.2. 6 bit analog to digital converter;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3207;11. Analog Digital Conversion;11.3;11.3. Compute the gain of an Opamp;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3207;11. Analog Digital Conversion;11.4;11.4. Compute the output voltage;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3207;11. Analog Digital Conversion;11.5;11.5. Compute output voltage;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3207;11. Analog Digital Conversion;11.6;11.6. Resolution and Percent resolution 12bit DAconverter ;error;runtime; -1241;Digital Electronics: An Introduction To Theory And Practice(W. H. Gothmann);3207;11. Analog Digital Conversion;11.7;11.7. Resolution and Percent resolution 10bit ADconverter ;error;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2965;1. Basic Modes of Heat Transfer;1.1;1.1. Heat Loss Through a Brick Wall;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2965;1. Basic Modes of Heat Transfer;1.10;1.10. Heat Loss From Pipe;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2965;1. Basic Modes of Heat Transfer;1.11;1.11. Heat Exchanger Analysis;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2965;1. Basic Modes of Heat Transfer;1.12;1.12. Insulation in Gas Furnace;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2965;1. Basic Modes of Heat Transfer;1.13;1.13. Energy Balance at Roof;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2965;1. Basic Modes of Heat Transfer;1.14;1.14. Theoretical example;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2965;1. Basic Modes of Heat Transfer;1.2;1.2. Heat Transfer Through a Window Glass;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2965;1. Basic Modes of Heat Transfer;1.3;1.3. Natural Convection Between Air and Roof;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2965;1. Basic Modes of Heat Transfer;1.4;1.4. Analysis of Electrically Heated Rod;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2965;1. Basic Modes of Heat Transfer;1.5;1.5. Heat Loss From a Composite Wall;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2965;1. Basic Modes of Heat Transfer;1.6;1.6. Analysis of Aluminium Plates;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2965;1. Basic Modes of Heat Transfer;1.7;1.7. Heat flow in Firebrick Steel System;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2965;1. Basic Modes of Heat Transfer;1.8;1.8. Heat Dissipation in Instrument Circuit;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2965;1. Basic Modes of Heat Transfer;1.9;1.9. Heat Transfer Through Brick Wall;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3483;2. Heat Conduction;2.1;2.1. Calculation of Heat Transfer Coeffcient;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3483;2. Heat Conduction;2.10;2.10. Transient Response of Thermocouple;error;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3483;2. Heat Conduction;2.11;2.11. Minimum Depth of Water Mains;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3483;2. Heat Conduction;2.12;2.12. Steel Component Fabrication Process;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3483;2. Heat Conduction;2.13;2.13. Analysis of Concrete Wall;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3483;2. Heat Conduction;2.14;2.14. Cylinder Places in Hot Oven;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3483;2. Heat Conduction;2.2;2.2. Insulated vs Uninsulated Copper Pipe;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3483;2. Heat Conduction;2.3;2.3. Hot Fluid Flowing Through Pipe;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3483;2. Heat Conduction;2.4;2.4. Boiling Off Of Nitrogen;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3483;2. Heat Conduction;2.5;2.5. Analysis of Nuclear Reactor;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3483;2. Heat Conduction;2.6;2.6. Analysis of Copper Pin Fin;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3483;2. Heat Conduction;2.7;2.7. Heat Loss From Circumferential Fin;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3483;2. Heat Conduction;2.8;2.8. Heat Loss From Buried Pipe;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3483;2. Heat Conduction;2.9;2.9. Heat Loss From Cubic Furnace;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2873;3. Numerical Analysis of Heat Conduction;3.1;3.1. Temperature Distribution in Heating Element;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2873;3. Numerical Analysis of Heat Conduction;3.2;3.2. Critical Depth to Avoid Freezing;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2873;3. Numerical Analysis of Heat Conduction;3.3;3.3. Time Required For Cooling of Sheet;timeout;runtime;TIMEOUT REACHED, PLEASE RUN THE PROGRAM AGAIN -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2873;3. Numerical Analysis of Heat Conduction;3.4;3.4. Temperature Distribution in Rod Crosssection;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2873;3. Numerical Analysis of Heat Conduction;3.5;3.5. Analysis of Alloy Bus Bar;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2873;3. Numerical Analysis of Heat Conduction;3.7;3.7. Cooling of Long Cylinder;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2821;4. Analysis of Convection Heat Transfer;4.1;4.1. Computation of Heat Transfer Coefficient;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2821;4. Analysis of Convection Heat Transfer;4.2;4.2. Theoretical Problem;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2821;4. Analysis of Convection Heat Transfer;4.3;4.3. Flat Plate Solar Collector;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2821;4. Analysis of Convection Heat Transfer;4.4;4.4. Heat Flow From Crankcase;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2816;5. Natural Convection;5.1;5.1. Convection Heat Loss From Room Heater;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2816;5. Natural Convection;5.2;5.2. Power Requirement of Heater;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2816;5. Natural Convection;5.3;5.3. Heat Loss From Grill;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2816;5. Natural Convection;5.4;5.4. Transition to Turbulent Flow in Pipe;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2816;5. Natural Convection;5.5;5.5. Rate of Heat Transfer From Burner;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);2816;5. Natural Convection;5.6;5.6. Convection Heat Transfer From Shaft;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3498;6. Forced Convection Inside Tubes and Ducts;6.1;6.1. Heating of Water in Tube;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3498;6. Forced Convection Inside Tubes and Ducts;6.2;6.2. Recycling of Engine Oil;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3498;6. Forced Convection Inside Tubes and Ducts;6.3;6.3. Flow of n Butyl Alcohol;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3498;6. Forced Convection Inside Tubes and Ducts;6.4;6.4. Cooling of Electronic Device;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3498;6. Forced Convection Inside Tubes and Ducts;6.5;6.5. Water Flowing in an Annulus;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3498;6. Forced Convection Inside Tubes and Ducts;6.6;6.6. Tube Length in Metal Flow;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3498;6. Forced Convection Inside Tubes and Ducts;6.7;6.7. Heat Transfer Coefficient in Circuit;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3494;7. Forced Convection Over Exterior Surfaces;7.1;7.1. Heat Transfer Coefficient Over Wing;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3494;7. Forced Convection Over Exterior Surfaces;7.2;7.2. Current in Hot Wire Anemometer;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3494;7. Forced Convection Over Exterior Surfaces;7.3;7.3. Heat Loss From Solar Collector;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3494;7. Forced Convection Over Exterior Surfaces;7.4;7.4. Heat Transfer Coefficient in Pipe;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3494;7. Forced Convection Over Exterior Surfaces;7.5;7.5. Heating of Atmospheric Air;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3494;7. Forced Convection Over Exterior Surfaces;7.6;7.6. Pre Heating of Methane;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3494;7. Forced Convection Over Exterior Surfaces;7.7;7.7. Analysis in Water Jet Problem;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3494;7. Forced Convection Over Exterior Surfaces;7.8;7.8. Analysis of Air Jet Problem;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3556;8. Heat Exchangers;8.1;8.1. Heat Transfer Surface Area Calculations;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3556;8. Heat Exchangers;8.2;8.2. Oil Water Heat Exchanger Problem;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3556;8. Heat Exchangers;8.3;8.3. Heating of Air From Gases;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3556;8. Heat Exchangers;8.4;8.4. Heating Seawater From Condenser;correct;runtime; -1244;Principles Of Heat Transfer(F. Kreith, R. M. Manglik And M. S. Bohn);3556;8. Heat Exchangers;8.5;8.5. Theoretical Problem;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2926;1. Dimensions and Units;1.1;1.1. Mass flow rate;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2926;1. Dimensions and Units;1.2;1.2. steam velocity in pipeline;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2926;1. Dimensions and Units;1.3;1.3. conversion of TR;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2926;1. Dimensions and Units;1.4;1.4. conversion of equation into SI units;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.1;2.1. gm of NH4Cl;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.10;2.10. mass percent;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.11;2.11. no of ions;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.12;2.12. composition of solution;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.13;2.13. composition of solution;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.14;2.14. Na2O percentage;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.15;2.15. TOC and ThOD;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.16;2.16. conc of salts;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.17;2.17. ppm unit;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.18;2.18. molarity normality and molality;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.19;2.19. molarity of solution;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.2;2.2. equivalent moles of CuSO4;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.20;2.20. conc of CO2;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.21;2.21. pH of HOCl;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.22;2.22. Mavg and composition of air;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.23;2.23. Composition and specific gravity;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.24;2.24. percentage error;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.25;2.25. molar volume;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.26;2.26. ternary mix analysis;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.27;2.27. vapour mix composition;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.28;2.28. absolute humidity;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.29;2.29. nozzle outlet T;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.3;2.3. moles of K2CO3;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.4;2.4. no of atoms of BaCl2;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.5;2.5. equivalent mass;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.6;2.6. equivalents;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.7;2.7. composition of mixture;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.8;2.8. composition and molar mass;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);2927;2. Basic Chemical Calculations;2.9;2.9. actual urea content;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3024;3. Material Balances without Chemical Reaction;3.1;3.1. Lancashire boiler;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3024;3. Material Balances without Chemical Reaction;3.10;3.10. Matrix use;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3024;3. Material Balances without Chemical Reaction;3.11;3.11. Flowrate calculation;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3024;3. Material Balances without Chemical Reaction;3.12;3.12. solving eqs with graphical plot;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3024;3. Material Balances without Chemical Reaction;3.14;3.14. ion exclusion process;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3024;3. Material Balances without Chemical Reaction;3.15;3.15. Air Conditioning plant;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3024;3. Material Balances without Chemical Reaction;3.16;3.16. Overall efficiency of Pulp Mill;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3024;3. Material Balances without Chemical Reaction;3.17;3.17. 2 stage membrane CO separation;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3024;3. Material Balances without Chemical Reaction;3.18;3.18. 2 stage reverse osmosis;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3024;3. Material Balances without Chemical Reaction;3.2;3.2. Textile mill;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3024;3. Material Balances without Chemical Reaction;3.20;3.20. Purging by atmospheric pressure method;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3024;3. Material Balances without Chemical Reaction;3.3;3.3. recovered tannin;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3024;3. Material Balances without Chemical Reaction;3.4;3.4. Extraction of dry neem leaves;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3024;3. Material Balances without Chemical Reaction;3.5;3.5. Extraction of mix of Acetone and Chloroform;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3024;3. Material Balances without Chemical Reaction;3.6;3.6. Pressure Swing Adsorption;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3024;3. Material Balances without Chemical Reaction;3.7;3.7. Required Oleum strength;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3024;3. Material Balances without Chemical Reaction;3.8;3.8. Mixed acid formation;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3024;3. Material Balances without Chemical Reaction;3.9;3.9. Actual analysis of borewell water;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.1;4.1. Manufacture of MCA;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.10;4.10. Material Balance in Formox Process;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.11;4.11. Pyrites fines roasting;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.12;4.12. Burning of Pyrites and ZnS;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.13;4.13. Raising pH with NaOH;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.14;4.14. Solving eg 10 with Linear Model Method;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.15;4.15. Electrochemical cell;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.16;4.16. Hooker type Diaphragm Cell;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.17;4.17. Naptha Reforming to Ammonia;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.18;4.18. Additional membrane separator in eg 17;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.19;4.19. Partial Demineralisation Plant;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.2;4.2. Bechamp Process;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.20;4.20. Capacity increment by Second Reactor;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.21;4.21. Blast Furnace Calculations;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.3;4.3. Pilot Plant Calculations;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.4;4.4. Manufacturing of Acetaldehyde;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.5;4.5. Lime Soda process;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.6;4.6. Manufacture of Ammonia by Fertilizer plant;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.7;4.7. Saponification of Tallow;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.8;4.8. Sulphur Burner;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3025;4. Material Balances Involving Chemical Reactions;4.9;4.9. Hydrogenation of Refined Soybean oil;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.1;5.1. Pumping of water;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.10;5.10. Calculations on O zylene;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.11;5.11. latent heat of vaporization of ethanol;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.12;5.12. Saturation P of steam;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.13;5.13. Bubble and Dew pt calculations;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.14;5.14. Hot air drying machine;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.15;5.15. Flow of saturated vapors of R134;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.16;5.16. Liquifaction of Cl2;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.17;5.17. Melting of Tin;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.18;5.18. steam fluctuation calculations;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.19;5.19. Manufacture of dry ice;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.2;5.2. Heating of CH4;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.20;5.20. Steam produced in S burner;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.21;5.21. Equimoar pentane and hexane mix;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.22;5.22. Flashing of saturated liq mix;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.23;5.23. H2 recovery from Refinery off gases;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.24;5.24. Refrigiration calculations;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.25;5.25. Chlorination of benzene;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.26;5.26. Heat of formation of ethylene;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.27;5.27. Heat of combustion of ethyl mercaptan;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.28;5.28. Std heat of formation of gaseous di ethyl ether;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.29;5.29. Heat of formation of motor spirit;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.3;5.3. Calculation of heat added;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.30;5.30. Mean heat capacity;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.31;5.31. Heat of reaction;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.32;5.32. Std heat of reaction;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.33;5.33. Burning of SO2;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.34;5.34. Esterification of acetic acid;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.35;5.35. Heat transfer in intercoolers;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.36;5.36. Enthalpy balance in the reactor;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.37;5.37. Calculation of circulation rate;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.38;5.38. Loop reactor for EDC manufacture;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.39;5.39. Calculations in adiabatic converter;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.4;5.4. Heating of Toulene;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.40;5.40. Burning of HCl;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.41;5.41. Dehydrogenation of EB;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.42;5.42. Heat of crystallization;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.43;5.43. Heat of crystallization;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.44;5.44. Heat of sol of Boric acid;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.45;5.45. Heat of dissolution;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.46;5.46. T change in dissolution;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.47;5.47. Using std heat of formations;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.48;5.48. Heat effect of the solution;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.49;5.49. Integral heats of solution;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.5;5.5. Aq caustic soda heating;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.50;5.50. Hx for H2SO4;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.51;5.51. Using heat of formations of H2SO4;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.52;5.52. Heat to be removed for cooling it to 308K;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.53;5.53. Heat changes in formation of MNB;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.54;5.54. Final T of solution in absorption of NH3;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.55;5.55. Using table 5 60;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.56;5.56. Heat removed in cooler;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.57;5.57. Hx vs x1;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.58;5.58. repat of 5 57 using heat capacities;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.59;5.59. He vs x1 of acetone and ethylacetate;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.6;5.6. Heating Chlorinated diphenyl;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.60;5.60. Heat of dilution;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.61;5.61. eg 5 60 with use of ice at 273K;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.7;5.7. Roasting of pyrites fine;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.8;5.8. Anniline and water mix subcooled;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3404;5. Energy Balances;5.9;5.9. Vapor Pressure calculations;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.1;6.1. Overall material and energy balance;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.10;6.10. Cooling in a Crystallizer;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.11;6.11. Recovery of p DCB;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.12;6.12. Extractive Crystallization of o and p nitrochlorobenzenes;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.13;6.13. Calculation of Dew Point;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.14;6.14. Calculations on Ambient Air;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.15;6.15. Humidification of Air in a Textile Industry;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.16;6.16. Induced draft cooling tower;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.17;6.17. Waste Heat recovery unit;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.18;6.18. Recovery of CS2 by adsorption;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.19;6.19. Hooker type diaphragm cell;error;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.2;6.2. Cryogenic Separation of Nitrogen;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.20;6.20. Absorption of NH3 from pure gas;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.21;6.21. Direct contact counter current rotary drier;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.22;6.22. Hot air dryer of textile mill;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.23;6.23. Quadruple effect forward feed evaporator;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.24;6.24. Triple effect evaporation system;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.25;6.25. Four compartment washing thickner;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.3;6.3. Azeotropic distillation of IPA and water;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.4;6.4. CO2 absorption in aq MEA solution;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.5;6.5. Heat effect of Scrubbing;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.6;6.6. Extraction of Acetic Acid;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.7;6.7. Multiple contact counter current Extractor;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.8;6.8. Recovery of Acetic Acid by Ethyl Acetate Extraction;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3031;6. Stoichiometry and Unit Operations;6.9;6.9. Yield of Glauber salt;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3403;7. Combustion;7.1;7.1. GCV and NCV calculations;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3403;7. Combustion;7.10;7.10. Atomization of fuel;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3403;7. Combustion;7.11;7.11. Water tube boiler;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3403;7. Combustion;7.12;7.12. Gassification by coal;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3403;7. Combustion;7.13;7.13. Open Hearth steel furnace;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3403;7. Combustion;7.2;7.2. NCV of crude oil;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3403;7. Combustion;7.3;7.3. Gaseous propane;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3403;7. Combustion;7.4;7.4. GCV NCV for natural gas;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3403;7. Combustion;7.5;7.5. Coal burnt in excess air;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3403;7. Combustion;7.6;7.6. Residue fuel oil sample;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3403;7. Combustion;7.7;7.7. Orsat analysis of flue gases;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3403;7. Combustion;7.8;7.8. Sugar factory boiler;correct;runtime; -1247;Stoichiometry(B. I. Bhatt And S. B. Thakore);3403;7. Combustion;7.9;7.9. Stoker fired water tube boiler;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3369;1. Introduction;1.1;1.1. Manometer problem;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3369;1. Introduction;1.3;1.3. Gauge Pressure Problem;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3370;2. Newtons law of viscosity and falling film flow;2.1;2.1. Shear stress;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3370;2. Newtons law of viscosity and falling film flow;2.4;2.4. Liquid flow rate;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3370;2. Newtons law of viscosity and falling film flow;2.5;2.5. ratio comparison;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3370;2. Newtons law of viscosity and falling film flow;2.6;2.6. volumetric Flow rate calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3370;2. Newtons law of viscosity and falling film flow;2.7;2.7. Liquid film velocity;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3370;2. Newtons law of viscosity and falling film flow;2.8;2.8. Liquid Flow rate calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3371;3. Viscous flow in tubes and parallel planes;3.12;3.12. Volumetric flow rate ratio;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3371;3. Viscous flow in tubes and parallel planes;3.13;3.13. Reynolds number calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3371;3. Viscous flow in tubes and parallel planes;3.2;3.2. Ratios;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3371;3. Viscous flow in tubes and parallel planes;3.5;3.5. Change in ratio;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3371;3. Viscous flow in tubes and parallel planes;3.6;3.6. Flow rate calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3371;3. Viscous flow in tubes and parallel planes;3.7;3.7. Volumetric flow rate comparison;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3371;3. Viscous flow in tubes and parallel planes;3.9;3.9. Pressure gradient;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3399;4. Turbulent flow and friction factors;4.10;4.10. fanning friction factor;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3399;4. Turbulent flow and friction factors;4.11;4.11. Velocity calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3399;4. Turbulent flow and friction factors;4.12;4.12. Sublayer thickness calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3399;4. Turbulent flow and friction factors;4.13;4.13. Flow rate calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3399;4. Turbulent flow and friction factors;4.14;4.14. Diameter estimation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3399;4. Turbulent flow and friction factors;4.15;4.15. Velocity comparison;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3399;4. Turbulent flow and friction factors;4.18;4.18. Calculations;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3399;4. Turbulent flow and friction factors;4.19;4.19. Friction factor;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3399;4. Turbulent flow and friction factors;4.20;4.20. Velocity gradient;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3399;4. Turbulent flow and friction factors;4.8;4.8. Power law;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3399;4. Turbulent flow and friction factors;4.9;4.9. n calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3400;5. General equation and boundary layer theory;5.5;5.5. Momentum thickness;error;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3400;5. General equation and boundary layer theory;5.6;5.6. Reynolds number approximation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3400;5. General equation and boundary layer theory;5.7;5.7. Calculations;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3402;6. Free settling of particles;6.2;6.2. Particle size estimation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3402;6. Free settling of particles;6.3;6.3. Drag force;error;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3402;6. Free settling of particles;6.4;6.4. Drag force calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3402;6. Free settling of particles;6.5;6.5. Terminal velocity calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3406;7. Packed beds and fluidized beds;7.2;7.2. Porosity determination;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3406;7. Packed beds and fluidized beds;7.3;7.3. Pressure drop calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3406;7. Packed beds and fluidized beds;7.4;7.4. porosity calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3406;7. Packed beds and fluidized beds;7.5;7.5. fluidization velocity calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3407;8. Bernoulli equation and applications;8.1;8.1. Pressure gradient;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3407;8. Bernoulli equation and applications;8.2;8.2. Ideal Power calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3407;8. Bernoulli equation and applications;8.3;8.3. Pressure drop and power;error;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3407;8. Bernoulli equation and applications;8.4;8.4. velocity calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3407;8. Bernoulli equation and applications;8.6;8.6. Draining time;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3407;8. Bernoulli equation and applications;8.7;8.7. Velocity;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3407;8. Bernoulli equation and applications;8.9;8.9. Power calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3423;9. Compressible gas flows;9.1;9.1. Average velocity calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3423;9. Compressible gas flows;9.2;9.2. Manometer reading;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3423;9. Compressible gas flows;9.3;9.3. Orifice size;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3423;9. Compressible gas flows;9.4;9.4. Venturi coefficient;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3423;9. Compressible gas flows;9.5;9.5. Pressure loss determination;error;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3422;10. Compressible gas flows;10.1;10.1. Pressure determination;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3422;10. Compressible gas flows;10.2;10.2. pressure calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3422;10. Compressible gas flows;10.3;10.3. work calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3422;10. Compressible gas flows;10.4;10.4. Power calculation;error;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3424;11. Additional solved problems;11.1;11.1. Head calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3424;11. Additional solved problems;11.10;11.10. Nature of flow ;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3424;11. Additional solved problems;11.14;11.14. Pressure gradient;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3424;11. Additional solved problems;11.15;11.15. Pressure ratios;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3424;11. Additional solved problems;11.17;11.17. Head loss;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3424;11. Additional solved problems;11.19;11.19. Shear stress;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3424;11. Additional solved problems;11.2;11.2. Angle of inclination;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3424;11. Additional solved problems;11.3;11.3. turbulent viscosity to molecular viscosity;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3424;11. Additional solved problems;11.6;11.6. time calculation;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3424;11. Additional solved problems;11.7;11.7. Friction factor;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3424;11. Additional solved problems;11.8;11.8. Friction factor;correct;runtime; -1268;Fluid Mechanics(S. Subrahmaniyam);3424;11. Additional solved problems;11.9;11.9. Drag force;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2831;2. Applying Hydraulic Principles To Single Acting Linear Systems;2.1;2.1. chapter 2 example 1;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2831;2. Applying Hydraulic Principles To Single Acting Linear Systems;2.2;2.2. chapter 2 example 2;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2831;2. Applying Hydraulic Principles To Single Acting Linear Systems;2.3;2.3. chapter 2 example 3;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2831;2. Applying Hydraulic Principles To Single Acting Linear Systems;2.4;2.4. chapter 2 example 4;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2831;2. Applying Hydraulic Principles To Single Acting Linear Systems;2.5;2.5. chapter 2 example 5;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2831;2. Applying Hydraulic Principles To Single Acting Linear Systems;2.6;2.6. chapter 2 example 6;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2831;2. Applying Hydraulic Principles To Single Acting Linear Systems;2.7;2.7. chapter 2 example 7;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2833;3. Determining the properties of fluids;3.1;3.1. chapter 3 example 1;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2833;3. Determining the properties of fluids;3.11;3.11. chapter 3 example 11;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2833;3. Determining the properties of fluids;3.2;3.2. chapter 3 example 2;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2833;3. Determining the properties of fluids;3.3;3.3. chapter 3 example 3;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2833;3. Determining the properties of fluids;3.4;3.4. chapter 3 example 4;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2833;3. Determining the properties of fluids;3.5;3.5. chapter 3 example 5;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2833;3. Determining the properties of fluids;3.6;3.6. chapter 3 example 6;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2833;3. Determining the properties of fluids;3.7;3.7. chapter 3 example 7;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2833;3. Determining the properties of fluids;3.8;3.8. chapter 3 example 8;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2833;3. Determining the properties of fluids;3.9;3.9. chapter 3 example 9;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2834;4. applications and testing of seals and packings;4.1;4.1. Chapter 4 example 1;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2834;4. applications and testing of seals and packings;4.2;4.2. Chapter 4 example 2;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2834;4. applications and testing of seals and packings;4.3;4.3. Chapter 4 example 3;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2835;5. Accounting for the energy in hydraulic systems;5.1;5.1. Chapter 5 example 1;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2835;5. Accounting for the energy in hydraulic systems;5.10;5.10. chapter 5 example 10;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2835;5. Accounting for the energy in hydraulic systems;5.11;5.11. chapter 5 example 11;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2835;5. Accounting for the energy in hydraulic systems;5.12;5.12. chapter 5 example 12;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2835;5. Accounting for the energy in hydraulic systems;5.13;5.13. chapter 5 example 13;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2835;5. Accounting for the energy in hydraulic systems;5.2;5.2. chapter 5 example 2;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2835;5. Accounting for the energy in hydraulic systems;5.3;5.3. chapter 5 example 3;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2835;5. Accounting for the energy in hydraulic systems;5.4;5.4. chapter 5 example 4;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2835;5. Accounting for the energy in hydraulic systems;5.5;5.5. chapter 5 example 5;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2835;5. Accounting for the energy in hydraulic systems;5.6;5.6. chapter 5 example 6;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2835;5. Accounting for the energy in hydraulic systems;5.7;5.7. chapter 5 example 7;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2835;5. Accounting for the energy in hydraulic systems;5.8;5.8. chapter 5 example 8;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2835;5. Accounting for the energy in hydraulic systems;5.9;5.9. chapter 5 example 9;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2836;6. Characteristics of rotary pumps;6.1;6.1. chapter 6 example 1;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2836;6. Characteristics of rotary pumps;6.2;6.2. chapter 6 example 2;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2836;6. Characteristics of rotary pumps;6.3;6.3. chapter 6 example 3;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2836;6. Characteristics of rotary pumps;6.4;6.4. chapter 6 example 4;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2836;6. Characteristics of rotary pumps;6.5;6.5. chapter 6 example 5;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2837;7. Valves in hydraulic transmission control;7.1;7.1. chapter 7 example1;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2838;8. Characteristics of Actuators;8.1;8.1. chapter 8 example 1;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2838;8. Characteristics of Actuators;8.10;8.10. chapter 8 example 10;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2838;8. Characteristics of Actuators;8.11;8.11. chapter 8 example 11;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2838;8. Characteristics of Actuators;8.12;8.12. chapter 8 example 12;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2838;8. Characteristics of Actuators;8.2;8.2. chapter 8 example 2;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2838;8. Characteristics of Actuators;8.3;8.3. chapter 8 example 3;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2838;8. Characteristics of Actuators;8.4;8.4. chapter 8 example 4;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2838;8. Characteristics of Actuators;8.5;8.5. chapter 8 example 5;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2838;8. Characteristics of Actuators;8.6;8.6. chapter 8 example 6;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2838;8. Characteristics of Actuators;8.7;8.7. chapter 8 example 7;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2838;8. Characteristics of Actuators;8.8;8.8. chapter 8 example 8;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2838;8. Characteristics of Actuators;8.9;8.9. chapter 8 example 9;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2839;9. Hydraulic system components;9.1;9.1. chapter 9 example 1;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2839;9. Hydraulic system components;9.2;9.2. chapter 9 example 2;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2839;9. Hydraulic system components;9.3;9.3. chapter 9 example 3;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2839;9. Hydraulic system components;9.4;9.4. chapter 9 example 4;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2839;9. Hydraulic system components;9.5;9.5. chapter 9 example 5;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2839;9. Hydraulic system components;9.6;9.6. chapter 9 example 6;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2840;11. Introduction to Pneumatics;11.1;11.1. chapter 11 example 1;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2840;11. Introduction to Pneumatics;11.2;11.2. chapter 11 example 2;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2840;11. Introduction to Pneumatics;11.3;11.3. chapter 11 example 3;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2840;11. Introduction to Pneumatics;11.4;11.4. chapter 11 example 4;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2840;11. Introduction to Pneumatics;11.5;11.5. chapter 11 example 5;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2840;11. Introduction to Pneumatics;11.6;11.6. chapter 11 example 6;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2840;11. Introduction to Pneumatics;11.7;11.7. chapter 11 example 7;correct;runtime; -1280;Fluid Power Theory & Applications(J. Sullivan);2840;11. Introduction to Pneumatics;11.8;11.8. chapter 11 example 8;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2961;1. Heat And Temperature Thermometry;1.1;1.1. chapter 1 example 1;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2961;1. Heat And Temperature Thermometry;1.10;1.10. chapter 1 example 10;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2961;1. Heat And Temperature Thermometry;1.2;1.2. chapter 1 example 2;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2961;1. Heat And Temperature Thermometry;1.3;1.3. chapter 1 example 3;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2961;1. Heat And Temperature Thermometry;1.4;1.4. chapter 1 example 4;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2961;1. Heat And Temperature Thermometry;1.5;1.5. chapter 1 example 5;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2961;1. Heat And Temperature Thermometry;1.6;1.6. chapter 1 example 6;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2961;1. Heat And Temperature Thermometry;1.7;1.7. chapter 1 example 7;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2961;1. Heat And Temperature Thermometry;1.8;1.8. chapter 1 example 8;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2961;1. Heat And Temperature Thermometry;1.9;1.9. chapter 1 example 9;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2962;2. Thermal Expansion;2.10;2.10. chapter 2 example 10;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2962;2. Thermal Expansion;2.12;2.12. chapter 2 example 12;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2962;2. Thermal Expansion;2.13;2.13. chapter 2 example 13;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2962;2. Thermal Expansion;2.14;2.14. chapter 2 example 14;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2962;2. Thermal Expansion;2.15;2.15. chapter 2 example 15;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2962;2. Thermal Expansion;2.5;2.5. chapter 2 example 5;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2962;2. Thermal Expansion;2.6;2.6. chapter 2 example 6;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2962;2. Thermal Expansion;2.7;2.7. chapter 2 example 7;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2962;2. Thermal Expansion;2.8;2.8. chapter 2 example 8;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2962;2. Thermal Expansion;2.9;2.9. chapter 2 example 9;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2963;3. calorimetry;3.10;3.10. chapter 3 example 10;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2963;3. calorimetry;3.12;3.12. chapter 3 example 12;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2963;3. calorimetry;3.13;3.13. chapter 3 example 13;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2963;3. calorimetry;3.14;3.14. chapter 3 example 14;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2963;3. calorimetry;3.15;3.15. chapter 3 example 15;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2963;3. calorimetry;3.16;3.16. chapter 3 example 16;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2963;3. calorimetry;3.17;3.17. chapter 3 example 17;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2963;3. calorimetry;3.19;3.19. chapter 3 example 19;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2963;3. calorimetry;3.2;3.2. chapter 3 example 2;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2963;3. calorimetry;3.3;3.3. chapter 3 example 3;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2963;3. calorimetry;3.4;3.4. chapter 3 example 4;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2963;3. calorimetry;3.5;3.5. chapter 3 example 5;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2963;3. calorimetry;3.6;3.6. chapter 3 example 6;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2963;3. calorimetry;3.7;3.7. chapter 3 example 7;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2963;3. calorimetry;3.8;3.8. chapter 3 example 8;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2963;3. calorimetry;3.9;3.9. chapter 3 example 9;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2964;4. change of state;4.10;4.10. chapter 4 exampe 10;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2964;4. change of state;4.12;4.12. chapter 4 exampe 12;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2964;4. change of state;4.14;4.14. chapter 4 exampe 14;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2964;4. change of state;4.15;4.15. chapter 4 exampe 15;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2964;4. change of state;4.2;4.2. example 4 chapter 2;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2964;4. change of state;4.3;4.3. chapter 4 exampe 2;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2964;4. change of state;4.4;4.4. chapter 4 exampe 4;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2964;4. change of state;4.5;4.5. chapter 4 exampe 5;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2964;4. change of state;4.6;4.6. chapter 4 exampe 6;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2964;4. change of state;4.7;4.7. chapter 4 exampe 7;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2964;4. change of state;4.8;4.8. chapter 4 exampe 8;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2964;4. change of state;4.9;4.9. chapter 4 exampe 9;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2966;5. Kinetic theory of Heat;5.1;5.1. chapter 5 example 1;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2966;5. Kinetic theory of Heat;5.2;5.2. chapter 5 example 2;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2966;5. Kinetic theory of Heat;5.3;5.3. chapter 5 example 3;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2966;5. Kinetic theory of Heat;5.4;5.4. chapter 5 example 4;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2967;6. kinetic theory of gases;6.10;6.10. chapter 6 example 10;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2967;6. kinetic theory of gases;6.11;6.11. chapter 6 example 11;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2967;6. kinetic theory of gases;6.12;6.12. chapter 6 example 12;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2967;6. kinetic theory of gases;6.13;6.13. chapter 6 example 13;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2967;6. kinetic theory of gases;6.14;6.14. chapter 6 example 14;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2967;6. kinetic theory of gases;6.15;6.15. chapter 6 example 15;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2967;6. kinetic theory of gases;6.19;6.19. chapter 6 example 19;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2967;6. kinetic theory of gases;6.2;6.2. chapter 6 example 2;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2967;6. kinetic theory of gases;6.20;6.20. chapter 6 example 20;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2967;6. kinetic theory of gases;6.5;6.5. chapter 6 example 5;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2967;6. kinetic theory of gases;6.6;6.6. chapter 6 example 6;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2967;6. kinetic theory of gases;6.7;6.7. chapter 6 example 7;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2967;6. kinetic theory of gases;6.8;6.8. chapter 6 example 8;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2967;6. kinetic theory of gases;6.9;6.9. chapter 6 example 9;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2968;7. continuity of state;7.1;7.1. chapter 7 example 1;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2968;7. continuity of state;7.10;7.10. chapter 7 example 10;error;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2968;7. continuity of state;7.11;7.11. chapter 7 example 11;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2968;7. continuity of state;7.12;7.12. chapter 7 example 12;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2968;7. continuity of state;7.2;7.2. chapter 7 example 2;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2968;7. continuity of state;7.7;7.7. chapter 7 example 7;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2968;7. continuity of state;7.8;7.8. chapter 7 example 8;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2968;7. continuity of state;7.9;7.9. chapter 7 example 9;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.1;8.1. chapter 8 example 1;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.10;8.10. chapter 8 example 10;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.11;8.11. chapter 8 example 11;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.12;8.12. chapter 8 example 12;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.13;8.13. chapter 8 example 13;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.14;8.14. chapter 8 example 14;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.15;8.15. chapter 8 example 15;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.16;8.16. chapter 8 example 16;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.17;8.17. chapter 8 example 17;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.18;8.18. chapter 8 example 18;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.19;8.19. chapter 8 example 19;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.2;8.2. chapter 8 example 2;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.20;8.20. chapter 8 example 20;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.21;8.21. chapter 8 example 21;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.22;8.22. chapter 8 example 22;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.23;8.23. chapter 8 example 23;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.24;8.24. chapter 8 example 24;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.25;8.25. chapter 8 example 25;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.26;8.26. chapter 8 example 26;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.27;8.27. chapter 8 example 27;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.28;8.28. chapter 8 example 28;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.29;8.29. chapter 8 example 29;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.3;8.3. chapter 8 example 3;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.4;8.4. chapter 8 example 4;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.5;8.5. chapter 8 example 5;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.6;8.6. chapter 8 example 6;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.7;8.7. chapter 8 example 7;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.8;8.8. chapter 8 example 8;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2969;8. thermodynamics;8.9;8.9. chapter 8 example 9;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2970;9. entropy;9.1;9.1. chapter 9 example 1;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2970;9. entropy;9.10;9.10. chapter 9 example 10;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2970;9. entropy;9.11;9.11. chapter 9 example 11;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2970;9. entropy;9.13;9.13. chapter 9 example 13;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2970;9. entropy;9.14;9.14. chapter 9 example 14;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2970;9. entropy;9.15;9.15. chapter 9 example 15;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2970;9. entropy;9.16;9.16. chapter 9 example 16;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2970;9. entropy;9.17;9.17. chapter 9 example 17;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2970;9. entropy;9.18;9.18. chapter 9 example 18;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2970;9. entropy;9.2;9.2. chapter 9 example 2;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2970;9. entropy;9.3;9.3. chapter 9 example 3;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2970;9. entropy;9.4;9.4. chapter 9 example 4;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2970;9. entropy;9.6;9.6. chapter 9 example 6;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2970;9. entropy;9.7;9.7. chapter 9 example 7;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2970;9. entropy;9.8;9.8. chapter 9 example 8;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2970;9. entropy;9.9;9.9. chapter 9 example 9;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2984;10. thermodynamic relations;10.13;10.13. chapter 10 example 13;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2984;10. thermodynamic relations;10.7;10.7. chapter 10 example 7;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2984;10. thermodynamic relations;10.8;10.8. chapter 10 example 8;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2985;11. production of low temperature;11.2;11.2. chapter 11 example 2;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2985;11. production of low temperature;11.3;11.3. chapter 11 example 3;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2986;12. transmission of heat;12.1;12.1. chapter 12 example 1;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2986;12. transmission of heat;12.10;12.10. chapter 12 example 10;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2986;12. transmission of heat;12.11;12.11. chapter 12 example 11;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2986;12. transmission of heat;12.12;12.12. chapter 12 example 12;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2986;12. transmission of heat;12.2;12.2. chapter 12 example 2;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2986;12. transmission of heat;12.3;12.3. chapter 12 example 3;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2986;12. transmission of heat;12.4;12.4. chapter 12 example 4;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2986;12. transmission of heat;12.5;12.5. chapter 12 example 5;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2986;12. transmission of heat;12.6;12.6. chapter 12 example 6;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2986;12. transmission of heat;12.7;12.7. chapter 12 example 7;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2986;12. transmission of heat;12.8;12.8. chapter 12 example 8;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2986;12. transmission of heat;12.9;12.9. chapter 12 example 9;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2989;14. radiation of heat;14.1;14.1. chapter 14 example 1;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2989;14. radiation of heat;14.10;14.10. chapter 14 example 10;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2989;14. radiation of heat;14.11;14.11. chapter 14 example 11;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2989;14. radiation of heat;14.12;14.12. chapter 14 example 12;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2989;14. radiation of heat;14.2;14.2. chapter 14 example 2;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2989;14. radiation of heat;14.3;14.3. chapter 14 example 3;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2989;14. radiation of heat;14.4;14.4. chapter 14 example 4;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2989;14. radiation of heat;14.5;14.5. chapter 14 example 5;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2989;14. radiation of heat;14.6;14.6. chapter 14 example 6;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2989;14. radiation of heat;14.7;14.7. chapter 14 example 7;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2989;14. radiation of heat;14.8;14.8. chapter 14 example 8;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2989;14. radiation of heat;14.9;14.9. chapter 14 example 9;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2992;15. elements of statistical mechanics;15.1;15.1. chapter 15 example 1;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2992;15. elements of statistical mechanics;15.10;15.10. chapter 15 example 10;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2992;15. elements of statistical mechanics;15.11;15.11. chapter 15 example 11;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2992;15. elements of statistical mechanics;15.14;15.14. chapter 15 example 14;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2992;15. elements of statistical mechanics;15.2;15.2. chapter 15 example 2;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2992;15. elements of statistical mechanics;15.3;15.3. chapter 15 example 3;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2992;15. elements of statistical mechanics;15.4;15.4. chapter 15 example 4;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2992;15. elements of statistical mechanics;15.5;15.5. chapter 15 example 5;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2992;15. elements of statistical mechanics;15.6;15.6. chapter 15 example 6;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2992;15. elements of statistical mechanics;15.9;15.9. chapter 15 example 9;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2995;16. classical and quantum statistics;16.10;16.10. chapter 16 example 10;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2995;16. classical and quantum statistics;16.11;16.11. chapter 16 example 11;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2995;16. classical and quantum statistics;16.2;16.2. chapter 16 example 2;correct;runtime; -1286;Heat And Thermodynamics(D. S. Mathur);2995;16. classical and quantum statistics;16.5;16.5. chapter 16 example 5;correct;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3456;2. Review of some mathematical tools;2.1;2.1. solving differential equation using scilab;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3456;2. Review of some mathematical tools;2.10;2.10. Inverse of z transform using scilab;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3456;2. Review of some mathematical tools;2.11;2.11. Inverse of z transform by power expansion series;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3456;2. Review of some mathematical tools;2.12;2.12. inverse of Z transform by partial fraction method;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3456;2. Review of some mathematical tools;2.2;2.2. inverse of laplace transform using scilab;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3456;2. Review of some mathematical tools;2.3;2.3. computing initial value using scilab;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3456;2. Review of some mathematical tools;2.4;2.4. computing initial value of transfer function;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3456;2. Review of some mathematical tools;2.4.1;2.4.1. eigen values using scilab;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3456;2. Review of some mathematical tools;2.4.b;2.4.b. eigen values using scilab;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3456;2. Review of some mathematical tools;2.5;2.5. computing initial value of function F in scilab;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3456;2. Review of some mathematical tools;2.6;2.6. computing final value of function F using scilab;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3456;2. Review of some mathematical tools;2.7;2.7. Inverse laplace transform using scilab;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3456;2. Review of some mathematical tools;2.8;2.8. Z transform of the signal;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3456;2. Review of some mathematical tools;2.9;2.9. z transform of the signal using scilab;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3476;3. Transient and steady state behaviour of system;3.1;3.1. Type of the system;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3477;4. State variable analysis;4.1;4.1. State equation;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3477;4. State variable analysis;4.10;4.10. Controllable companion form;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3477;4. State variable analysis;4.3;4.3. Eigen values;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3477;4. State variable analysis;4.6.a;4.6.a. Canonical form;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3477;4. State variable analysis;4.6.b;4.6.b. Canonical form;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3477;4. State variable analysis;4.8;4.8. Jordan canonical form;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3489;5. stability of linear control system;5.1;5.1. Hurwitz stability test;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3489;5. stability of linear control system;5.2;5.2. Routh array;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3489;5. stability of linear control system;5.2.2a;5.2.2a. Routh array;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3489;5. stability of linear control system;5.2.2b;5.2.2b. Routh array;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3489;5. stability of linear control system;5.2.2c;5.2.2c. Routh array;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3489;5. stability of linear control system;5.2.2d;5.2.2d. Routh array;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3489;5. stability of linear control system;5.3;5.3. Routh array;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3489;5. stability of linear control system;5.4;5.4. Routh array;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3489;5. stability of linear control system;5.5;5.5. Routh array;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3489;5. stability of linear control system;5.6;5.6. Routh array;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3540;6. study of the locus of the roots of the characristic equation;6.2;6.2. Root locus in scilab;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3540;6. study of the locus of the roots of the characristic equation;6.2.2;6.2.2. location of the root locus between poles and zeros ;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3540;6. study of the locus of the roots of the characristic equation;6.3;6.3. Root locus;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3540;6. study of the locus of the roots of the characristic equation;6.4;6.4. root locus;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3540;6. study of the locus of the roots of the characristic equation;6.5;6.5. Root locus;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3540;6. study of the locus of the roots of the characristic equation;6.6;6.6. Root locus;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3540;6. study of the locus of the roots of the characristic equation;6.7;6.7. Root locus;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3542;7. Analysis of frequency response;7.3.1a;7.3.1a. Bode plot;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3542;7. Analysis of frequency response;7.3.1b;7.3.1b. Bode plot;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3548;8. stability in frequency response systems;8.1;8.1. Nyquist plot;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3548;8. stability in frequency response systems;8.2;8.2. Nyquist plot;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3548;8. stability in frequency response systems;8.3;8.3. Nyquist plot;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3549;9. compensators and controllers;9.1;9.1. compensation in open loop control system;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3550;10. Non linear control system;10.1.1;10.1.1. Mass dashpot and spring arrangement;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3550;10. Non linear control system;10.3;10.3. determination of quadratic form;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3550;10. Non linear control system;10.4;10.4. Lipunovs method;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3553;11. Digital control system;11.6;11.6. Jurys stability test;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3553;11. Digital control system;11.9.2a;11.9.2a. stability of linear continuous system;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3553;11. Digital control system;11.9.2b;11.9.2b. stability of linear continuous system;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3553;11. Digital control system;11.9.3;11.9.3. Schurcohn stability test;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3554;15. Miscellaneous solved examples;15.2;15.2. Time domain specifications of second order system;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3554;15. Miscellaneous solved examples;15.4;15.4. transfer function of gyroscope;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3554;15. Miscellaneous solved examples;15.5;15.5. Transfer function of system;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3554;15. Miscellaneous solved examples;15.6;15.6. comparison of sensitivities of two systems;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3554;15. Miscellaneous solved examples;15.7;15.7. To find bandwidth of the transfer function;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3554;15. Miscellaneous solved examples;15.8;15.8. Bandwidth of the transfer function;error;runtime; -1299;Control Engineering - Theory & Practice(M. N. Bandyopadhyay);3554;15. Miscellaneous solved examples;15.9;15.9. Nyquist plot;error;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2971;1. Physical Quantities;1.1;1.1. 1;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2971;1. Physical Quantities;1.10;1.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2971;1. Physical Quantities;1.11;1.11. 11;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2971;1. Physical Quantities;1.2;1.2. 2;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2971;1. Physical Quantities;1.3;1.3. 3;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2971;1. Physical Quantities;1.4;1.4. 4;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2971;1. Physical Quantities;1.5;1.5. 5;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2971;1. Physical Quantities;1.6;1.6. 6;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2971;1. Physical Quantities;1.7;1.7. 7;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2971;1. Physical Quantities;1.8;1.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2971;1. Physical Quantities;1.9;1.9. 9;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2972;2. Motion in a straight line;2.1;2.1. 1;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2972;2. Motion in a straight line;2.10;2.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2972;2. Motion in a straight line;2.11;2.11. 11;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2972;2. Motion in a straight line;2.12;2.12. 12;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2972;2. Motion in a straight line;2.13;2.13. 13;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2972;2. Motion in a straight line;2.14;2.14. 14;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2972;2. Motion in a straight line;2.15;2.15. 15;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2972;2. Motion in a straight line;2.16;2.16. 16;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2972;2. Motion in a straight line;2.17;2.17. 17;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2972;2. Motion in a straight line;2.18;2.18. 18;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2972;2. Motion in a straight line;2.19;2.19. 19;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2972;2. Motion in a straight line;2.2;2.2. 2;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2972;2. Motion in a straight line;2.20;2.20. 20;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2972;2. Motion in a straight line;2.3;2.3. 3;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2972;2. Motion in a straight line;2.4;2.4. 4;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2972;2. Motion in a straight line;2.5;2.5. 5;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2972;2. Motion in a straight line;2.6;2.6. 6;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2972;2. Motion in a straight line;2.7;2.7. 7;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2972;2. Motion in a straight line;2.8;2.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2972;2. Motion in a straight line;2.9;2.9. 9;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2973;3. The Laws of Motion;3.10;3.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2973;3. The Laws of Motion;3.11;3.11. 11;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2973;3. The Laws of Motion;3.12;3.12. 12;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2973;3. The Laws of Motion;3.13;3.13. 13;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2973;3. The Laws of Motion;3.14;3.14. 14;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2973;3. The Laws of Motion;3.15;3.15. 15;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2973;3. The Laws of Motion;3.16;3.16. 16;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2973;3. The Laws of Motion;3.17;3.17. 17;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2973;3. The Laws of Motion;3.18;3.18. 18;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2973;3. The Laws of Motion;3.19;3.19. 19;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2973;3. The Laws of Motion;3.20;3.20. 20;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2973;3. The Laws of Motion;3.21;3.21. 21;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2973;3. The Laws of Motion;3.22;3.22. 22;error;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2973;3. The Laws of Motion;3.4;3.4. 4;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2973;3. The Laws of Motion;3.5;3.5. 5;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2973;3. The Laws of Motion;3.6;3.6. 6;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2973;3. The Laws of Motion;3.7;3.7. 7;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2973;3. The Laws of Motion;3.8;3.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2973;3. The Laws of Motion;3.9;3.9. 9;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2818;4. Circular Motion and Gravitation;4.1;4.1. 1;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2818;4. Circular Motion and Gravitation;4.10;4.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2818;4. Circular Motion and Gravitation;4.11;4.11. 11;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2818;4. Circular Motion and Gravitation;4.12;4.12. 12;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2818;4. Circular Motion and Gravitation;4.13;4.13. 13;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2818;4. Circular Motion and Gravitation;4.14;4.14. 14;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2818;4. Circular Motion and Gravitation;4.15;4.15. 15;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2818;4. Circular Motion and Gravitation;4.16;4.16. 16;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2818;4. Circular Motion and Gravitation;4.2;4.2. 2;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2818;4. Circular Motion and Gravitation;4.3;4.3. 3;error;file_not_found;/var/www/scilab_in/uploads-backup/1301/CH4/EX4.3/ : NO SCILAB FILE INSIDE -1301;Schaum's Outline Of Physical Science(A. Beiser);2818;4. Circular Motion and Gravitation;4.4;4.4. 4;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2818;4. Circular Motion and Gravitation;4.5;4.5. 5;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2818;4. Circular Motion and Gravitation;4.6;4.6. 6;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2818;4. Circular Motion and Gravitation;4.7;4.7. 7;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2818;4. Circular Motion and Gravitation;4.8;4.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2818;4. Circular Motion and Gravitation;4.9;4.9. 9;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2819;5. Energy;5.10;5.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2819;5. Energy;5.11;5.11. 11;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2819;5. Energy;5.12;5.12. 12;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2819;5. Energy;5.13;5.13. 13;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2819;5. Energy;5.14;5.14. 14;error;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2819;5. Energy;5.15;5.15. 15;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2819;5. Energy;5.16;5.16. 16;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2819;5. Energy;5.17;5.17. 17;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2819;5. Energy;5.18;5.18. 18;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2819;5. Energy;5.19;5.19. 19;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2819;5. Energy;5.2;5.2. 2;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2819;5. Energy;5.20;5.20. 20;error;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2819;5. Energy;5.3;5.3. 3;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2819;5. Energy;5.4;5.4. 4;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2819;5. Energy;5.5;5.5. 5;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2819;5. Energy;5.7;5.7. 7;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2819;5. Energy;5.8;5.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2819;5. Energy;5.9;5.9. 9;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2883;6. Momentum;6.10;6.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2883;6. Momentum;6.3;6.3. 3;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2883;6. Momentum;6.4;6.4. 4;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2883;6. Momentum;6.6;6.6. 6;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2883;6. Momentum;6.7;6.7. 7;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2883;6. Momentum;6.8;6.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2883;6. Momentum;6.9;6.9. 9;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2974;7. Relativity;7.5;7.5. 5;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2974;7. Relativity;7.6;7.6. 6;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2974;7. Relativity;7.7;7.7. 7;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2974;7. Relativity;7.8;7.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2974;7. Relativity;7.9;7.9. 9;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2884;8. Fluids;8.10;8.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2884;8. Fluids;8.11;8.11. 11;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2884;8. Fluids;8.12;8.12. 12;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2884;8. Fluids;8.13;8.13. 13;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2884;8. Fluids;8.14;8.14. 14;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2884;8. Fluids;8.15;8.15. 15;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2884;8. Fluids;8.3;8.3. 3;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2884;8. Fluids;8.4;8.4. 4;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2884;8. Fluids;8.5;8.5. 5;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2884;8. Fluids;8.6;8.6. 6;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2884;8. Fluids;8.7;8.7. 7;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2884;8. Fluids;8.8;8.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2884;8. Fluids;8.9;8.9. 9;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2886;9. Heat;9.10;9.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2886;9. Heat;9.11;9.11. 11;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2886;9. Heat;9.12;9.12. 12;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2886;9. Heat;9.13;9.13. 13;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2886;9. Heat;9.14;9.14. 14;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2886;9. Heat;9.15;9.15. 15;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2886;9. Heat;9.18;9.18. 18;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2886;9. Heat;9.19;9.19. 19;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2886;9. Heat;9.2;9.2. 2;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2886;9. Heat;9.3;9.3. 3;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2886;9. Heat;9.4;9.4. 4;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2886;9. Heat;9.5;9.5. 5;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2886;9. Heat;9.6;9.6. 6;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2886;9. Heat;9.7;9.7. 7;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2886;9. Heat;9.8;9.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2886;9. Heat;9.9;9.9. 9;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2915;10. Kinetic Theory of Gases;10.10;10.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2915;10. Kinetic Theory of Gases;10.11;10.11. 11;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2915;10. Kinetic Theory of Gases;10.12;10.12. 12;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2915;10. Kinetic Theory of Gases;10.13;10.13. 13;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2915;10. Kinetic Theory of Gases;10.14;10.14. 14;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2915;10. Kinetic Theory of Gases;10.15;10.15. 15;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2915;10. Kinetic Theory of Gases;10.4;10.4. 4;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2915;10. Kinetic Theory of Gases;10.5;10.5. 5;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2915;10. Kinetic Theory of Gases;10.6;10.6. 6;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2915;10. Kinetic Theory of Gases;10.7;10.7. 7;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2915;10. Kinetic Theory of Gases;10.8;10.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2915;10. Kinetic Theory of Gases;10.9;10.9. 9;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2918;11. Thermodynamics;11.10;11.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2918;11. Thermodynamics;11.11;11.11. 11;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2918;11. Thermodynamics;11.4;11.4. 4;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2918;11. Thermodynamics;11.6;11.6. 6;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2918;11. Thermodynamics;11.7;11.7. 7;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2918;11. Thermodynamics;11.8;11.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2918;11. Thermodynamics;11.9;11.9. 9;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2919;12. Electricity;12.10;12.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2919;12. Electricity;12.12;12.12. 12;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2919;12. Electricity;12.13;12.13. 13;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2919;12. Electricity;12.14;12.14. 14;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2919;12. Electricity;12.15;12.15. 15;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2919;12. Electricity;12.16;12.16. 16;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2919;12. Electricity;12.17;12.17. 17;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2919;12. Electricity;12.18;12.18. 18;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2919;12. Electricity;12.19;12.19. 19;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2919;12. Electricity;12.20;12.20. 20;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2919;12. Electricity;12.7;12.7. 7;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2919;12. Electricity;12.8;12.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2919;12. Electricity;12.9;12.9. 9;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2925;13. Electric Current;13.10;13.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2925;13. Electric Current;13.11;13.11. 11;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2925;13. Electric Current;13.12;13.12. 12;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2925;13. Electric Current;13.13;13.13. 13;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2925;13. Electric Current;13.14;13.14. 14;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2925;13. Electric Current;13.15;13.15. 15;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2925;13. Electric Current;13.16;13.16. 16;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2925;13. Electric Current;13.17;13.17. 17;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2925;13. Electric Current;13.5;13.5. 5;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2925;13. Electric Current;13.6;13.6. 6;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2925;13. Electric Current;13.7;13.7. 7;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2925;13. Electric Current;13.8;13.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);2925;13. Electric Current;13.9;13.9. 9;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3003;14. Magnetism;14.10;14.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3003;14. Magnetism;14.11;14.11. 11;error;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3003;14. Magnetism;14.12;14.12. 12;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3003;14. Magnetism;14.13;14.13. 13;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3003;14. Magnetism;14.14;14.14. 14;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3003;14. Magnetism;14.8;14.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3006;15. Electromagnetic Induction;15.3;15.3. 3;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3006;15. Electromagnetic Induction;15.4;15.4. 4;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3006;15. Electromagnetic Induction;15.5;15.5. 5;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3006;15. Electromagnetic Induction;15.6;15.6. 6;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3006;15. Electromagnetic Induction;15.7;15.7. 7;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3006;15. Electromagnetic Induction;15.8;15.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3007;16. Waves;16.10;16.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3007;16. Waves;16.11;16.11. 11;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3007;16. Waves;16.12;16.12. 12;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3007;16. Waves;16.13;16.13. 13;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3007;16. Waves;16.15;16.15. 15;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3007;16. Waves;16.16;16.16. 16;error;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3007;16. Waves;16.17;16.17. 17;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3007;16. Waves;16.18;16.18. 18;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3007;16. Waves;16.9;16.9. 9;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3008;17. Lenses;17.10;17.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3008;17. Lenses;17.11;17.11. 11;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3008;17. Lenses;17.3;17.3. 3;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3008;17. Lenses;17.4;17.4. 4;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3008;17. Lenses;17.5;17.5. 5;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3008;17. Lenses;17.6;17.6. 6;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3008;17. Lenses;17.7;17.7. 7;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3008;17. Lenses;17.8;17.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3008;17. Lenses;17.9;17.9. 9;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3009;18. Quantum Physics;18.1;18.1. 1;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3009;18. Quantum Physics;18.10;18.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3009;18. Quantum Physics;18.11;18.11. 11;error;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3009;18. Quantum Physics;18.13;18.13. 13;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3009;18. Quantum Physics;18.14;18.14. 14;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3009;18. Quantum Physics;18.2;18.2. 2;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3009;18. Quantum Physics;18.3;18.3. 3;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3009;18. Quantum Physics;18.4;18.4. 4;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3009;18. Quantum Physics;18.5;18.5. 5;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3009;18. Quantum Physics;18.6;18.6. 6;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3009;18. Quantum Physics;18.7;18.7. 7;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3009;18. Quantum Physics;18.8;18.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3009;18. Quantum Physics;18.9;18.9. 9;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3018;19. The Nucleus;19.10;19.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3018;19. The Nucleus;19.4;19.4. 4;error;file_not_found;/var/www/scilab_in/uploads-backup/1301/CH19/EX19.4/ : NO SCILAB FILE INSIDE -1301;Schaum's Outline Of Physical Science(A. Beiser);3018;19. The Nucleus;19.5;19.5. 5;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3018;19. The Nucleus;19.6;19.6. 6;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3019;21. Theory of The Atom;21.11;21.11. 11;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3019;21. Theory of The Atom;21.5;21.5. 5;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3019;21. Theory of The Atom;21.6;21.6. 6;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3019;21. Theory of The Atom;21.7;21.7. 7;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3019;21. Theory of The Atom;21.8;21.8. 8;error;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3444;25. Stoichiometry;25.10;25.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3444;25. Stoichiometry;25.11;25.11. 11;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3444;25. Stoichiometry;25.12;25.12. 12;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3444;25. Stoichiometry;25.13;25.13. 13;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3444;25. Stoichiometry;25.15;25.15. 15;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3444;25. Stoichiometry;25.16;25.16. 16;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3444;25. Stoichiometry;25.17;25.17. 17;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3444;25. Stoichiometry;25.2;25.2. 2;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3444;25. Stoichiometry;25.3;25.3. 3;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3444;25. Stoichiometry;25.4;25.4. 4;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3444;25. Stoichiometry;25.5;25.5. 5;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3444;25. Stoichiometry;25.6;25.6. 6;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3444;25. Stoichiometry;25.7;25.7. 7;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3444;25. Stoichiometry;25.8;25.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3444;25. Stoichiometry;25.9;25.9. 9;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3445;26. Solutions;26.1;26.1. 1;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3445;26. Solutions;26.10;26.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3445;26. Solutions;26.2;26.2. 2;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3445;26. Solutions;26.3;26.3. 3;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3445;26. Solutions;26.4;26.4. 4;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3445;26. Solutions;26.5;26.5. 5;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3445;26. Solutions;26.6;26.6. 6;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3445;26. Solutions;26.7;26.7. 7;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3445;26. Solutions;26.8;26.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3445;26. Solutions;26.9;26.9. 9;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3445;26. Solutions;27.7;27.7. 7;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1301/CH27/EX27.7/: PATH DOES NOT EXIST -1301;Schaum's Outline Of Physical Science(A. Beiser);3446;27. Solutions;27.11;27.11. 11;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3446;27. Solutions;27.12;27.12. 12;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3446;27. Solutions;27.14;27.14. 14;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3446;27. Solutions;27.3;27.3. 3;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3446;27. Solutions;27.4;27.4. 4;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3446;27. Solutions;27.5;27.5. 5;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3446;27. Solutions;27.6;27.6. 6;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3446;27. Solutions;27.8;27.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3446;27. Solutions;27.9;27.9. 9;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3447;28. Acids and Bases;28.1;28.1. 1;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3447;28. Acids and Bases;28.10;28.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3447;28. Acids and Bases;28.11;28.11. 11;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3447;28. Acids and Bases;28.12;28.12. 12;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3020;30. Electrochemistry;30.10;30.10. 10;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3020;30. Electrochemistry;30.11;30.11. 11;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3020;30. Electrochemistry;30.13;30.13. 13;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3020;30. Electrochemistry;30.3;30.3. 3;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3020;30. Electrochemistry;30.4;30.4. 4;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3020;30. Electrochemistry;30.5;30.5. 5;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3020;30. Electrochemistry;30.6;30.6. 6;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3020;30. Electrochemistry;30.7;30.7. 7;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3020;30. Electrochemistry;30.8;30.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3020;30. Electrochemistry;30.9;30.9. 9;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3021;34. The Atmosphere;34.8;34.8. 8;correct;runtime; -1301;Schaum's Outline Of Physical Science(A. Beiser);3022;40. The Earths Interior;40.7;40.7. 7;correct;runtime; -1304;Elements Of Heat Transfer(Y. Bayazitoglu And M. N. Ozisik);3448;1. Concepts of the Mechanism of Heat Flow;1.1;1.1. heat Flow Rate Problem;correct;runtime; -1304;Elements Of Heat Transfer(Y. Bayazitoglu And M. N. Ozisik);3448;1. Concepts of the Mechanism of Heat Flow;1.2;1.2. heat loss through a glass;correct;runtime; -1304;Elements Of Heat Transfer(Y. Bayazitoglu And M. N. Ozisik);3448;1. Concepts of the Mechanism of Heat Flow;1.3;1.3. determining thickness of heat conducting board;correct;runtime; -1304;Elements Of Heat Transfer(Y. Bayazitoglu And M. N. Ozisik);3448;1. Concepts of the Mechanism of Heat Flow;1.4;1.4. heat flow from plate to foliwng air ;correct;runtime; -1316;Process Control Instrumentation Technology(C. D. Johnson);2867;1. Introduction to Process Control;1.1;1.1. A;correct;runtime; -1316;Process Control Instrumentation Technology(C. D. Johnson);2867;1. Introduction to Process Control;1.2;1.2. B;correct;runtime; -1316;Process Control Instrumentation Technology(C. D. Johnson);2867;1. Introduction to Process Control;1.3;1.3. C;correct;runtime; -1316;Process Control Instrumentation Technology(C. D. Johnson);2867;1. Introduction to Process Control;1.4;1.4. D;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.1;1.1. To calculate frequency and instantaneous voltage and time of a voltage wave;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.10;1.10. RLC circuit problems on resonace;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.11;1.11. RLC circuit problems with quality factor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.12;1.12. RLC circuit problem to find the resonance frequncy and impedance magnitude;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.13;1.13. Series Resonace of a RLC circuit with 2 coils;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.14;1.14. Series Resonance in RLC circuit to find inductance and power;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.15;1.15. Determine the current in parallel branches and supply current;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.16;1.16. Determine the original and loaded circuit bandwidth;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.17;1.17. Expression for the sum of energy stored by inductor and capacitor connected in series at resonance;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.18;1.18. Expression for the sum of energy stored by inductor and capacitor connected in parallel at resonance;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.19;1.19. To determine bandwidth and half power frequencies;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.2;1.2. To find the current and power;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.20;1.20. Determine the frequency of resonance and Max value of Rc at resonance;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.21;1.21. To determine Rl for which resonance can take place;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.22;1.22. To find the resistor for a given Q factor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.23;1.23. Find the flux density;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.24;1.24. Find the number of ampere turns;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.25;1.25. To find current in the 600 turn exciting coil;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.26;1.26. Find the current required to develop a flux of given mWb;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.27;1.27. Determine the inductance of individual winding;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.28;1.28. Determine the inductance of a three coil system;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.29;1.29. To determine the parameters of an alternating current of 50Hz frequency;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.3;1.3. To find the current and power of a capacitive circuit;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.30;1.30. Determine the resultant current for two alternating currents;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.31;1.31. To determine the sum and difference of two alternating voltage sources;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.32;1.32. Determine the parameters of the circuit and power and pf;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.33;1.33. Determine circuit paramters of an iron coil;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.34;1.34. Determine the phase angle between 220V main and the current;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.35;1.35. To determine the coil parameters with resistance of 5 ohms;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.36;1.36. Determine the resonant frequency and the source current;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.37;1.37. Determine Circuit parameters for a circuit with a current source;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.38;1.38. Determine the instantaneous energy stored in the capacitor and inductor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.39;1.39. To determine the current through all the branches of the given network;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.4;1.4. To find the frequency in the RLC Circuit at a phase angle of 45 degrees;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.40;1.40. To determine parameters to operate the relay;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.41;1.41. To determine the parameters of a toroid;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.42;1.42. Determine the magnetic flux for a toriod;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.43;1.43. To determine the magnetic parameters of a steel ring;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.5;1.5. To find the inductance of a choke to operate a 120V 500W lamp at 230V;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.6;1.6. Determine the value of the circuit components;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.7;1.7. To determine circuit impedance and current in a parallel connection of a resistor and capacitor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.8;1.8. To find the current and impedance and admittance of the circuit;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2891;1. AC Circuits;1.9;1.9. Maximum current and frequncy at which it occurs and respective voltages;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.1;2.1. To determine the current using loop analysis;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.10;2.10. Using thevenin theorem determine current through 2 ohm resistor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.11;2.11. To find the current through the branch AB;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.12;2.12. Determine current through various values of RL;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.13;2.13. Current through AB using Nortons theorem;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.14;2.14. To determine current in RL using nortons theorem;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.15;2.15. To find current across 2ohm resistor using nortons theorem;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.16;2.16. To determine the current in the 2 ohm resistor using superposition theorem;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.17;2.17. To determine the value of RL for Max power transfer;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.18;2.18. Star to delta conversion of a cicuit;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.19;2.19. Star Equivalent of the delta circuit;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.2;2.2. To calculate current in each branch using loop analysis;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.20;2.20. To determine equivalent resistance using star delta transformation;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.21;2.21. Determine current through branch AB using loop and nodal analysis;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.22;2.22. Current through 2 ohm resistor given a current source;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.23;2.23. To find voltage v and current through 3 ohm resistor using nodal analysis;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.24;2.24. Determine the current through 10 ohm resistor using thevenins circuit;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.3;2.3. To calculate current in each branch using loop analysis and point voltages in a given network;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.4;2.4. To calculate current from a battery and pd across points A and B;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.5;2.5. Determine Current through branch AB of the given network;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.6;2.6. Determine the current in the branches of the network using nodal analysis;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.7;2.7. To Calculate current in all branches of the network shown using nodal analysis;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.8;2.8. Conversion to current source and nodal analysis;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2908;2. Network Theory;2.9;2.9. Superposition Principle to determine current in branch;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3158;3. Three Phase Supply;3.1;3.1. To determine the parameters of a balanced 3 phase star connected to a resistive load;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3158;3. Three Phase Supply;3.10;3.10. Two wattmeter power dertermination for a delta system;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3158;3. Three Phase Supply;3.2;3.2. To determine the parameters of a balanced 3 phase star connected to an impedance;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3158;3. Three Phase Supply;3.3;3.3. To determine the potential of the star point and line currents;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3158;3. Three Phase Supply;3.4;3.4. To determine the line currents if one inductor is short circuited;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3158;3. Three Phase Supply;3.5;3.5. To find line current and pf and powers of a balanced delta load;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3158;3. Three Phase Supply;3.6;3.6. To find Line currents and star connected resistors for the same power;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3158;3. Three Phase Supply;3.7;3.7. Reduction in load when one resistor is removed;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3158;3. Three Phase Supply;3.8;3.8. To measure power by two wattmeter method;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3158;3. Three Phase Supply;3.9;3.9. To find power using two wattmeter method of a circuit with non reactive resistances;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3159;4. Basic Instruments;4.1;4.1. Torque on the coil at a current of 1mA;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3159;4. Basic Instruments;4.2;4.2. To find the deflection produced by 200V;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3159;4. Basic Instruments;4.3;4.3. Reading on ammeters when their shunts are interchanged;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3159;4. Basic Instruments;4.4;4.4. To create an instrument that measures voltages and currents upto a rated value;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3159;4. Basic Instruments;4.5;4.5. To determine the range and current and deflection at various conditions;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3159;4. Basic Instruments;4.6;4.6. Error calculation;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3159;4. Basic Instruments;4.7;4.7. Dynamometer wattmeter power calculation of the load;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3159;4. Basic Instruments;4.8;4.8. Percentage error calculation in a wattmeter;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.1;5.1. To find flux density in the core and induced emf in the secondary winding;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.10;5.10. Calculate efficiency on unity pf at different cases;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.11;5.11. Calcualte efficiencies at various loads;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.12;5.12. To determine all day efficiency;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.13;5.13. Calculating Efficiency using Sumpner test;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.14;5.14. To determine the ratio of weights of copper;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.15;5.15. To find voltage ratio and output;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.16;5.16. Determine primary and secondary voltages and current;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.17;5.17. Equivalent resistance and leakage reactance wrt primary;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.18;5.18. To determine Input current and voltage during SC test;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.19;5.19. To determine the load for max efficiency at two power factors;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.2;5.2. To calculate the number of turns per limb on the high and low voltage sides;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.20;5.20. To determine the max regulation and the pf at which it occurs;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.21;5.21. To calculate secondary terminal voltage and full load efficiency at unity pf;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.3;5.3. To calculate resistance of primary interms of secondary and vice versa;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.4;5.4. Total resitance and total copper loss at full load;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.5;5.5. Voltage regulation at a pf lagging;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.6;5.6. Regulation at lagging leading and unity power factors;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.7;5.7. Calculate the circuit parameters of a transformer using OC and SC tests;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.8;5.8. To calculate terminal voltage and current and efficiency;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2960;5. Transformer;5.9;5.9. Regulation at full load pf lag;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.1;6.1. To Determine the useful flux per pole;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.10;6.10. Number of conductors of compensating winding;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.11;6.11. Swinburne test on a dc shunt motor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.12;6.12. Speed of a belt driven shunt generator;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.13;6.13. Voltage between feeder and bus bar in a series generator;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.14;6.14. Induced EMF and Armature current in a long shunt compound generator;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.15;6.15. Speed at 50A considering armature reaction of a shunt motor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.16;6.16. Speed of shunt motor taking 50kW input;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.17;6.17. Useful torque and efficiency of a shunt motor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.18;6.18. Total torque developed in a 4 pole shunt motor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.19;6.19. EMF and copper losses of a Shunt Motor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.2;6.2. Determine the EMF generated;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.20;6.20. Current taken by a motor at 90 percent efficiency;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.21;6.21. Rated torque calculation by resistance addition;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.22;6.22. Efficiency at full load;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.3;6.3. Determine the EMF generated in a wave winding;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.4;6.4. Ratio of speeds of a generator and motor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.5;6.5. Calculate Load Current in a shunt generator;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.6;6.6. Useful Flux per pole on no load shunt motor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.7;6.7. To find efficiency and useful torque;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.8;6.8. Speed calculation of series motor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3213;6. DC Machines;6.9;6.9. Parameters calculated due to armature reaction;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3160;7. Three Phase Synchronous Machines;7.1;7.1. Power delivered to 3 phase synchronous motor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3160;7. Three Phase Synchronous Machines;7.2;7.2. New plant pf and percent decrease in line current;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3160;7. Three Phase Synchronous Machines;7.3;7.3. kVAr rating of a synchronous condenser;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3160;7. Three Phase Synchronous Machines;7.4;7.4. Calculate E per phase and Current and pf;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3160;7. Three Phase Synchronous Machines;7.5;7.5. Voltage Regulation of a 3 Phase alternator;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3160;7. Three Phase Synchronous Machines;7.6;7.6. Internal Voltage drop in an alternator;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3214;8. Three Phase Induction Motors;8.1;8.1. Find the percentage slip and poles of the motor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3214;8. Three Phase Induction Motors;8.10;8.10. To determine parameters of an 3 phase delta connected 4 pole induction motor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3214;8. Three Phase Induction Motors;8.11;8.11. Determine the shaft power of 6 pole Induction Motor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3214;8. Three Phase Induction Motors;8.12;8.12. Motor parameters at a load power factor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3214;8. Three Phase Induction Motors;8.13;8.13. To determine the auto tranformer ratio and starting torque;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3214;8. Three Phase Induction Motors;8.14;8.14. To determine the starting torque in terms of full load torque;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3214;8. Three Phase Induction Motors;8.15;8.15. Stator input of 3 phase 4 pole induction motor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3214;8. Three Phase Induction Motors;8.16;8.16. Motor parameters of a 6 pole motor with 40 hp mechanical power;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3214;8. Three Phase Induction Motors;8.17;8.17. To determine parameters of 4 pole induction motor considering circuit parameters;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3214;8. Three Phase Induction Motors;8.18;8.18. Stator Current and pf and efficiency of a motor operating at rated slip;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3214;8. Three Phase Induction Motors;8.2;8.2. To calculate motor speed and its slip;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3214;8. Three Phase Induction Motors;8.3;8.3. To Calculate Parameters of a 3 phase 4 pole induction machine;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3214;8. Three Phase Induction Motors;8.4;8.4. Calculation of slip from losses;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3214;8. Three Phase Induction Motors;8.5;8.5. apping of an auto transformer to limit current in squirrel cage motor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3214;8. Three Phase Induction Motors;8.6;8.6. To find the total mechannical power and rotor copper loss;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3214;8. Three Phase Induction Motors;8.7;8.7. To determine the starting torque and current using different starters;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3214;8. Three Phase Induction Motors;8.8;8.8. To actual rotor speed and the rotor frequency at 3 percent slip;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3214;8. Three Phase Induction Motors;8.9;8.9. To determine the various parameters of a 3 phase 400V 6 poles Induction Motor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3225;10. Power System;10.1;10.1. Determine the additional load which can be supplied;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3225;10. Power System;10.2;10.2. Pf at which the slow machine will work;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3225;10. Power System;10.3;10.3. Detemine the load and pf of the other machine;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3225;10. Power System;10.4;10.4. Determine the value of a shunt capacitor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3225;10. Power System;10.5;10.5. Calculate the inductance of a choke to enable the lamp;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3224;11. Domestic Wiring;11.1;11.1. Determine the size of the conductor for power and lighting circuit;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3224;11. Domestic Wiring;11.2;11.2. Determine the size of the conductor at 25 m distance;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);3224;11. Domestic Wiring;11.3;11.3. Size of conductor to be used for wiring a 10 kW 400V 3 Phase induction motor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.1;12.1. To Compute the number of electrons;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.10;12.10. Calculation of Current and power dissipated in resistors connected in series;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.11;12.11. To find the value of the unknown resitance in the series of resistances in a circuit;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.12;12.12. To Compute the resistance when operating voltage is altered;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.13;12.13. To Determine the voltage and branch currents in a cicuit with resistors connected in parallel;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.14;12.14. To determine resistances in parallel;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.15;12.15. To determine the currents in parallel branches of a network;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.16;12.16. To determine current through each resistor in series and parallel combinational circuit;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.17;12.17. To calculate current in each branch of the given network;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.18;12.18. To determine the current using loop analysis;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.19;12.19. To calculate current in each branch using loop analysis;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.2;12.2. Computing the Average lighting current;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.20;12.20. To calculate current in each branch using loop analysis and point voltages in a given network;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.21;12.21. To calculate current from a battery and pd across points A and B;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.22;12.22. Determine Current through branch AB of the given network;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.23;12.23. Determine the current in the branches of the network using nodal analysis;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.24;12.24. To Calculate current in all branches of the network shown using nodal analysis;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.3;12.3. To Calculate the average voltage;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.4;12.4. Calculating resistance;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.5;12.5. Current Calculation using ohms law;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.6;12.6. Determination of conductance in a short circuit;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.7;12.7. Power Rating Calculation;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.8;12.8. To calculate current ratings and maximum voltage of a rated resistor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2890;12. DC Circuits;12.9;12.9. Determine the output power of the motor;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2909;13. Electromagnetic Induction;13.1;13.1. Computing Induced EMF;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2909;13. Electromagnetic Induction;13.10;13.10. Change in Inductance;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2909;13. Electromagnetic Induction;13.11;13.11. Computation of Current;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2909;13. Electromagnetic Induction;13.12;13.12. To determine Mutual and Self Inductances;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2909;13. Electromagnetic Induction;13.13;13.13. Computation of Mutual and self inductance in coils;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2909;13. Electromagnetic Induction;13.14;13.14. EMF induced in coils parallel to each other;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2909;13. Electromagnetic Induction;13.15;13.15. To Compute the maximum flux set by an coil;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2909;13. Electromagnetic Induction;13.16;13.16. Compute Loss of energy;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2909;13. Electromagnetic Induction;13.17;13.17. Determining Hysteresis loss;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2909;13. Electromagnetic Induction;13.18;13.18. Compute the Loss per Kg at a particular frequency;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2909;13. Electromagnetic Induction;13.19;13.19. Theory Based Proof relation between self mutual inductances;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2909;13. Electromagnetic Induction;13.2;13.2. Computing Instantaneous Induced EMF;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2909;13. Electromagnetic Induction;13.3;13.3. EMF Induced between wing tips;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2909;13. Electromagnetic Induction;13.4;13.4. EMF generated due to a bar magnet;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2909;13. Electromagnetic Induction;13.5;13.5. EMF induced between two coils in a circular iron core;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2909;13. Electromagnetic Induction;13.6;13.6. Force on the conductor due to a uniform magentic field;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2909;13. Electromagnetic Induction;13.7;13.7. To determine force between single phase bus bars;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2909;13. Electromagnetic Induction;13.8;13.8. To Compute the Maximum Induced EMF;correct;runtime; -1319;Basic Electrical Engineering(C. L. Wadhwa);2909;13. Electromagnetic Induction;13.9;13.9. Compute Inductance and EMF induced;correct;runtime; -1322;Algebra(P. Abbott And M. E. Wardle);2864;1. the meaning of algebra;9.1;9.1. 9ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH9/EX9.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2864;1. the meaning of algebra;9.2;9.2. 9ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH9/EX9.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2864;1. the meaning of algebra;9.3;9.3. 9ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH9/EX9.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3017;2. Elementary Operations in Algebra;16.1;16.1. 16ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH16/EX16.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3017;2. Elementary Operations in Algebra;16.2;16.2. 16ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH16/EX16.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3017;2. Elementary Operations in Algebra;18.1;18.1. 18ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH18/EX18.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3017;2. Elementary Operations in Algebra;23.1;23.1. 23ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH23/EX23.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3017;2. Elementary Operations in Algebra;23.2;23.2. 23ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH23/EX23.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3017;2. Elementary Operations in Algebra;25.1;25.1. 25ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH25/EX25.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3017;2. Elementary Operations in Algebra;25.2;25.2. 25ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH25/EX25.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3017;2. Elementary Operations in Algebra;25.3;25.3. 25ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH25/EX25.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3017;2. Elementary Operations in Algebra;25.4;25.4. 25ex4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH25/EX25.4/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3017;2. Elementary Operations in Algebra;25.5;25.5. 25ex5;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH25/EX25.5/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3017;2. Elementary Operations in Algebra;26.1;26.1. 26ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH26/EX26.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3017;2. Elementary Operations in Algebra;26.2;26.2. 26ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH26/EX26.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3017;2. Elementary Operations in Algebra;26.3;26.3. 26ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH26/EX26.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3016;3. Brackets and Operations with Them;29.1;29.1. 29ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH29/EX29.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3016;3. Brackets and Operations with Them;29.2;29.2. 29ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH29/EX29.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3016;3. Brackets and Operations with Them;29.3;29.3. 29ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH29/EX29.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3016;3. Brackets and Operations with Them;29.4;29.4. 29ex4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH29/EX29.4/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3016;3. Brackets and Operations with Them;29.5;29.5. 29ex5;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH29/EX29.5/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3016;3. Brackets and Operations with Them;31.1;31.1. 31ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH31/EX31.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3016;3. Brackets and Operations with Them;31.2;31.2. 31ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH31/EX31.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3016;3. Brackets and Operations with Them;31.3;31.3. 31ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH31/EX31.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2944;4. Positive and Negative numbers;41.1;41.1. 41ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH41/EX41.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2874;5. Expressions and Equations;47.1;47.1. 47ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH47/EX47.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2874;5. Expressions and Equations;47.1.b;47.1.b. 47ex1b;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH47/EX47.1.b/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2874;5. Expressions and Equations;47.2;47.2. 47ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH47/EX47.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2874;5. Expressions and Equations;47.2.b;47.2.b. 47ex2b;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH47/EX47.2.b/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2874;5. Expressions and Equations;47.3;47.3. 47ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH47/EX47.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2874;5. Expressions and Equations;47.3.b;47.3.b. 47ex3b;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH47/EX47.3.b/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2874;5. Expressions and Equations;47.3.c;47.3.c. 47ex3c;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH47/EX47.3.c/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2874;5. Expressions and Equations;47.4;47.4. 47ex4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH47/EX47.4/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2874;5. Expressions and Equations;47.4.b;47.4.b. 47ex4b;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH47/EX47.4.b/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2874;5. Expressions and Equations;47.4.c;47.4.c. 47ex4c;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH47/EX47.4.c/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2874;5. Expressions and Equations;47.5;47.5. 47ex5;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH47/EX47.5/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2874;5. Expressions and Equations;47.5.b;47.5.b. 47ex5b;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH47/EX47.5.b/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2874;5. Expressions and Equations;48.1;48.1. 48ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH48/EX48.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2874;5. Expressions and Equations;48.1.1;48.1.1. 48ex1 1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH48/EX48.1.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2874;5. Expressions and Equations;48.2;48.2. 48ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH48/EX48.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2874;5. Expressions and Equations;48.2.2;48.2.2. 48ex2 2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH48/EX48.2.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2874;5. Expressions and Equations;48.3;48.3. 48ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH48/EX48.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2874;5. Expressions and Equations;49.1;49.1. 49ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH49/EX49.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2874;5. Expressions and Equations;49.2;49.2. 49ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH49/EX49.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2874;5. Expressions and Equations;49.3;49.3. 49ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH49/EX49.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2875;6. Linear Equations;51.1;51.1. 51ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH51/EX51.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2875;6. Linear Equations;51.2;51.2. 51ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH51/EX51.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2875;6. Linear Equations;52.1;52.1. 52ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH52/EX52.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2875;6. Linear Equations;52.2;52.2. 52ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH52/EX52.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2875;6. Linear Equations;52.3;52.3. 52ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH52/EX52.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2875;6. Linear Equations;52.4;52.4. 52ex4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH52/EX52.4/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3015;7. Formulae;56.1;56.1. 56ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH56/EX56.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3015;7. Formulae;56.2;56.2. 56ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH56/EX56.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3015;7. Formulae;58.1;58.1. 58ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH58/EX58.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3015;7. Formulae;58.2;58.2. 58ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH58/EX58.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3015;7. 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Simultaneous Equations;63.1;63.1. 63ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH63/EX63.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2889;8. Simultaneous Equations;63.2;63.2. 63ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH63/EX63.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2889;8. Simultaneous Equations;63.3;63.3. 63ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH63/EX63.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2889;8. Simultaneous Equations;63.4;63.4. 63ex4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH63/EX63.4/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2889;8. Simultaneous Equations;65.1;65.1. 65ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH65/EX65.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2889;8. Simultaneous Equations;65.2;65.2. 65ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH65/EX65.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2889;8. Simultaneous Equations;65.3;65.3. 65ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH65/EX65.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2976;9. Linear Inequalities;67.1.a;67.1.a. 67ex1a;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH67/EX67.1.a/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2976;9. Linear Inequalities;67.1.b;67.1.b. 67ex1b;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH67/EX67.1.b/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2976;9. Linear Inequalities;67.1.c;67.1.c. 67ex1c;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH67/EX67.1.c/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2976;9. Linear Inequalities;67.2.a;67.2.a. 67ex2a;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH67/EX67.2.a/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2976;9. Linear Inequalities;67.2.b;67.2.b. 67ex2b;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH67/EX67.2.b/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2976;9. Linear Inequalities;67.2.c;67.2.c. 67ex2c;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH67/EX67.2.c/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2976;9. Linear Inequalities;68.1;68.1. 68ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH68/EX68.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2976;9. Linear Inequalities;68.2;68.2. 68ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH68/EX68.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2976;9. Linear Inequalities;68.3;68.3. 68ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH68/EX68.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2976;9. Linear Inequalities;68.4;68.4. 68ex4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH68/EX68.4/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2976;9. Linear Inequalities;69.1;69.1. 69ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH69/EX69.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2976;9. Linear Inequalities;69.2;69.2. 69ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH69/EX69.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2976;9. Linear Inequalities;69.3;69.3. 69ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH69/EX69.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2976;9. Linear Inequalities;69.4;69.4. 69ex4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH69/EX69.4/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2888;10. Graphical representation of Quantities;74.1;74.1. 74ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH74/EX74.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2888;10. Graphical representation of Quantities;75.1;75.1. 75ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH75/EX75.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2888;10. Graphical representation of Quantities;76.1;76.1. 76ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH76/EX76.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2916;11. The law of a straight line;80.1;80.1. 80ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH80/EX80.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2916;11. The law of a straight line;80.2;80.2. 80ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH80/EX80.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2916;11. The law of a straight line;85.1;85.1. 85ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH85/EX85.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2863;12. using inequalities to define regions;87.1;87.1. 87ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH87/EX87.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2863;12. using inequalities to define regions;87.2;87.2. 87ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH87/EX87.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2863;12. using inequalities to define regions;88.1;88.1. 88ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH88/EX88.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2863;12. using inequalities to define regions;89.1;89.1. 89ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH89/EX89.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2863;12. using inequalities to define regions;89.2;89.2. 89ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH89/EX89.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2917;13. Multiplication of algebraic expressions;92.1;92.1. 92ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH92/EX92.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2917;13. Multiplication of algebraic expressions;92.2;92.2. 92ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH92/EX92.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2917;13. Multiplication of algebraic expressions;92.3;92.3. 92ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH92/EX92.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2917;13. Multiplication of algebraic expressions;92.4;92.4. 92ex4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH92/EX92.4/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2917;13. Multiplication of algebraic expressions;93.1;93.1. 93ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH93/EX93.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2917;13. Multiplication of algebraic expressions;93.2;93.2. 93ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH93/EX93.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;100.1;100.1. 100ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH100/EX100.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;100.2;100.2. 100ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH100/EX100.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;102.1;102.1. 102ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH102/EX102.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;102.2;102.2. 102ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH102/EX102.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;102.3;102.3. 102ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH102/EX102.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;104.1;104.1. 104ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH104/EX104.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;104.2;104.2. 104ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH104/EX104.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;104.3;104.3. 104ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH104/EX104.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;104.4;104.4. 104ex4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH104/EX104.4/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;104.5;104.5. 104ex5;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH104/EX104.5/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;104.6;104.6. 104ex6;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH104/EX104.6/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;105.1;105.1. 105ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH105/EX105.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;105.2;105.2. 105ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH105/EX105.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;105.3;105.3. 105ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH105/EX105.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;106.1;106.1. 106ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH106/EX106.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;106.2;106.2. 106ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH106/EX106.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;106.3;106.3. 106ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH106/EX106.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;108.1;108.1. 108ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH108/EX108.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;108.2;108.2. 108ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH108/EX108.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;108.3;108.3. 108ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH108/EX108.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;108.4;108.4. 108ex4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH108/EX108.4/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;109.1;109.1. 109ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH109/EX109.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2942;14. Factors;109.2;109.2. 109ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH109/EX109.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2943;15. Fractions;114.1;114.1. 114ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH114/EX114.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2943;15. Fractions;114.2;114.2. 114ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH114/EX114.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2943;15. Fractions;114.3;114.3. 114ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH114/EX114.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2943;15. Fractions;115.1;115.1. 115ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH115/EX115.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2943;15. Fractions;115.2;115.2. 115ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH115/EX115.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2943;15. Fractions;116.1;116.1. 116ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH116/EX116.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2943;15. Fractions;116.2;116.2. 116ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH116/EX116.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2943;15. Fractions;116.3;116.3. 116ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH116/EX116.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2943;15. Fractions;116.4;116.4. 116ex4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH116/EX116.4/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2943;15. Fractions;116.5;116.5. 116ex5;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH116/EX116.5/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2943;15. Fractions;117.1;117.1. 117ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH117/EX117.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2943;15. Fractions;117.2;117.2. 117ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH117/EX117.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2977;16. Graphs of Quadratic Functions;118.1;118.1. 118ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH118/EX118.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2977;16. Graphs of Quadratic Functions;118.2;118.2. 118ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH118/EX118.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2977;16. Graphs of Quadratic Functions;118.3;118.3. 118ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH118/EX118.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2977;16. Graphs of Quadratic Functions;122.1;122.1. 122ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH122/EX122.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2977;16. Graphs of Quadratic Functions;124.1;124.1. 124ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH124/EX124.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2977;16. Graphs of Quadratic Functions;125.1;125.1. 125ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH125/EX125.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2977;16. Graphs of Quadratic Functions;126.1;126.1. 126ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH126/EX126.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2977;16. Graphs of Quadratic Functions;128.1;128.1. 128ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH128/EX128.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2977;16. Graphs of Quadratic Functions;129.1;129.1. 129ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH129/EX129.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2977;16. Graphs of Quadratic Functions;132.1;132.1. 132ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH132/EX132.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2977;16. Graphs of Quadratic Functions;133.1;133.1. 133ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH133/EX133.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2977;16. Graphs of Quadratic Functions;134.1;134.1. 134ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH134/EX134.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2977;16. Graphs of Quadratic Functions;135.1;135.1. 135ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH135/EX135.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3002;17. Quadratic Equations;139.1;139.1. 139ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH139/EX139.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3002;17. Quadratic Equations;139.2;139.2. 139ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH139/EX139.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3002;17. Quadratic Equations;139.3;139.3. 139ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH139/EX139.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3002;17. Quadratic Equations;141.1;141.1. 141ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH141/EX141.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3002;17. Quadratic Equations;141.2;141.2. 141ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH141/EX141.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3002;17. Quadratic Equations;144.1;144.1. 144ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH144/EX144.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3002;17. Quadratic Equations;144.2;144.2. 144ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH144/EX144.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3002;17. Quadratic Equations;145.1;145.1. 145ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH145/EX145.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3002;17. Quadratic Equations;145.2;145.2. 145ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH145/EX145.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3002;17. Quadratic Equations;147.1;147.1. 147ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH147/EX147.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3002;17. Quadratic Equations;148.1;148.1. 148ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH148/EX148.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3002;17. Quadratic Equations;148.2;148.2. 148ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH148/EX148.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3002;17. Quadratic Equations;149.1;149.1. 149ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH149/EX149.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3002;17. Quadratic Equations;149.2;149.2. 149ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH149/EX149.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2978;18. Indices;153.1;153.1. 153ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH153/EX153.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2978;18. Indices;159.1;159.1. 159ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH159/EX159.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3004;19. Logarithms;160.1;160.1. 160ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH160/EX160.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3004;19. Logarithms;165.1;165.1. 165ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH165/EX165.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3004;19. Logarithms;167.1;167.1. 167ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH167/EX167.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3004;19. Logarithms;167.2;167.2. 167ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH167/EX167.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3004;19. Logarithms;167.3;167.3. 167ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH167/EX167.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3004;19. Logarithms;168.1;168.1. 168ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH168/EX168.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3004;19. Logarithms;168.2;168.2. 168ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH168/EX168.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3004;19. Logarithms;169.1;169.1. 169ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH169/EX169.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3004;19. Logarithms;169.2;169.2. 169ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH169/EX169.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3004;19. Logarithms;169.3;169.3. 169ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH169/EX169.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3004;19. Logarithms;169.4;169.4. 169ex4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH169/EX169.4/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3004;19. Logarithms;169.5;169.5. 169ex5;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH169/EX169.5/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3004;19. Logarithms;170.1;170.1. 170ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH170/EX170.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3005;21. Variation;183.1;183.1. 183ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH183/EX183.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3005;21. Variation;185.1;185.1. 185ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH185/EX185.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3005;21. Variation;192.1;192.1. 192ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH192/EX192.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3005;21. Variation;192.2;192.2. 192ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH192/EX192.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3005;21. Variation;193.1;193.1. 193ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH193/EX193.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3005;21. Variation;193.2;193.2. 193ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH193/EX193.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3005;21. Variation;193.3;193.3. 193ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH193/EX193.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3005;21. Variation;195.1;195.1. 195ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH195/EX195.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3005;21. Variation;195.2;195.2. 195ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH195/EX195.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2980;22. The determination of Laws;197.1;197.1. 197ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH197/EX197.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2980;22. The determination of Laws;199.1;199.1. 199ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH199/EX199.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2981;23. Rational and Irrational Numbers;203.1;203.1. 203ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH203/EX203.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);2981;23. Rational and Irrational Numbers;203.2;203.2. 203ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH203/EX203.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3014;24. Arithmetical and Geometrical Series;210.1;210.1. 210ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH210/EX210.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3014;24. Arithmetical and Geometrical Series;210.2;210.2. 210ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH210/EX210.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3014;24. Arithmetical and Geometrical Series;214.1;214.1. 214ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH214/EX214.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3014;24. Arithmetical and Geometrical Series;214.2;214.2. 214ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH214/EX214.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3014;24. Arithmetical and Geometrical Series;214.3;214.3. 214ex3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH214/EX214.3/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3014;24. Arithmetical and Geometrical Series;214.4;214.4. 214ex4;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH214/EX214.4/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3014;24. Arithmetical and Geometrical Series;217.1;217.1. 217ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH217/EX217.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3014;24. Arithmetical and Geometrical Series;217.2;217.2. 217ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH217/EX217.2/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3014;24. Arithmetical and Geometrical Series;223.1;223.1. 223ex1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH223/EX223.1/: PATH DOES NOT EXIST -1322;Algebra(P. Abbott And M. E. Wardle);3014;24. Arithmetical and Geometrical Series;223.2;223.2. 223ex2;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1322/CH223/EX223.2/: PATH DOES NOT EXIST -1325;Theory Of Machines(T. Bevan);2958;2. MOTION INERTIA;2.1;2.1. example 1;correct;runtime; -1325;Theory Of Machines(T. Bevan);2958;2. MOTION INERTIA;2.10;2.10. example 10;correct;runtime; -1325;Theory Of Machines(T. Bevan);2958;2. MOTION INERTIA;2.11;2.11. example 11;correct;runtime; -1325;Theory Of Machines(T. Bevan);2958;2. MOTION INERTIA;2.12;2.12. example 12;correct;runtime; -1325;Theory Of Machines(T. Bevan);2958;2. MOTION INERTIA;2.13;2.13. example 13;correct;runtime; -1325;Theory Of Machines(T. Bevan);2958;2. MOTION INERTIA;2.2;2.2. example 2;correct;runtime; -1325;Theory Of Machines(T. Bevan);2958;2. MOTION INERTIA;2.3;2.3. example 3;correct;runtime; -1325;Theory Of Machines(T. Bevan);2958;2. MOTION INERTIA;2.4;2.4. example 4;correct;runtime; -1325;Theory Of Machines(T. Bevan);2958;2. MOTION INERTIA;2.5;2.5. example 5;correct;runtime; -1325;Theory Of Machines(T. Bevan);2958;2. MOTION INERTIA;2.6;2.6. example 6;correct;runtime; -1325;Theory Of Machines(T. Bevan);2958;2. MOTION INERTIA;2.7;2.7. example 7;correct;runtime; -1325;Theory Of Machines(T. Bevan);2958;2. MOTION INERTIA;2.8;2.8. example 8;correct;runtime; -1325;Theory Of Machines(T. Bevan);2958;2. MOTION INERTIA;2.9;2.9. example 9;correct;runtime; -1325;Theory Of Machines(T. Bevan);3048;3. VELOCITY AND ACCELERATION;3.3;3.3. example 3;correct;runtime; -1325;Theory Of Machines(T. Bevan);3048;3. VELOCITY AND ACCELERATION;3.4;3.4. example 4;correct;runtime; -1325;Theory Of Machines(T. Bevan);3048;3. VELOCITY AND ACCELERATION;3.5;3.5. example 5;correct;runtime; -1325;Theory Of Machines(T. Bevan);3048;3. VELOCITY AND ACCELERATION;3.6;3.6. example 6;correct;runtime; -1325;Theory Of Machines(T. Bevan);3048;3. VELOCITY AND ACCELERATION;3.7;3.7. example 7;correct;runtime; -1325;Theory Of Machines(T. Bevan);3048;3. VELOCITY AND ACCELERATION;3.8;3.8. example 8;correct;runtime; -1325;Theory Of Machines(T. Bevan);3165;4. MECHANISMS WITH LOWER PAIRS;4.1;4.1. example 1;correct;runtime; -1325;Theory Of Machines(T. Bevan);3166;5. VALVE DIAGRAMS AND VALVE GEARS;5.1;5.1. example 1;correct;runtime; -1325;Theory Of Machines(T. Bevan);3167;6. FRICTION;6.1;6.1. example 1;correct;runtime; -1325;Theory Of Machines(T. Bevan);3167;6. FRICTION;6.3;6.3. example 3;correct;runtime; -1325;Theory Of Machines(T. Bevan);3167;6. FRICTION;6.4;6.4. example 4;correct;runtime; -1325;Theory Of Machines(T. Bevan);3167;6. FRICTION;6.5;6.5. example 5;correct;runtime; -1325;Theory Of Machines(T. Bevan);3167;6. FRICTION;6.7;6.7. example 7;correct;runtime; -1325;Theory Of Machines(T. Bevan);3167;6. FRICTION;6.8;6.8. example 8;error;runtime; -1325;Theory Of Machines(T. Bevan);3304;7. BELT ROPE AND CHAIN DRIVE;7.1;7.1. example 1;correct;runtime; -1325;Theory Of Machines(T. Bevan);3304;7. BELT ROPE AND CHAIN DRIVE;7.2;7.2. example 2;correct;runtime; -1325;Theory Of Machines(T. Bevan);3305;8. BRAKES AND DYNAMOMETER;8.1;8.1. example 1;correct;runtime; -1325;Theory Of Machines(T. Bevan);3305;8. BRAKES AND DYNAMOMETER;8.2;8.2. example 2;error;runtime; -1325;Theory Of Machines(T. Bevan);3305;8. BRAKES AND DYNAMOMETER;8.3;8.3. example 3;correct;runtime; -1325;Theory Of Machines(T. Bevan);3305;8. BRAKES AND DYNAMOMETER;8.4;8.4. example 4;correct;runtime; -1325;Theory Of Machines(T. Bevan);3305;8. BRAKES AND DYNAMOMETER;8.5;8.5. example 5;correct;runtime; -1325;Theory Of Machines(T. Bevan);3305;8. BRAKES AND DYNAMOMETER;8.6;8.6. example 6;correct;runtime; -1325;Theory Of Machines(T. Bevan);3463;10. TOOTHED GEARING;10.1;10.1. example 1;correct;runtime; -1325;Theory Of Machines(T. Bevan);3463;10. TOOTHED GEARING;10.2;10.2. example 2;correct;runtime; -1325;Theory Of Machines(T. Bevan);3463;10. TOOTHED GEARING;10.3;10.3. example 3;correct;runtime; -1325;Theory Of Machines(T. Bevan);3463;10. TOOTHED GEARING;10.4;10.4. example 4;correct;runtime; -1325;Theory Of Machines(T. Bevan);3463;10. TOOTHED GEARING;10.5;10.5. example 5;correct;runtime; -1325;Theory Of Machines(T. Bevan);3314;12. DYNAMICS OF MACHINES;12.10;12.10. example 10;correct;runtime; -1325;Theory Of Machines(T. Bevan);3314;12. DYNAMICS OF MACHINES;12.11;12.11. example 11;error;runtime; -1325;Theory Of Machines(T. Bevan);3314;12. DYNAMICS OF MACHINES;12.2;12.2. example 2;correct;runtime; -1325;Theory Of Machines(T. Bevan);3314;12. DYNAMICS OF MACHINES;12.3;12.3. example 3;correct;runtime; -1325;Theory Of Machines(T. Bevan);3314;12. DYNAMICS OF MACHINES;12.4;12.4. example 4;correct;runtime; -1325;Theory Of Machines(T. Bevan);3314;12. DYNAMICS OF MACHINES;12.5;12.5. example 5;correct;runtime; -1325;Theory Of Machines(T. Bevan);3314;12. DYNAMICS OF MACHINES;12.6;12.6. example 6;correct;runtime; -1325;Theory Of Machines(T. Bevan);3314;12. DYNAMICS OF MACHINES;12.7;12.7. example 7;correct;runtime; -1325;Theory Of Machines(T. Bevan);3314;12. DYNAMICS OF MACHINES;12.8;12.8. example 8;correct;runtime; -1325;Theory Of Machines(T. Bevan);3314;12. DYNAMICS OF MACHINES;12.9;12.9. example 9;correct;runtime; -1325;Theory Of Machines(T. Bevan);3480;13. GOVERNORS;13.1;13.1. example 1;correct;runtime; -1325;Theory Of Machines(T. Bevan);3480;13. GOVERNORS;13.2;13.2. example 2;correct;runtime; -1325;Theory Of Machines(T. Bevan);3480;13. GOVERNORS;13.3;13.3. example 3;correct;runtime; -1325;Theory Of Machines(T. Bevan);3480;13. GOVERNORS;13.4;13.4. example 4;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3077;2. conduction;2.1;2.1. flow of heat through a wall;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3077;2. conduction;2.2;2.2. flow of heat through a composite wall;error;runtime; -1328;Process Heat Transfer(D. Q. Kern);3077;2. conduction;2.3;2.3. flow of heat through a composite wall with an air gap;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3077;2. conduction;2.4;2.4. heat flow through a pipe wall;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3077;2. conduction;2.5;2.5. heat loss from a pipe to air;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3079;4. radiation;4.1;4.1. radiation between two large planes;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3079;4. radiation;4.2;4.2. radiation between planes with different emissivities;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3079;4. radiation;4.3;4.3. calcualtion of radiation from a pipe;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3079;4. radiation;4.4;4.4. radiation from pipe to a duct;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3080;5. temperature;5.1;5.1. calculation of the LMTD;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3080;5. temperature;5.2;5.2. calculation of the LMTD with equal outlet temperatures;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3080;5. temperature;5.3;5.3. calculation of the LMTD;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3080;5. temperature;5.4;5.4. calculation of the LMTD with one isothermal fluid;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3080;5. temperature;5.5;5.5. calculation of h1 and h2;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3080;5. temperature;5.6;5.6. calculation of caloric temperature;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3090;6. counterflow;6.1;6.1. double pipe benzene toulene exchanger;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3090;6. counterflow;6.2;6.2. calculation of the true temperature difference;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3090;6. counterflow;6.3;6.3. double pipe lube oil crude oil exchanger;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3121;7. 1 2 parallel counterflow shell and tube exchangers;7.1;7.1. shell side equivalent diameter;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3121;7. 1 2 parallel counterflow shell and tube exchangers;7.2;7.2. calculation of FT for fluids with equal ranges;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3121;7. 1 2 parallel counterflow shell and tube exchangers;7.3;7.3. calculation of a kerosene crudeoil exchanger;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3121;7. 1 2 parallel counterflow shell and tube exchangers;7.4;7.4. calculation of a distilled water and raw watre exchanger;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3121;7. 1 2 parallel counterflow shell and tube exchangers;7.5;7.5. calculation of optimum outlet water temperature;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3121;7. 1 2 parallel counterflow shell and tube exchangers;7.6;7.6. calculation of a phosphate solution cooler;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3121;7. 1 2 parallel counterflow shell and tube exchangers;7.7;7.7. the optimum use of exhaust and process steam;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3121;7. 1 2 parallel counterflow shell and tube exchangers;7.8;7.8. calculation of sugar solution heater without baffles;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3121;7. 1 2 parallel counterflow shell and tube exchangers;7.9;7.9. outlet temperatures for a clean 1 2 exchanger;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3122;8. flow arrangements for increased heat recovery;8.1;8.1. calculation of a 2 4 oil cooler;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3122;8. flow arrangements for increased heat recovery;8.2;8.2. calculation of an acetone acetic acid exchanger;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3123;9. gases;9.1;9.1. calculation of ammonia compressor after cooler;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3123;9. gases;9.2;9.2. calculation of the heat load for air intercooler;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3123;9. gases;9.3;9.3. calculation of the dew point after compression;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3124;10. streamline flow and free convection;10.1;10.1. crude oil heater streamline flow;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3124;10. streamline flow and free convection;10.2;10.2. kerosene heater streamline flow and free convection;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3124;10. streamline flow and free convection;10.3;10.3. gas oil heater using cores;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3124;10. streamline flow and free convection;10.4;10.4. calculation of a heating bundle for aniline storage tank;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3125;11. calculations for process conditions;11.1;11.1. calculation of a straw oil and naphtha exchanger;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3125;11. calculations for process conditions;11.2;11.2. calculation of a lean oil and rich oil exchanger;error;runtime; -1328;Process Heat Transfer(D. Q. Kern);3125;11. calculations for process conditions;11.3;11.3. calculation of a caustic solution cooler;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3125;11. calculations for process conditions;11.4;11.4. calculation of an alcohol heater;error;runtime; -1328;Process Heat Transfer(D. Q. Kern);3125;11. calculations for process conditions;11.5;11.5. calculation of a flue gas cooler;error;runtime; -1328;Process Heat Transfer(D. Q. Kern);3126;12. condensation of single vapours;12.1;12.1. calculation of a horizontal n propanol condenser;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3126;12. condensation of single vapours;12.2;12.2. design of a vertical n propanol condenser;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3126;12. condensation of single vapours;12.3;12.3. calculation of a butane desuperheater condenser;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3126;12. condensation of single vapours;12.4;12.4. calculation of a vertical condenser and subcooler;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3126;12. condensation of single vapours;12.5;12.5. calculation of a horizontal condenser subcooler;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3126;12. condensation of single vapours;12.6;12.6. Calculation of Vertical Reflux type CS2 Condenser;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3126;12. condensation of single vapours;12.7;12.7. calculation of a surface condenser;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3073;18. batch and unsteady state processes;18.1;18.1. calculation of batch heating;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3073;18. batch and unsteady state processes;18.2;18.2. heat flow through a wall;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3073;18. batch and unsteady state processes;18.3;18.3. center line temperature of a shaft;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3073;18. batch and unsteady state processes;18.4;18.4. quenching;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3073;18. batch and unsteady state processes;18.5;18.5. the gurney lurie chart;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3073;18. batch and unsteady state processes;18.6;18.6. the application of newmans method to heating a brick;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3073;18. batch and unsteady state processes;18.7;18.7. the graphical determination of yhe time temperature distribution;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3073;18. batch and unsteady state processes;18.8;18.8. calculation for a wall with periodic temperature variation;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3073;18. batch and unsteady state processes;18.9;18.9. calculation of the length of a bed;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3059;19. furnace calculations;19.1;19.1. calculation of a furnace by the method of Lobo and Evans;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3059;19. furnace calculations;19.2;19.2. Calculation of a Furnace by the Method of Wilson Lobo and Hottel;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3059;19. furnace calculations;19.3;19.3. calculation of performance by the orrok hudson equation;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3059;19. furnace calculations;19.4;19.4. calculation of the equivalent radiant coefficient;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3059;19. furnace calculations;19.5;19.5. calculation of a heated vessel;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3030;20. additional applications;20.1;20.1. calculation of a jacketed vessel;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3030;20. additional applications;20.2;20.2. calculation of a tube coil;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3030;20. additional applications;20.3;20.3. calculation of a submerged pipecoil slurry cooler;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3030;20. additional applications;20.4;20.4. calculation of a trombone SO2 cooler;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3030;20. additional applications;20.5;20.5. calculation of an atmospheric jacket water cooler;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3030;20. additional applications;20.6;20.6. calculation of the true temperature difference;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3030;20. additional applications;20.7;20.7. calculation of sand cooling with negligible resistance;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3030;20. additional applications;20.8a;20.8a. immersion water heater;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3030;20. additional applications;20.8b;20.8b. strip heater for air heating;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3030;20. additional applications;20.8c;20.8c. finned strip heater;correct;runtime; -1328;Process Heat Transfer(D. Q. Kern);3030;20. additional applications;20.8d;20.8d. clamp on plastic heating;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.1;1.1. Conversion to Decimal System;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.10;1.10. Conversion to Binary System and to Base N;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.13;1.13. 1s compliment and 2s compliment;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.14;1.14. 1s compliment;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.15;1.15. Addition and Subtraction;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.16;1.16. Addition;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.17;1.17. Addition;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.18;1.18. Addition;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.19;1.19. Addition;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.2;1.2. Conversion Using Shortcut Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.20;1.20. Subtraction;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.23;1.23. Multiplication;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.24;1.24. Multiplication;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.25;1.25. Division;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.26;1.26. Multiplication;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.29;1.29. Normalized Floating Point Representation;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.3;1.3. Conversion to Base B from Decimal System;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.30;1.30. Add;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.31;1.31. Add;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.32;1.32. Add;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.33;1.33. Add;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.34;1.34. Subtraction;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.35;1.35. Multiplication;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.36;1.36. Division;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.4;1.4. Conversion to Binary System;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.5;1.5. Conversion to Binary System;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.6;1.6. Conversion to Decimal Number;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.7;1.7. Conversion to Decimal Number;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.8;1.8. Conversion to Base B from Binary System;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3217;1. Background to Numerical Methods;1.9;1.9. Conversion to Binary System;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3138;2. Scope of Numerical and Mathematical Methods;2.4;2.4. Solving Simultaneous Linear Equation;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3138;2. Scope of Numerical and Mathematical Methods;2.6;2.6. Integration;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3085;3. Errors and Their Propagation;3.1;3.1. Limiting Error;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3085;3. Errors and Their Propagation;3.2;3.2. Known Error;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3085;3. Errors and Their Propagation;3.3;3.3. Absolute Relative and Percentage Errors;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3085;3. Errors and Their Propagation;3.4;3.4. Absolute Relative and Percentage Errors;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3085;3. Errors and Their Propagation;3.5;3.5. Absolute Relative and Percentage Errors;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3068;4. Programming Tools and Techniques;4.1;4.1. Quadratic Equation;error;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3068;4. Programming Tools and Techniques;4.2;4.2. Database Management;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.1;5.1. Bisection Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.10;5.10. Newton Raphson Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.11;5.11. Newton Raphson Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.12;5.12. Newton Raphson Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.13;5.13. Secant Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.14;5.14. Kizner Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.15;5.15. Brent Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.19;5.19. Horner Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.2;5.2. Bisection Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.20;5.20. Laguerre Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.21;5.21. Mullers Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.22;5.22. Mullers Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.23;5.23. Bairstow Hitchcock Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.24;5.24. Bernoulli Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.25;5.25. Graeffe Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.26;5.26. QD Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.27;5.27. Linear Iteration Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.28;5.28. Aitkens Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.29;5.29. Newton Raphson Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.3;5.3. Regula Falsi Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.31;5.31. Secant Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.32;5.32. Regula Falsi Newton Raphson and Mullers Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.33;5.33. Newton Raphson and Mullers Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.34;5.34. QD Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.35;5.35. Newton Raphson Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.36;5.36. Secant Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.37;5.37. Newton Raphson Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.38;5.38. Newton Raphson Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.39;5.39. Newton Raphson Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.4;5.4. Ridders Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.40;5.40. Newton Raphson Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.5;5.5. General Iterative Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.6;5.6. Linear Iterative Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.7;5.7. Aitkens Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.8;5.8. Newton Raphson Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3219;5. Solutions of Algebraic and Transcendental Equations;5.9;5.9. Modified Newton Raphson Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3221;6. Numerical Methods of Linear Equations Direct Methods;6.1;6.1. Gaussian Elimination Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3221;6. Numerical Methods of Linear Equations Direct Methods;6.10;6.10. Solving Matrices;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3221;6. Numerical Methods of Linear Equations Direct Methods;6.2;6.2. Gaussian Elimination Method for TriDiagonal System;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3221;6. Numerical Methods of Linear Equations Direct Methods;6.3;6.3. Gauss Jordan Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3221;6. Numerical Methods of Linear Equations Direct Methods;6.4;6.4. Gaussian Elimination Method without Pivoting;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3221;6. Numerical Methods of Linear Equations Direct Methods;6.5;6.5. Dolittle Factorization Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3221;6. Numerical Methods of Linear Equations Direct Methods;6.6;6.6. Trangularization Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3221;6. Numerical Methods of Linear Equations Direct Methods;6.7;6.7. Wilkinson Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3221;6. Numerical Methods of Linear Equations Direct Methods;6.8;6.8. Choleskys Factorization;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3221;6. Numerical Methods of Linear Equations Direct Methods;6.9;6.9. Complex System of Linear Equation;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3060;7. Numerical Solutions for Matrix Inversion;7.1;7.1. Gauss Jordan Two Array Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3060;7. Numerical Solutions for Matrix Inversion;7.2;7.2. Inverse in Place without Pivoting;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3060;7. Numerical Solutions for Matrix Inversion;7.3;7.3. Inverse in Place with Pivoting;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3060;7. Numerical Solutions for Matrix Inversion;7.4;7.4. Inverse of Triangular Matrices;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3060;7. Numerical Solutions for Matrix Inversion;7.5;7.5. Inverse of Complex Matrices;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3060;7. Numerical Solutions for Matrix Inversion;7.6;7.6. Iterative Procedure;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3064;8. Numerical Solutions of Linear Systems of Equations Iterative Methods;8.1;8.1. Jacobi Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3064;8. Numerical Solutions of Linear Systems of Equations Iterative Methods;8.2;8.2. Gauss Seidel Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3064;8. Numerical Solutions of Linear Systems of Equations Iterative Methods;8.3;8.3. SOR Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3064;8. Numerical Solutions of Linear Systems of Equations Iterative Methods;8.4;8.4. Gauss Seidel Point Iterative Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3064;8. Numerical Solutions of Linear Systems of Equations Iterative Methods;8.5;8.5. Gauss Seidel Point Iterative Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3064;8. Numerical Solutions of Linear Systems of Equations Iterative Methods;8.6;8.6. Block Jacobi Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3064;8. Numerical Solutions of Linear Systems of Equations Iterative Methods;8.7;8.7. Block Gauss Seidel Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3064;8. Numerical Solutions of Linear Systems of Equations Iterative Methods;8.8;8.8. Block SOR Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3075;9. Linear Least Squares Problem;9.1;9.1. Moore Penrose Generalized Inverse;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3075;9. Linear Least Squares Problem;9.2;9.2. Curve Fitting;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3075;9. Linear Least Squares Problem;9.3;9.3. Gram Schmidt Orthogonalization or Orthonormalization Process;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3075;9. Linear Least Squares Problem;9.4;9.4. QR Decomposition;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3075;9. Linear Least Squares Problem;9.5;9.5. Vector Computation;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3075;9. Linear Least Squares Problem;9.6;9.6. House Holder Transformation;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3075;9. Linear Least Squares Problem;9.7;9.7. Givens QR Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3075;9. Linear Least Squares Problem;9.8;9.8. Recursive Least Square Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3237;10. Numerical Solutions of System of Non Linear Equations;10.1;10.1. System of Non Linear Equations;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3237;10. Numerical Solutions of System of Non Linear Equations;10.2;10.2. Contraction Method and Seidel Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3237;10. Numerical Solutions of System of Non Linear Equations;10.3;10.3. Non Linear System of Equation;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3237;10. Numerical Solutions of System of Non Linear Equations;10.4;10.4. Newton Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3237;10. Numerical Solutions of System of Non Linear Equations;10.5;10.5. Newton Raphshon Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3237;10. Numerical Solutions of System of Non Linear Equations;10.6;10.6. Newton Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3237;10. Numerical Solutions of System of Non Linear Equations;10.7;10.7. Iterative Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3237;10. Numerical Solutions of System of Non Linear Equations;10.8;10.8. Steepest Descent;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3306;11. Eigenvalues and Eigenvectors;11.1;11.1. Eigenvalues and Eigenvectors;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3306;11. Eigenvalues and Eigenvectors;11.10;11.10. LU Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3306;11. Eigenvalues and Eigenvectors;11.11;11.11. Generalized Eigenvalue Problem;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3306;11. Eigenvalues and Eigenvectors;11.2;11.2. Leverriers Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3306;11. Eigenvalues and Eigenvectors;11.3;11.3. Danilevsky Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3306;11. Eigenvalues and Eigenvectors;11.4;11.4. Power Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3306;11. Eigenvalues and Eigenvectors;11.5;11.5. Inverse Power Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3306;11. Eigenvalues and Eigenvectors;11.6;11.6. Rayleigh Quotient;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3306;11. Eigenvalues and Eigenvectors;11.7;11.7. Jacobi Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3306;11. Eigenvalues and Eigenvectors;11.8;11.8. Recursive Formula;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3306;11. Eigenvalues and Eigenvectors;11.9;11.9. QR Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3139;12. Interpolation and Extrapolation;12.1;12.1. Linear Interpolation Technique;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3139;12. Interpolation and Extrapolation;12.2;12.2. Lagarangian Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3139;12. Interpolation and Extrapolation;12.3;12.3. Aitken Nevilles Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3139;12. Interpolation and Extrapolation;12.4;12.4. Newtons Divided Difference Interpolation;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3139;12. Interpolation and Extrapolation;12.5;12.5. Interpolation Methods;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3139;12. Interpolation and Extrapolation;12.6;12.6. Chebyshev Interpolating Polynomial;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3139;12. Interpolation and Extrapolation;12.7;12.7. Double Interpolation;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3139;12. Interpolation and Extrapolation;12.8;12.8. Spline Interpolation;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3238;13. Numerical Differentiation;13.1;13.1. Differentiation;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3238;13. Numerical Differentiation;13.2;13.2. Calculation of x coordinate of Minimum Point ;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3238;13. Numerical Differentiation;13.3;13.3. Newton Forward Difference Formula;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3238;13. Numerical Differentiation;13.4;13.4. Newton Backward Difference Formula;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3238;13. Numerical Differentiation;13.5;13.5. Stirlings Central Difference Derivatives;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3238;13. Numerical Differentiation;13.6;13.6. Extrapolation;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3238;13. Numerical Differentiation;13.7;13.7. Richardson Extrapolation;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3238;13. Numerical Differentiation;13.8;13.8. Application;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3222;14. Numerical Integration;14.10;14.10. Spline Integration Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3222;14. Numerical Integration;14.11;14.11. Trapezoidal Rule;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3222;14. Numerical Integration;14.14;14.14. Trapezoidal and Simpsons Rule;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3222;14. Numerical Integration;14.15;14.15. Trapezoidal and Simpsons Rule;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3222;14. Numerical Integration;14.16;14.16. Multiple Integration with Variable Limits;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3222;14. Numerical Integration;14.18;14.18. Integration;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3222;14. Numerical Integration;14.19;14.19. Integration;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3222;14. Numerical Integration;14.2;14.2. Simpsons 1 3rd Rule;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3222;14. Numerical Integration;14.3;14.3. Trapezoidal Rule and Simpsons Rule;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3222;14. Numerical Integration;14.5;14.5. Romberg Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3222;14. Numerical Integration;14.7;14.7. Gaussian Quadrature Formula;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3222;14. Numerical Integration;14.8;14.8. Gauss Legendre Two Point Rule;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3222;14. Numerical Integration;14.9;14.9. Gauss Legendre Three Point Rule;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.1;15.1. Ordinary Differential Equation;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.10;15.10. Heun Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.11;15.11. Midpoint Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.12;15.12. Modified Midpoint Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.13;15.13. Single Step Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.14;15.14. Second Order Runge Kutta Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.15;15.15. Third Order Runge Kutta Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.16;15.16. Fourth Order Runge Kutta Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.17;15.17. New Variant of Runge Kutta Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.18;15.18. Runge Kutta Merson Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.19;15.19. Runge Kutta Fehlberg Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.20;15.20. Carp Karp Runge Kutta Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.21;15.21. Implicit Runge Kutta Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.22;15.22. Linear Multi Step Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.23;15.23. Milne Simpson Predictor Corrector Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.24;15.24. Improved Milne Simpson Predictor Corrector Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.25;15.25. Hamming Predictor Corrector Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.26;15.26. Multi Valued Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.27;15.27. First order ODE;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.28;15.28. Differential Equation;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.6;15.6. Taylor Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.7;15.7. Picard Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.8;15.8. Euler Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3309;15. Numerical Solutions of Ordinary Differential Equations Initial Value Problem;15.9;15.9. Trapezium Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3337;16. Numerical Solutions of Ordinary Differential Equations Boundary Value Problems;16.1;16.1. Outline of Linear Shooting Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3337;16. Numerical Solutions of Ordinary Differential Equations Boundary Value Problems;16.2;16.2. Linear Shooting Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3337;16. Numerical Solutions of Ordinary Differential Equations Boundary Value Problems;16.3;16.3. Multiple Shooting Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3337;16. Numerical Solutions of Ordinary Differential Equations Boundary Value Problems;16.4;16.4. Finite Difference Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3337;16. Numerical Solutions of Ordinary Differential Equations Boundary Value Problems;16.5;16.5. Non Linear Problem;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3337;16. Numerical Solutions of Ordinary Differential Equations Boundary Value Problems;16.6;16.6. Collocation Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3311;18. Numerical Solutions of Parabolic Partial Differential Equations;18.4;18.4. Forward Difference Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3311;18. Numerical Solutions of Parabolic Partial Differential Equations;18.5;18.5. Bender Schmidt Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3311;18. Numerical Solutions of Parabolic Partial Differential Equations;18.6;18.6. Crank Nicolson Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3311;18. Numerical Solutions of Parabolic Partial Differential Equations;18.7;18.7. Gauss Seidel Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3311;18. Numerical Solutions of Parabolic Partial Differential Equations;18.8;18.8. ADI Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3312;19. Numerical Solutions of Hyperbolic Partial Differential Equations;19.10;19.10. Non Linear 1st Order Hyperboolic Differential Equation;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3312;19. Numerical Solutions of Hyperbolic Partial Differential Equations;19.11;19.11. Finite Difference Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3312;19. Numerical Solutions of Hyperbolic Partial Differential Equations;19.12;19.12. Hyperbolic Partial Differential Equations;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3312;19. Numerical Solutions of Hyperbolic Partial Differential Equations;19.13;19.13. Hyperbolic Differential Equations in 2D or 3D;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3312;19. Numerical Solutions of Hyperbolic Partial Differential Equations;19.3;19.3. Simple Explicit Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3312;19. Numerical Solutions of Hyperbolic Partial Differential Equations;19.4;19.4. Simple Implicit Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3312;19. Numerical Solutions of Hyperbolic Partial Differential Equations;19.5;19.5. Lax Wendroff Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3312;19. Numerical Solutions of Hyperbolic Partial Differential Equations;19.6;19.6. Wendroff Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3312;19. Numerical Solutions of Hyperbolic Partial Differential Equations;19.7;19.7. Leapfrog Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3312;19. Numerical Solutions of Hyperbolic Partial Differential Equations;19.8;19.8. Variable Coefficients;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3312;19. Numerical Solutions of Hyperbolic Partial Differential Equations;19.9;19.9. Inhomogeneous 1st Order Hyperboolic Differential Equation;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3338;20. Numerical Solutions of Elliptical Partial Differential Equations;20.1;20.1. Direct Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3338;20. Numerical Solutions of Elliptical Partial Differential Equations;20.2;20.2. Five Point Formula;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3338;20. Numerical Solutions of Elliptical Partial Differential Equations;20.3;20.3. Finite Difference Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3338;20. Numerical Solutions of Elliptical Partial Differential Equations;20.4;20.4. Seven Point Formula;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3338;20. Numerical Solutions of Elliptical Partial Differential Equations;20.5;20.5. Nine Point Formula;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3338;20. Numerical Solutions of Elliptical Partial Differential Equations;20.6;20.6. Five Point Formula;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3338;20. Numerical Solutions of Elliptical Partial Differential Equations;20.7;20.7. Laplace Distribution;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3338;20. Numerical Solutions of Elliptical Partial Differential Equations;20.8;20.8. Spherical Coordinate System;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3313;21. Advances in Numerical Methods Using Parallel Computing Paradigm;21.1;21.1. Parallel Bisection Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3313;21. Advances in Numerical Methods Using Parallel Computing Paradigm;21.2;21.2. Lagrange Interpolation in Parallel Computing;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3313;21. Advances in Numerical Methods Using Parallel Computing Paradigm;21.3;21.3. Trapezoidal Rule and Simpsons Rule in Parallel Computing;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3313;21. Advances in Numerical Methods Using Parallel Computing Paradigm;21.4;21.4. Parallel Gauss Seidel Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3313;21. Advances in Numerical Methods Using Parallel Computing Paradigm;21.5;21.5. Poissons Partial Differential Equation;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3339;22. Numerical Methods Using Neural Networks;22.1;22.1. MLP Algorithm;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3339;22. Numerical Methods Using Neural Networks;22.2;22.2. MLP;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3339;22. Numerical Methods Using Neural Networks;22.3;22.3. Bisection Method;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3339;22. Numerical Methods Using Neural Networks;22.4;22.4. Hopfield Neural Network;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3339;22. Numerical Methods Using Neural Networks;22.5;22.5. RBF Network;correct;runtime; -1332;Numerical Methods: Principles, Analysis, And Algorithms(S. Pal);3339;22. Numerical Methods Using Neural Networks;22.7;22.7. First Order ODE;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3380;2. modelling in frequency domain;2.1;2.1. laplace transform;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3380;2. modelling in frequency domain;2.14;2.14. opamp;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3380;2. modelling in frequency domain;2.15;2.15. laplace transform;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3380;2. modelling in frequency domain;2.17;2.17. laplace transform;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3380;2. modelling in frequency domain;2.2;2.2. inverse laplace transform;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3380;2. modelling in frequency domain;2.23;2.23. motor;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3380;2. modelling in frequency domain;2.26;2.26. linearization;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3380;2. modelling in frequency domain;2.3;2.3. partial frac;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3380;2. modelling in frequency domain;2.5;2.5. inverse laplace transform;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3376;3. modelling in the time domain;3.6;3.6. state space to transfer function;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3377;4. time response;4.1;4.1. tr;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3377;4. time response;4.10;4.10. approx;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3377;4. time response;4.11;4.11. tr;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3377;4. time response;4.13;4.13. st matrix;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3377;4. time response;4.2;4.2. time;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3377;4. time response;4.3;4.3. tr;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3377;4. time response;4.4;4.4. tr;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3377;4. time response;4.5;4.5. tr;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3377;4. time response;4.6;4.6. tr;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3377;4. time response;4.7;4.7. tr;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3377;4. time response;4.8;4.8. tr;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3374;6. stability;6.1;6.1. routh table;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3374;6. stability;6.10;6.10. routh;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3374;6. stability;6.11;6.11. routh;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3374;6. stability;6.2;6.2. routh table;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3374;6. stability;6.3;6.3. routh;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3374;6. stability;6.4;6.4. routh;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3374;6. stability;6.5;6.5. routh;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3374;6. stability;6.6;6.6. routh;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3374;6. stability;6.7;6.7. routh;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3374;6. stability;6.8;6.8. routh;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3374;6. stability;6.9;6.9. routh;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3375;7. steady state errors;7.1;7.1. ss error;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3375;7. steady state errors;7.10;7.10. ss error;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3375;7. steady state errors;7.11;7.11. ss error;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3375;7. steady state errors;7.12;7.12. ss error;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3375;7. steady state errors;7.13;7.13. ss error;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3375;7. steady state errors;7.14;7.14. ss error;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3375;7. steady state errors;7.2;7.2. ss error;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3375;7. steady state errors;7.3;7.3. ss error;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3375;7. steady state errors;7.4;7.4. ss error;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3375;7. steady state errors;7.5;7.5. ss error;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3375;7. steady state errors;7.6;7.6. ss error;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3375;7. steady state errors;7.7;7.7. ss error;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3375;7. steady state errors;7.8;7.8. ss error;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3375;7. steady state errors;7.9;7.9. ss error;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3386;8. root locus;8.2;8.2. root locus;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3386;8. root locus;8.3;8.3. root locus;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3386;8. root locus;8.4;8.4. root locus;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3386;8. root locus;8.5;8.5. root locus;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3386;8. root locus;8.5;8.5. root locus;error;runtime; -1340;Control Systems Engineering(N. S. Nise);3386;8. root locus;8.6;8.6. root locus;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3386;8. root locus;8.7;8.7. root locus;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3386;8. root locus;8.8;8.8. root locus;correct;runtime; -1340;Control Systems Engineering(N. S. Nise);3386;8. root locus;8.9;8.9. root locus;correct;runtime; -1349;Fundamentals Of Gas Dynamics(R. D. Zucker And O. Biblarz);2871;1. Review of Elementary Principles;1.1;1.1. Gas constant for air;correct;runtime; -1349;Fundamentals Of Gas Dynamics(R. D. Zucker And O. Biblarz);2871;1. Review of Elementary Principles;1.2;1.2. Density of air;correct;runtime; -1349;Fundamentals Of Gas Dynamics(R. D. Zucker And O. Biblarz);2872;2. Control Volume Analysis Part I;2.1;2.1. Average velocity at diverged section;correct;runtime; -1349;Fundamentals Of Gas Dynamics(R. D. Zucker And O. Biblarz);2872;2. Control Volume Analysis Part I;2.2;2.2. Mixture formation between steam and water inside ejector;correct;runtime; -1349;Fundamentals Of Gas Dynamics(R. D. Zucker And O. Biblarz);2872;2. Control Volume Analysis Part I;2.3;2.3. Heat transfer in flow through horizontal duct;correct;runtime; -1349;Fundamentals Of Gas Dynamics(R. D. Zucker And O. Biblarz);2872;2. Control Volume Analysis Part I;2.4;2.4. Power output of turbine;correct;runtime; -1349;Fundamentals Of Gas Dynamics(R. D. Zucker And O. Biblarz);2865;3. Control Volume Analysis Part II;3.1;3.1. Eulers equation isothermal flow;correct;runtime; -1349;Fundamentals Of Gas Dynamics(R. D. Zucker And O. Biblarz);2865;3. Control Volume Analysis Part II;3.2;3.2. Static and stagnation enthalpies;correct;runtime; -1349;Fundamentals Of Gas Dynamics(R. D. Zucker And O. Biblarz);2865;3. Control Volume Analysis Part II;3.3;3.3. Power output calculation;correct;runtime; -1349;Fundamentals Of Gas Dynamics(R. D. Zucker And O. Biblarz);2865;3. Control Volume Analysis Part II;3.4;3.4. Water flow through duct;correct;runtime; -1349;Fundamentals Of Gas Dynamics(R. D. Zucker And O. Biblarz);2865;3. Control Volume Analysis Part II;3.5;3.5. Total pressure of water;correct;runtime; -1349;Fundamentals Of Gas Dynamics(R. D. Zucker And O. Biblarz);2865;3. Control Volume Analysis Part II;3.6;3.6. Air flow through horizontal duct;correct;runtime; -1349;Fundamentals Of Gas Dynamics(R. D. Zucker And O. Biblarz);2865;3. Control Volume Analysis Part II;3.7;3.7. Water deflection by vane;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2929;1. Introduction Dimensional Analysis Basic Thermodynamics and Fluid Mechanics;1.1;1.1. Radial Flow Hydraulic;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2929;1. Introduction Dimensional Analysis Basic Thermodynamics and Fluid Mechanics;1.10;1.10. Radial Inward Flow;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2929;1. Introduction Dimensional Analysis Basic Thermodynamics and Fluid Mechanics;1.2;1.2. Centrifugal Pump Head;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2929;1. Introduction Dimensional Analysis Basic Thermodynamics and Fluid Mechanics;1.3;1.3. Air Compressor Speed;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2929;1. Introduction Dimensional Analysis Basic Thermodynamics and Fluid Mechanics;1.4;1.4. Pumping Power;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2929;1. Introduction Dimensional Analysis Basic Thermodynamics and Fluid Mechanics;1.5;1.5. Drag Force F;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2929;1. Introduction Dimensional Analysis Basic Thermodynamics and Fluid Mechanics;1.6;1.6. Axial Pump Power;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2929;1. Introduction Dimensional Analysis Basic Thermodynamics and Fluid Mechanics;1.7;1.7. Axial Gas Turbine;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2929;1. Introduction Dimensional Analysis Basic Thermodynamics and Fluid Mechanics;1.8;1.8. Wind Tunnel;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2929;1. Introduction Dimensional Analysis Basic Thermodynamics and Fluid Mechanics;1.9;1.9. Kinetic Energy;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.1;2.1. Centrifugal Pump Torque;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.10;2.10. Centrifugal Pump Running;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.11;2.11. Ideal Height Hydraulic Efficiency;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.12;2.12. Actual Work Absolute Velocity;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.13;2.13. Theoritical Head;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.14;2.14. Vanes 30 Degrees;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.15;2.15. Power Hub dia Angles;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.16;2.16. Mechanical Efficiency;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.17;2.17. Single Stage Pump;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.18;2.18. Diameter of Impeller;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.19;2.19. Two Multistage Pumps;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.2;2.2. Head Imparted;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.20;2.20. Pumps to be Connected;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.21;2.21. Specific speed 1150;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.3;2.3. Centrifugal Pump Impeller;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.4;2.4. Efficiency Lift Discharge;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.5;2.5. Horse Power Pump;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.6;2.6. Impeller Vanes Angled;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.7;2.7. Vanes At 45 Degrees;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.8;2.8. Vanes Radially Exit;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);2931;2. Hyraulic Pumps;2.9;2.9. Radial Component Water;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.1;3.1. Generator Pelton Wheel;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.10;3.10. Runner Axial Flow;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.11;3.11. Kaplan runner;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.12;3.12. Turbine 12000 HP;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.13;3.13. Speed angle reaction turbine;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.14;3.14. Discharge 500;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.15;3.15. Rotation 290rpm;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.16;3.16. Head 30;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.17;3.17. Power 12400;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.18;3.18. Francis Turbine 1250rpm;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.19;3.19. Turbine 130kW;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.2;3.2. Pelton Wheel 725;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.20;3.20. Blade tip hub dia;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.21;3.21. Overall Efficiency 75;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.22;3.22. Kaplan 10000kW;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.23;3.23. Vanes 12 degrees;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.24;3.24. Inward Flow 70kW;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.25;3.25. Francis Turbine 500kW;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.26;3.26. 35MW Generator;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.3;3.3. Pelton Speed 14;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.4;3.4. Pelton Wheel 12900kW;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.5;3.5. Double Overhung Pelton;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.6;3.6. Power Station;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.7;3.7. Pelton Head 90;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.8;3.8. Single Jet Pelton Wheel;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3503;3. Hydraulic Turbines;3.9;3.9. Inward Flow Reaction Turbine;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3544;4. Centrifugal Compressors and Fans;4.1;4.1. Air leaving impeller;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3544;4. Centrifugal Compressors and Fans;4.10;4.10. Compressor 15000rpm;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3544;4. Centrifugal Compressors and Fans;4.11;4.11. Double sided compressor;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3544;4. Centrifugal Compressors and Fans;4.12;4.12. Recalculating 412;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3544;4. Centrifugal Compressors and Fans;4.13;4.13. Centrifugal Compressor 16500rpm;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3544;4. Centrifugal Compressors and Fans;4.14;4.14. ToT Efficiency 88;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3544;4. Centrifugal Compressors and Fans;4.15;4.15. Centrifugal Compressor 15500rpm;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3544;4. Centrifugal Compressors and Fans;4.16;4.16. Double sided compressor 15500;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3544;4. Centrifugal Compressors and Fans;4.17;4.17. Vanes 17 stagnation T and P;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3544;4. Centrifugal Compressors and Fans;4.2;4.2. Speed Centrifugal Compressor270;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3544;4. Centrifugal Compressors and Fans;4.3;4.3. Centrifugal Compressor 16000rpm;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3544;4. Centrifugal Compressors and Fans;4.4;4.4. Adiabatic Efficiency;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3544;4. Centrifugal Compressors and Fans;4.5;4.5. Centrifugal Compressor 9000rpm;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3544;4. Centrifugal Compressors and Fans;4.6;4.6. Centrifugal Compressor No prewhirl;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3544;4. Centrifugal Compressors and Fans;4.7;4.7. Centrifugal Compressor 10000rpm;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3544;4. Centrifugal Compressors and Fans;4.8;4.8. Centrifugal Compressor 19 vanes;correct;runtime; -1358;Turbomachinery Design And Theory(R. S. R. Gorla And A. A. Khan);3544;4. Centrifugal Compressors and Fans;4.9;4.9. Problem 8 repeat;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2979;1. Buoyancy and Stability;1.4.1;1.4.1. chapter 1 example 4 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2979;1. Buoyancy and Stability;1.4.2;1.4.2. chapter 1 example 4 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2979;1. Buoyancy and Stability;1.6.1;1.6.1. chapter 1 example 6 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2979;1. Buoyancy and Stability;1.6.2;1.6.2. chapter 1 example 6 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2979;1. Buoyancy and Stability;1.6.3;1.6.3. chapter 1 example 6 3;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2979;1. Buoyancy and Stability;1.7.2;1.7.2. chapter 1 example 7 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2979;1. Buoyancy and Stability;1.7.3;1.7.3. chapter 1 example 7 3;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2979;1. Buoyancy and Stability;1.8.1;1.8.1. chapter 1 example 8 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2979;1. Buoyancy and Stability;1.9.1;1.9.1. chapter 1 example 9 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2982;2. Hydrostatic forces and centres of pressure;2.3.1;2.3.1. chapter 2 example 3 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2982;2. Hydrostatic forces and centres of pressure;2.3.2;2.3.2. chapter 2 example 3 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2982;2. Hydrostatic forces and centres of pressure;2.3.3;2.3.3. chapter 2 example 3 3;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2982;2. Hydrostatic forces and centres of pressure;2.3.4;2.3.4. chapter 2 example 3 4;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2982;2. Hydrostatic forces and centres of pressure;2.3.5;2.3.5. chapter 2 example 3 5;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2982;2. Hydrostatic forces and centres of pressure;2.4.1;2.4.1. chapter 2 example 4 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2982;2. Hydrostatic forces and centres of pressure;2.6.2;2.6.2. chapter 2 example 6 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2982;2. Hydrostatic forces and centres of pressure;2.6.3;2.6.3. chapter 2 example 6 3;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2982;2. Hydrostatic forces and centres of pressure;2.6.5;2.6.5. chapter 2 example 6 5;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2982;2. Hydrostatic forces and centres of pressure;2.7.1;2.7.1. chapter 2 example 7 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2982;2. Hydrostatic forces and centres of pressure;2.7.2;2.7.2. chapter 2 example 7 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2983;3. The Measurment of Fluid Pressure;3.1.1;3.1.1. chapter 3 example 1 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2983;3. The Measurment of Fluid Pressure;3.2.1;3.2.1. chapter 3 example 2 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2983;3. The Measurment of Fluid Pressure;3.4.1;3.4.1. chapter 3 example 4 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2983;3. The Measurment of Fluid Pressure;3.4.2;3.4.2. chapter 3 example 4 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2983;3. The Measurment of Fluid Pressure;3.5.1;3.5.1. chapter 3 example 5 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2983;3. The Measurment of Fluid Pressure;3.5.2;3.5.2. chapter 3 example 5 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2987;4. Bernoullis Equation and Measurment of flow of incompressible fluids;4.1.1;4.1.1. chapter 4 example 1 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2987;4. Bernoullis Equation and Measurment of flow of incompressible fluids;4.2.2;4.2.2. Chapter 4 example 2 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2987;4. Bernoullis Equation and Measurment of flow of incompressible fluids;4.3.1;4.3.1. chapter 4 example 3 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2987;4. Bernoullis Equation and Measurment of flow of incompressible fluids;4.4.1;4.4.1. chapter 4 example 4 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2987;4. Bernoullis Equation and Measurment of flow of incompressible fluids;4.4.2;4.4.2. chapter 4 example 4 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2987;4. Bernoullis Equation and Measurment of flow of incompressible fluids;4.5.1;4.5.1. chapter 4 example 5 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2987;4. Bernoullis Equation and Measurment of flow of incompressible fluids;4.5.3;4.5.3. chapter 4 example 5 3;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2987;4. Bernoullis Equation and Measurment of flow of incompressible fluids;4.6.1;4.6.1. chapter 4 example 6 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2987;4. Bernoullis Equation and Measurment of flow of incompressible fluids;4.7.1;4.7.1. chapter 4 example 7 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2987;4. Bernoullis Equation and Measurment of flow of incompressible fluids;4.8.2;4.8.2. chapter 4 example 8 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2988;5. Elements of Similarity Notches and Wires;5.1.1;5.1.1. chapter 5 example 1 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2988;5. Elements of Similarity Notches and Wires;5.2.2;5.2.2. chapter 5 example 2 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2988;5. Elements of Similarity Notches and Wires;5.3.1;5.3.1. chapter 5 example 3 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2988;5. Elements of Similarity Notches and Wires;5.5.2;5.5.2. chapter 5 example 5 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2988;5. Elements of Similarity Notches and Wires;5.6.2;5.6.2. chapter 5 example 6 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2988;5. Elements of Similarity Notches and Wires;5.8.1;5.8.1. chapter 5 example 8 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2990;6. Equations of motion for a fluid element;6.1.1;6.1.1. chapter 6 example 1 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2990;6. Equations of motion for a fluid element;6.1.2;6.1.2. chapter 6 example 1 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2990;6. Equations of motion for a fluid element;6.1.3;6.1.3. chapter 6 example 1 3;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2990;6. Equations of motion for a fluid element;6.2.1;6.2.1. chapter 6 example 2 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2990;6. Equations of motion for a fluid element;6.3.1;6.3.1. chapter 6 example 3 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2990;6. Equations of motion for a fluid element;6.3.2;6.3.2. chapter 6 example 3 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2990;6. Equations of motion for a fluid element;6.3.3;6.3.3. chapter 6 example 3 3;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2990;6. Equations of motion for a fluid element;6.7.2;6.7.2. chapter 6 example 7 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2990;6. Equations of motion for a fluid element;6.8.1;6.8.1. chapter 6 example 8 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2990;6. Equations of motion for a fluid element;6.8.2;6.8.2. chapter 6 example 8 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2991;7. Fluid Momentum and Thrust by Reaction;7.1.1;7.1.1. chapter 7 1 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2991;7. Fluid Momentum and Thrust by Reaction;7.1.2;7.1.2. chapter 7 1 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2991;7. Fluid Momentum and Thrust by Reaction;7.2.2;7.2.2. chapter 7 2 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2991;7. Fluid Momentum and Thrust by Reaction;7.2.3;7.2.3. chapter 7 2 3;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2991;7. Fluid Momentum and Thrust by Reaction;7.3.1;7.3.1. chapter 7 3 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2991;7. Fluid Momentum and Thrust by Reaction;7.4.2;7.4.2. chapter 7 4 2;error;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2991;7. Fluid Momentum and Thrust by Reaction;7.5.1;7.5.1. chapter 7 5 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2991;7. Fluid Momentum and Thrust by Reaction;7.6.1;7.6.1. chapter 7 6 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2991;7. Fluid Momentum and Thrust by Reaction;7.7.1;7.7.1. chapter 7 example 7 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2991;7. Fluid Momentum and Thrust by Reaction;7.8.2;7.8.2. chapter 7 8 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2991;7. Fluid Momentum and Thrust by Reaction;7.8.3;7.8.3. chapter 7 8 3;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2991;7. Fluid Momentum and Thrust by Reaction;7.9.1;7.9.1. chapter 7 9 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2993;8. Behaviour of Ideal and Viscous Fluids;8.2.1;8.2.1. chapter 8 2 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2993;8. Behaviour of Ideal and Viscous Fluids;8.3.1;8.3.1. chapter 8 3 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2993;8. Behaviour of Ideal and Viscous Fluids;8.3.2;8.3.2. chapter 8 3 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2993;8. Behaviour of Ideal and Viscous Fluids;8.3.3;8.3.3. chapter 8 3 3;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2993;8. Behaviour of Ideal and Viscous Fluids;8.3.4;8.3.4. chapter 8 3 4;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2993;8. Behaviour of Ideal and Viscous Fluids;8.4.1;8.4.1. chapter 8 4 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2993;8. Behaviour of Ideal and Viscous Fluids;8.5.1;8.5.1. chapter 8 5 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2993;8. Behaviour of Ideal and Viscous Fluids;8.5.2;8.5.2. chapter 8 5 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2993;8. Behaviour of Ideal and Viscous Fluids;8.6.2;8.6.2. chapter 8 6 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2994;9. Similarity and Dimensional Analysis;9.1.1;9.1.1. chapter 9 1 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2994;9. Similarity and Dimensional Analysis;9.2.1;9.2.1. chapter 9 2 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2994;9. Similarity and Dimensional Analysis;9.2.2;9.2.2. chapter 9 2 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2994;9. Similarity and Dimensional Analysis;9.3.1;9.3.1. chapter 9 3 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2994;9. Similarity and Dimensional Analysis;9.4.1;9.4.1. chapter 9 4 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2994;9. Similarity and Dimensional Analysis;9.4.2;9.4.2. chapter 9 4 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2994;9. Similarity and Dimensional Analysis;9.5.1;9.5.1. chapter 9 5 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2994;9. Similarity and Dimensional Analysis;9.5.2;9.5.2. chapter 9 5 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2994;9. Similarity and Dimensional Analysis;9.6.1;9.6.1. chapter 9 6 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2994;9. Similarity and Dimensional Analysis;9.6.3;9.6.3. chapter 9 6 3;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2994;9. Similarity and Dimensional Analysis;9.7.1;9.7.1. chapter 9 7 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2994;9. Similarity and Dimensional Analysis;9.7.2;9.7.2. chapter 9 7 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2994;9. Similarity and Dimensional Analysis;9.7.4;9.7.4. chapter 9 7 4;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2994;9. Similarity and Dimensional Analysis;9.7.5;9.7.5. chapter 9 7 5;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2994;9. Similarity and Dimensional Analysis;9.8.3;9.8.3. chapter 9 8 3;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2996;10. Steady Flow in Pipes and Channels;10.1.1;10.1.1. chapter 10 example 1 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2996;10. Steady Flow in Pipes and Channels;10.2.2;10.2.2. chapter 10 2 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2996;10. Steady Flow in Pipes and Channels;10.3.1;10.3.1. chapter 10 example 3 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2996;10. Steady Flow in Pipes and Channels;10.4.1;10.4.1. chapter 10 example 4 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2996;10. Steady Flow in Pipes and Channels;10.4.2;10.4.2. chapter 10 example 4 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2996;10. Steady Flow in Pipes and Channels;10.4.3;10.4.3. chapter 10 example 4 3;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2997;11. Fluid and Power Transmission through Pipe lines;11.10.2;11.10.2. chapter 11 example 10 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2997;11. Fluid and Power Transmission through Pipe lines;11.10.3;11.10.3. chapter 11 example 10 3;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2997;11. Fluid and Power Transmission through Pipe lines;11.11.1;11.11.1. chapter 11 example 11 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2997;11. Fluid and Power Transmission through Pipe lines;11.11.2;11.11.2. chapter 11 example 11 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2997;11. Fluid and Power Transmission through Pipe lines;11.13.1;11.13.1. chapter 11 example 13 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2997;11. Fluid and Power Transmission through Pipe lines;11.14.1;11.14.1. chapter 11 example 14 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2997;11. Fluid and Power Transmission through Pipe lines;11.14.2;11.14.2. chapter 11 example 14 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2997;11. Fluid and Power Transmission through Pipe lines;11.14.4;11.14.4. chapter 11 example 14 4;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2997;11. Fluid and Power Transmission through Pipe lines;11.2.1;11.2.1. chapter 11 example 2 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2997;11. Fluid and Power Transmission through Pipe lines;11.3.1;11.3.1. chapter 11 example 3 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2997;11. Fluid and Power Transmission through Pipe lines;11.4.1;11.4.1. chapter 11 example 4 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2997;11. Fluid and Power Transmission through Pipe lines;11.8.2;11.8.2. chapter 11 example 8 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2997;11. Fluid and Power Transmission through Pipe lines;11.8.3;11.8.3. chapter 11 example 8 3;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2998;12. Compressibility Effects in FLuids;12.10.2;12.10.2. chapter 12 example 10 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2998;12. Compressibility Effects in FLuids;12.10.3;12.10.3. chapter 12 example 10 3;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2998;12. Compressibility Effects in FLuids;12.10.4;12.10.4. chapter 12 example 10 4;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2998;12. Compressibility Effects in FLuids;12.10.5;12.10.5. chapter 12 example 10 5;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2998;12. Compressibility Effects in FLuids;12.2.1;12.2.1. chapter 12 example 2 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2998;12. Compressibility Effects in FLuids;12.3.1;12.3.1. chapter 12 example 3 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2998;12. Compressibility Effects in FLuids;12.6.1;12.6.1. chapter 12 example 6 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2998;12. Compressibility Effects in FLuids;12.7.2;12.7.2. chapter 12 example 7 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2998;12. Compressibility Effects in FLuids;12.8.1;12.8.1. chapter 12 example 8 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2998;12. Compressibility Effects in FLuids;12.9.2;12.9.2. chapter 12 example 9 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2999;13. Varying Flow in Open Channels;13.1.1;13.1.1. chapter 13 example 1 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2999;13. Varying Flow in Open Channels;13.3.1;13.3.1. chapter 13 example 3 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2999;13. Varying Flow in Open Channels;13.4.1;13.4.1. chapter 13 example 4 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2999;13. Varying Flow in Open Channels;13.4.2;13.4.2. chapter 13 example 4 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2999;13. Varying Flow in Open Channels;13.5.1;13.5.1. chapter 13 example 5 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);2999;13. Varying Flow in Open Channels;13.6.1;13.6.1. chapter 13 example 6 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);3000;14. Hydro Kinetic machines;14.1.1;14.1.1. chapter 14 example 1 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);3000;14. Hydro Kinetic machines;14.1.2;14.1.2. chapter 14 example 1 2;error;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);3000;14. Hydro Kinetic machines;14.2.1;14.2.1. chapter 14 example 2 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);3000;14. Hydro Kinetic machines;14.2.2;14.2.2. chapter 14 example 2 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);3000;14. Hydro Kinetic machines;14.3.1;14.3.1. chapter 14 example 3 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);3000;14. Hydro Kinetic machines;14.3.2;14.3.2. chapter 14 example 3 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);3000;14. Hydro Kinetic machines;14.3.3;14.3.3. chapter 14 example 3 3;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);3000;14. Hydro Kinetic machines;14.3.4;14.3.4. chapter 14 example 3 4;error;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);3000;14. Hydro Kinetic machines;14.3.5;14.3.5. chapter 14 example 3 5;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);3000;14. Hydro Kinetic machines;14.4.1;14.4.1. chapter 14 example 4 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);3000;14. Hydro Kinetic machines;14.4.2;14.4.2. chapter 14 example 4 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);3000;14. Hydro Kinetic machines;14.4.4;14.4.4. chapter 14 example 4 4;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);3000;14. Hydro Kinetic machines;14.4.5;14.4.5. chapter 14 example 4 5;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);3000;14. Hydro Kinetic machines;14.5.1;14.5.1. chapter 14 example 5 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);3000;14. Hydro Kinetic machines;14.5.2;14.5.2. chapter 14 example 5 2;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);3000;14. Hydro Kinetic machines;14.7.1;14.7.1. chapter 14 example 7 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);3001;15. Positive displacement Machines;15.2.1;15.2.1. chapter 15 example 2 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);3001;15. Positive displacement Machines;15.3.1;15.3.1. chapter 15 example 3 1;correct;runtime; -1364;Mechanics Of Fluids(A. C. Walshaw And D. A. Jobson);3001;15. Positive displacement Machines;15.4.1;15.4.1. chapter 15 example 4 1;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2882;2. REVIEW OF ATOMIC CONCEPTS ATOMIC MODELS AND PERIODIC TABLE;2.1;2.1. Find average atomic weight of Hydrogen;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2882;2. REVIEW OF ATOMIC CONCEPTS ATOMIC MODELS AND PERIODIC TABLE;2.2;2.2. Find distance;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2882;2. REVIEW OF ATOMIC CONCEPTS ATOMIC MODELS AND PERIODIC TABLE;2.3;2.3. Find number of particles scattered at 75 and 135 degree;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2882;2. REVIEW OF ATOMIC CONCEPTS ATOMIC MODELS AND PERIODIC TABLE;2.4;2.4. Find radius of first orbit of electron in Hydrogen atom;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2882;2. REVIEW OF ATOMIC CONCEPTS ATOMIC MODELS AND PERIODIC TABLE;2.5;2.5. Find Ionisation Energy;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2882;2. REVIEW OF ATOMIC CONCEPTS ATOMIC MODELS AND PERIODIC TABLE;2.6;2.6. Find dimensions of elliptical locus;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2882;2. REVIEW OF ATOMIC CONCEPTS ATOMIC MODELS AND PERIODIC TABLE;2.7;2.7. Find Minimum Uncertainity in Position;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2892;3. CHEMICAL BONDING;3.4;3.4. Find Energy of third and fifth orbit;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2892;3. CHEMICAL BONDING;3.5;3.5. Find dipole moment and percentage ionic character;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2893;4. CRYSTALLOGRAPHY;4.3;4.3. Find Lattice constant and atomic packing fraction of NaCl having FCC structure;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2893;4. CRYSTALLOGRAPHY;4.4;4.4. Find density of Copper;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2893;4. CRYSTALLOGRAPHY;4.5;4.5. Find distance between two adjacent atoms;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2893;4. CRYSTALLOGRAPHY;4.6;4.6. Find atomic radius;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2894;5. MILLER INDICES AND X RAY CRYSTALLOGRAPH TECHNIQUES;5.1;5.1. Find MILLER INDICES OF THE PLANE;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2894;5. MILLER INDICES AND X RAY CRYSTALLOGRAPH TECHNIQUES;5.10;5.10. Find Dimension of unit cell;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2894;5. MILLER INDICES AND X RAY CRYSTALLOGRAPH TECHNIQUES;5.3;5.3. Find MILLER INDICES OF THE PLANE;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2894;5. MILLER INDICES AND X RAY CRYSTALLOGRAPH TECHNIQUES;5.5;5.5. Find interplanar Spacing;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2894;5. MILLER INDICES AND X RAY CRYSTALLOGRAPH TECHNIQUES;5.6;5.6. Find Linear Density per unit length;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2894;5. MILLER INDICES AND X RAY CRYSTALLOGRAPH TECHNIQUES;5.7;5.7. Find Planar Density;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2894;5. MILLER INDICES AND X RAY CRYSTALLOGRAPH TECHNIQUES;5.8;5.8. Find Glancing angle and Interplanar spacing of the crystal;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2894;5. MILLER INDICES AND X RAY CRYSTALLOGRAPH TECHNIQUES;5.9;5.9. Find Glancing angle and lattice parameter;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2895;6. IMPERFECTIONS DEFECTS AND DISLOCATIONS IN SOLIDS;6.1;6.1. Find No of Frenkel defect;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2895;6. IMPERFECTIONS DEFECTS AND DISLOCATIONS IN SOLIDS;6.2;6.2. Calculate Ratio of no of vacancies;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2895;6. IMPERFECTIONS DEFECTS AND DISLOCATIONS IN SOLIDS;6.4;6.4. Find Elastic Strain Energy;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2895;6. IMPERFECTIONS DEFECTS AND DISLOCATIONS IN SOLIDS;6.5;6.5. Calulate Total number of created vacancies;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2896;7. MECHANICAL PROPERTIES;7.3;7.3. Find various Modulous of elasticity;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2896;7. MECHANICAL PROPERTIES;7.5;7.5. Find stress;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2897;8. MECHANICAL TESTING;8.1;8.1. Find Flexural Strength Shear Strength and Modulous of Rupture;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2897;8. MECHANICAL TESTING;8.2;8.2. FIND BRINELL HARDNESS NUMBER;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2897;8. MECHANICAL TESTING;8.3;8.3. Find Rupture Energy Modulous Of Rupture and Notch Imapct Strength;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2897;8. MECHANICAL TESTING;8.4;8.4. Find Stress Ratio and range;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2897;8. MECHANICAL TESTING;8.5;8.5. Calculate ENDURANCE STRESS FROM using various relations;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2898;9. MICROSTRUCTURAL EXAMINATION AND NON DESTRUCTIVE TESTING;9.1;9.1. Find grain diameter;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2898;9. MICROSTRUCTURAL EXAMINATION AND NON DESTRUCTIVE TESTING;9.2;9.2. Find Average and Boundary area;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2899;10. PHASE DIAGRAM AND EQUILIBRIUM DIAGRAM;10.1;10.1. Prove Two component system cannot have more than 4 phases in an equilibrium;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2899;10. PHASE DIAGRAM AND EQUILIBRIUM DIAGRAM;10.2;10.2. Calculate Total weight of lead and tin;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2899;10. PHASE DIAGRAM AND EQUILIBRIUM DIAGRAM;10.4;10.4. Find weight fractions;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2899;10. PHASE DIAGRAM AND EQUILIBRIUM DIAGRAM;10.5;10.5. Find Maximum weight of tin;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2899;10. PHASE DIAGRAM AND EQUILIBRIUM DIAGRAM;10.6;10.6. Find Weight fraction of errite and Cementite;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2900;12. HEAT TREATMENT;12.1;12.1. calculate percentage change in volume;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2900;12. HEAT TREATMENT;12.3;12.3. Estimate free energy change during recrystallization;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2900;12. HEAT TREATMENT;12.5;12.5. Find contribution of particles;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2901;14. MAGNETIC PROPERTIES AND MATERIALS;14.1;14.1. Find relative permeability and Intensity of magnetisation;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2901;14. MAGNETIC PROPERTIES AND MATERIALS;14.13;14.13. Find Magnetic field strength and Flux density;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2901;14. MAGNETIC PROPERTIES AND MATERIALS;14.2;14.2. Estimate Hysteresis energy loss per unit volume;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2901;14. MAGNETIC PROPERTIES AND MATERIALS;14.3;14.3. Find Power loss due to Hysteresis;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2901;14. MAGNETIC PROPERTIES AND MATERIALS;14.4;14.4. Find Loss at 40 Hz;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2901;14. MAGNETIC PROPERTIES AND MATERIALS;14.5;14.5. Find Magnetic strength;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2901;14. MAGNETIC PROPERTIES AND MATERIALS;14.6;14.6. Estimate Saturation Magnetisation;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2901;14. MAGNETIC PROPERTIES AND MATERIALS;14.9;14.9. Find Eddy current loss at 60 and 100 Hz;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2902;15. ELECTRIC PROPERTIES;15.1;15.1. Find Electric field;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2902;15. ELECTRIC PROPERTIES;15.10;15.10. Find thickness of insulation;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2902;15. ELECTRIC PROPERTIES;15.16;15.16. Find Band gap energy;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2902;15. ELECTRIC PROPERTIES;15.2;15.2. Find Drift Velocity;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2902;15. ELECTRIC PROPERTIES;15.3;15.3. Find Specific Resistance;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2902;15. ELECTRIC PROPERTIES;15.4;15.4. Find Resistivity;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2902;15. ELECTRIC PROPERTIES;15.5;15.5. Calculate Intrinsic Carrier density;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2902;15. ELECTRIC PROPERTIES;15.6;15.6. Estimate Drift Velocity and time taken by electrons;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2902;15. ELECTRIC PROPERTIES;15.7;15.7. Find Impurity concentration;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2902;15. ELECTRIC PROPERTIES;15.8;15.8. Calculate Conduction electron and hole density;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2902;15. ELECTRIC PROPERTIES;15.9;15.9. Calculate Hole concentration;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2903;16. SUPERCONDUCTIVITY AND SUPERCONDUCTORS;16.1;16.1. find susceptibilty and relative permeability of a superconductor;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2903;16. SUPERCONDUCTIVITY AND SUPERCONDUCTORS;16.10;16.10. Determine transition temperature and critical field;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2903;16. SUPERCONDUCTIVITY AND SUPERCONDUCTORS;16.2;16.2. Determine critical field;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2903;16. SUPERCONDUCTIVITY AND SUPERCONDUCTORS;16.3;16.3. Find critical current;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2903;16. SUPERCONDUCTIVITY AND SUPERCONDUCTORS;16.4;16.4. Find electron and current density;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2903;16. SUPERCONDUCTIVITY AND SUPERCONDUCTORS;16.9;16.9. determine critical current density;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2904;17. CERAMICS AND PLASTICS;17.1;17.1. Calculate molecular weight;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2904;17. CERAMICS AND PLASTICS;17.2;17.2. Determine molecular weight of teflon;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2905;19. COMPOSITE MATERIALS;19.1;19.1. Find flexural rigidity of sandwich construction;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2905;19. COMPOSITE MATERIALS;19.2;19.2. Determine volume ratio of Al and B in aluminium boron composite;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2905;19. COMPOSITE MATERIALS;19.3;19.3. Calculate fraction of load carried by fibres;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2905;19. COMPOSITE MATERIALS;19.4;19.4. Find longitudinal strength longitudianl modulous transverse modulous Poisson ratio Shear modulous;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2906;20. PERFORMANCE OF MATERIALS IN SERVICE;20.1;20.1. Find fracture strength and ratio;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2906;20. PERFORMANCE OF MATERIALS IN SERVICE;20.2;20.2. Investigate an oxidation film will form over Nickel or not;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2906;20. PERFORMANCE OF MATERIALS IN SERVICE;20.3;20.3. Find how much loss will occur in 300 hours;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2906;20. PERFORMANCE OF MATERIALS IN SERVICE;20.4;20.4. Determine PBR ratio;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2906;20. PERFORMANCE OF MATERIALS IN SERVICE;20.5;20.5. Find quantity of magnesium needed;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2907;21. DIFFUSION IN SOLIDS;21.1;21.1. Find Concentration Gradient and diffusivity;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2907;21. DIFFUSION IN SOLIDS;21.2;21.2. Find Concentration Gradient and diffusivity and rate;correct;runtime; -1367;Material Science In Engineering(Dr. K. M. Gupta);2907;21. DIFFUSION IN SOLIDS;21.4;21.4. Calculate Activation Energy in Silver diffusion;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.1;1.1. obtain the waveform;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.10;1.10. find equivalent resistance;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.11;1.11. find equivalent resistance;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.12;1.12. find current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.13;1.13. find power;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.14;1.14. find current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.15;1.15. node voltage;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.16;1.16. instantaneous current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.17;1.17. find voltage;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.18;1.18. equivalent resistance;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.19;1.19. find current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.2;1.2. find equivalent resistance;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.20;1.20. calculate resistance;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.21;1.21. find current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.22;1.22. find voltage;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.23;1.23. find current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.24;1.24. find voltage drop;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.25;1.25. find inductive resistance;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.26;1.26. find resistance;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.27;1.27. find resistance;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.28;1.28. find resistance;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.29;1.29. find resistance;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.3;1.3. voltage across three resistances;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.30;1.30. find current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.31;1.31. obtain current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.32;1.32. calculate current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.4;1.4. magnitudes of total current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.5;1.5. find the values of currents;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.6;1.6. find i1 and i2;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.7;1.7. transform voltage source to current source;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.8;1.8. convert current source to voltage source;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3484;1. Electrical Circuits;1.9;1.9. convert delta to star;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.1;2.1. generated emf;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.10;2.10. induced emf and armature current and stray losses and lost torque;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.11;2.11. speed of motor;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.12;2.12. armature current and back emf;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.13;2.13. speed on full load;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.14;2.14. speed of motor on new load;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.15;2.15. terminal voltage;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.16;2.16. full load output and efficiency of motor;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.17;2.17. armature current and back emf and speed of motor;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.18;2.18. extra resistance to be added;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.19;2.19. efficiency of motor;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.2;2.2. generated emf and speed;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.20;2.20. lap and wave wound;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.21;2.21. emf generated;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.22;2.22. speed of generator;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.23;2.23. induced voltage;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.24;2.24. commutator bars;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.25;2.25. induced emf;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.26;2.26. total and useful torque and flux and rotational losses and efficiency;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.27;2.27. speed;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.28;2.28. torque;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.29;2.29. induced emf and electrical power output;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.3;2.3. induced emf of generator;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.30;2.30. generated voltage and armature current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.31;2.31. induced emf and speed;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.32;2.32. back emf and gross mechanical power;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.33;2.33. generated emf and copper and iron losses and efficiency;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.34;2.34. total armature power;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.35;2.35. leakage coefficient;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.36;2.36. no load terminal voltage and area of pole;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.4;2.4. armature resistance of generator;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.5;2.5. terminal voltage at load;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.6;2.6. generated voltage;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.7;2.7. induced emf in motor;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.8;2.8. back emf and speed of motor;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3485;2. DC Machines;2.9;2.9. gross torque;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.1;3.1. primary and secondary turns and area of core;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.10;3.10. efficiency and unity power factor;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.11;3.11. copper loss and full and half load efficiency and regulation;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.12;3.12. voltage and power factor;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.13;3.13. all day efficiency;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.14;3.14. copper loss and efficiency;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.15;3.15. iron and copper loss;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.16;3.16. regulation;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.17;3.17. efficiencies;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.18;3.18. load impedance and maximum flux;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.19;3.19. number of primary and secondary turns;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.2;3.2. peak value of flux in core and secondary voltage;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.20;3.20. maximum efficiency;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.21;3.21. area of core;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.22;3.22. efficiency;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.23;3.23. turns ratio and magnetizing and working component and iron loss;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.24;3.24. efficiency and load;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.25;3.25. flux density and transformation ratio and voltage induced and ;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.26;3.26. voltage regulation and efficiency;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.27;3.27. all day efficiency;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.3;3.3. iron loss and maximum value of flux in core;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.4;3.4. primary current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.5;3.5. equivalent resistance;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.6;3.6. total resistance and equivalent reactance and impedance;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.7;3.7. regulation and secondary terminal voltage;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.8;3.8. total copper loss and efficiency;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3486;3. Transformers;3.9;3.9. maximum efficiency;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.1;4.1. calculate distribution factor;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.10;4.10. calculate flux;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.11;4.11. find rms vlaue;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.12;4.12. find induced emf;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.13;4.13. find chording factor;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.14;4.14. find emf;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.15;4.15. find reactance;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.16;4.16. find impedence;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.17;4.17. find voltage regulation;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.18;4.18. find regulation;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.19;4.19. find regulation;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.2;4.2. calculate coil factor;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.20;4.20. find voltage;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.21;4.21. calculate regulation;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.3;4.3. find induced emf;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.4;4.4. find poles and flux;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.5;4.5. calculate emf;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.6;4.6. calculate lagging;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.7;4.7. calculate full load;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.8;4.8. find current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3487;4. Alternators;4.9;4.9. find armature conductors;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3491;5. Alternators;5.1;5.1. calculate full load slip;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3491;5. Alternators;5.10;5.10. find slip;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3491;5. Alternators;5.11;5.11. find shaft torque;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3491;5. Alternators;5.15;5.15. find starting torque;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3491;5. Alternators;5.18;5.18. find speed of motor;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3491;5. Alternators;5.19;5.19. find rotor input;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3491;5. Alternators;5.2;5.2. calculate full load speed;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3491;5. Alternators;5.22;5.22. find speeds;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3491;5. Alternators;5.23;5.23. find resistance;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3491;5. Alternators;5.3;5.3. frequency of induced emf;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3491;5. Alternators;5.4;5.4. find full load slip;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3491;5. Alternators;5.5;5.5. calculate frequency;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3491;5. Alternators;5.6;5.6. find rotor current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3491;5. Alternators;5.7;5.7. calculate torque developed;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3491;5. Alternators;5.8;5.8. find torque;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3491;5. Alternators;5.9;5.9. find ratio of torque;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3488;6. Instruments;6.1;6.1. deflection;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3488;6. Instruments;6.10;6.10. number of turns;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3488;6. Instruments;6.11;6.11. shunt resistance and full scale deflection;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3488;6. Instruments;6.2;6.2. theta;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3488;6. Instruments;6.3;6.3. shunt resistance;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3488;6. Instruments;6.4;6.4. current through shunt and resistance of motor;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3488;6. Instruments;6.5;6.5. multiplier resistance;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3488;6. Instruments;6.6;6.6. shunt required and multiplier required;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3488;6. Instruments;6.7;6.7. voltage induced;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3488;6. Instruments;6.8;6.8. resistance;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3488;6. Instruments;6.9;6.9. ammeter and voltmeter;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3490;7. Semiconductor Physics and Diode;7.1;7.1. forbidden gap;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3490;7. Semiconductor Physics and Diode;7.10;7.10. forward bias current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3490;7. Semiconductor Physics and Diode;7.11;7.11. reverse saturation current and eta for diode;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3490;7. Semiconductor Physics and Diode;7.12;7.12. reverse saturation current and forward current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3490;7. Semiconductor Physics and Diode;7.14;7.14. dc output voltage;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3490;7. Semiconductor Physics and Diode;7.15;7.15. dc voltage and load current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3490;7. Semiconductor Physics and Diode;7.17;7.17. power to load and regulation and efficiency and TUF of secondary;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3490;7. Semiconductor Physics and Diode;7.2;7.2. resistivity;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3490;7. Semiconductor Physics and Diode;7.20;7.20. ac input power;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3490;7. Semiconductor Physics and Diode;7.21;7.21. percentage eta;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3490;7. Semiconductor Physics and Diode;7.22;7.22. dc load current and load voltage and ripple voltage and PIV rating;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3490;7. Semiconductor Physics and Diode;7.23;7.23. load voltage and ripple voltage;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3490;7. Semiconductor Physics and Diode;7.25;7.25. dc output voltage;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3490;7. Semiconductor Physics and Diode;7.29;7.29. forward current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3490;7. Semiconductor Physics and Diode;7.3;7.3. current in the bar;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3490;7. Semiconductor Physics and Diode;7.30;7.30. temperature;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3490;7. Semiconductor Physics and Diode;7.31;7.31. conductivity of silicon;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3490;7. Semiconductor Physics and Diode;7.4;7.4. resistivity of intrinsic germanium;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3490;7. Semiconductor Physics and Diode;7.7;7.7. comparing two values;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3490;7. Semiconductor Physics and Diode;7.9;7.9. new diode current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3492;8. Transistors;8.1;8.1. base current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3492;8. Transistors;8.2;8.2. alpha dc and beta dc;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3492;8. Transistors;8.3;8.3. collector current;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3492;8. Transistors;8.4;8.4. alpha dc and beta dc;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3492;8. Transistors;8.7;8.7. alpha and beta and V0 and output power;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3492;8. Transistors;8.8;8.8. firing angle;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3492;8. Transistors;8.9;8.9. time for SCR remains off;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3493;9. Cathode Ray Oscilloscope;9.1;9.1. time for electon;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3493;9. Cathode Ray Oscilloscope;9.10;9.10. phase difference;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3493;9. Cathode Ray Oscilloscope;9.11;9.11. unknown frequency of vertical signal;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3493;9. Cathode Ray Oscilloscope;9.12;9.12. deflection sensitivity and angle of deflection and velocity of beam;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3493;9. Cathode Ray Oscilloscope;9.15;9.15. time for electron;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3493;9. Cathode Ray Oscilloscope;9.16;9.16. deflection sensitivity;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3493;9. Cathode Ray Oscilloscope;9.17;9.17. time taken by electron;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3493;9. Cathode Ray Oscilloscope;9.18;9.18. input voltage;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3493;9. Cathode Ray Oscilloscope;9.19;9.19. beam velocity and deflection sensitivity and deflection factor;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3493;9. Cathode Ray Oscilloscope;9.2;9.2. final velocity pf electron;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3493;9. Cathode Ray Oscilloscope;9.4;9.4. velocity and deflection and deflection sensitivity;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3493;9. Cathode Ray Oscilloscope;9.7;9.7. speed of electron and force on electron;correct;runtime; -1370;Electrical And Electronic Engineering(U. A. Bakshi And V. U. Bakshi);3493;9. Cathode Ray Oscilloscope;9.8;9.8. amplitude and rms value;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3065;1. Standards units and dimensions;1.17;1.17. Find the various parameters of measurement;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3065;1. Standards units and dimensions;1.18;1.18. Find the precision of the 8th reading;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3065;1. Standards units and dimensions;1.19;1.19. Find the value and limiting error of Resistance;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3065;1. Standards units and dimensions;1.20;1.20. Find the resistance and uncertainty in resistance;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3065;1. Standards units and dimensions;1.21;1.21. Find the least square line;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3065;1. Standards units and dimensions;1.22;1.22. Using the chi square test estimate the probability that the coin is unweighted;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3065;1. Standards units and dimensions;1.23;1.23. Find the assigned value and uncertainty associated with measurement;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3066;2. Calculation of capacitance and inductance;2.1;2.1. Calculate the self inductance of the coil;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3066;2. Calculation of capacitance and inductance;2.2;2.2. Calculate stored charge and potential gradient;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3066;2. Calculation of capacitance and inductance;2.3;2.3. Calculate the capacitance of the cable;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3067;3. Principles of electrical measurements and measuring instruments;3.1;3.1. Calculate deflection for spring controlled and gravity control instruments;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3067;3. Principles of electrical measurements and measuring instruments;3.10;3.10. Calculate the meter constant and power factor;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3067;3. Principles of electrical measurements and measuring instruments;3.11;3.11. Calculate the percentage error at full load;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3067;3. Principles of electrical measurements and measuring instruments;3.2;3.2. Calculate the shunt resistance;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3067;3. Principles of electrical measurements and measuring instruments;3.3;3.3. Calculate the value of total resistance;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3067;3. Principles of electrical measurements and measuring instruments;3.4;3.4. Calculate the current;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3067;3. Principles of electrical measurements and measuring instruments;3.5;3.5. Calculate the expected error and per cent error;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3067;3. Principles of electrical measurements and measuring instruments;3.6;3.6. Calculate the resistance and maximum possible error;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3067;3. Principles of electrical measurements and measuring instruments;3.7;3.7. Calculate the resistance and maximum possible error;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3067;3. Principles of electrical measurements and measuring instruments;3.8;3.8. Calculate current in the voltage coil;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3067;3. Principles of electrical measurements and measuring instruments;3.9;3.9. Calculate the correction required;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3069;4. Measurement of resistance;4.1;4.1. Calculate the Insulation resistance;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3069;4. Measurement of resistance;4.2;4.2. Calculate the Insulation resistance;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3069;4. Measurement of resistance;4.3;4.3. Calculate the Insulation resistance;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3069;4. Measurement of resistance;4.4;4.4. Calculate the value of X;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3069;4. Measurement of resistance;4.5;4.5. Calculate Resistance of the field coil;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3069;4. Measurement of resistance;4.6;4.6. Calculate Unknown resistance;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3069;4. Measurement of resistance;4.7;4.7. Calculate Resistance between positive earth and negative earth;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3069;4. Measurement of resistance;4.8;4.8. Calculate Unknown resistance X;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3070;5. Potentiometer;5.1;5.1. Calculate Distance PX;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3070;5. Potentiometer;5.2;5.2. Calculate Voltage of dry cell;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3070;5. Potentiometer;5.3;5.3. Calculate Length of PQ;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3070;5. Potentiometer;5.4;5.4. Calculate Length of wire and Ratio of resistances;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3070;5. Potentiometer;5.5;5.5. Calculate emf of the cell and Perentage error of the voltmeter;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3071;6. Location of the faults;6.1;6.1. Find the position of fault;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3071;6. Location of the faults;6.2;6.2. Find the position of fault;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3071;6. Location of the faults;6.3;6.3. Find the resistance of the armature and percentage error;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3071;6. Location of the faults;6.4;6.4. Find the position of fault;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3071;6. Location of the faults;6.5;6.5. Calculate the distance to the fault;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3081;7. Measurement of Capacitance and Inductance;7.1;7.1. Calculate the resistance and inductance of the coil;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3081;7. Measurement of Capacitance and Inductance;7.2;7.2. Calculate the parameters of the cable;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3081;7. Measurement of Capacitance and Inductance;7.3;7.3. Calculate the power factor and equivalent series resistance;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3081;7. Measurement of Capacitance and Inductance;7.4;7.4. Calculate the capacitance and resistance;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3081;7. Measurement of Capacitance and Inductance;7.5;7.5. Calculate the inductance and resistance of the impedance;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3081;7. Measurement of Capacitance and Inductance;7.6;7.6. Calculate the inductance and resistance;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3081;7. Measurement of Capacitance and Inductance;7.7;7.7. Calculate the inductance and resistance of the impedance;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3081;7. Measurement of Capacitance and Inductance;7.8;7.8. Calculate the capacitance and loss resistance of the capacitor;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3081;7. Measurement of Capacitance and Inductance;7.9;7.9. Calculate the resistance and inductance of the coil;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3082;8. Measurement of power;8.1;8.1. Calculate the parameters of the load;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3082;8. Measurement of power;8.2;8.2. Calculate the parameters of the load and circuit;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3083;9. Instrument Transformers;9.1;9.1. Calculate ratio error and phase angle;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3083;9. Instrument Transformers;9.2;9.2. Calculate secondary voltage and current;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3083;9. Instrument Transformers;9.3;9.3. Calculate secondary voltage and current in line;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3083;9. Instrument Transformers;9.4;9.4. Calculate the ratio error;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3083;9. Instrument Transformers;9.5;9.5. Calculate phase angle error at no load;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3083;9. Instrument Transformers;9.6;9.6. Calculate the ratio error;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3084;10. Magnetic Measurements;10.1;10.1. Calculate relative permeability;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3084;10. Magnetic Measurements;10.2;10.2. Calculate galvanometer constant;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3091;12. Basic Transducers;12.1;12.1. Calculate change in resistance;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3091;12. Basic Transducers;12.2;12.2. Calculate change in length;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3091;12. Basic Transducers;12.3;12.3. Calculate capacitance;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3091;12. Basic Transducers;12.4;12.4. Calculate the displacement;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3091;12. Basic Transducers;12.5;12.5. Calculate the acceleration in g and natural frequency;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3092;14. Cathode Ray Oscilloscope;14.1;14.1. Calculate the rms value of current;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3092;14. Cathode Ray Oscilloscope;14.2;14.2. Calculate the frequency of the voltage applied;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3092;14. Cathode Ray Oscilloscope;14.3;14.3. Calculate the time constant capacitance and maximum frequency;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3093;16. Polyphase systems;16.1;16.1. Calculate Line and phase current;error;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3093;16. Polyphase systems;16.10;16.10. Calculate the current in each line and value of each resistance;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3093;16. Polyphase systems;16.11;16.11. Calculate circuit constants of load per phase;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3093;16. Polyphase systems;16.12;16.12. Calculate the readings of watt meters;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3093;16. Polyphase systems;16.13;16.13. Calculate the value of power and power factor;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3093;16. Polyphase systems;16.14;16.14. Calculate the readings of watt meters;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3093;16. Polyphase systems;16.2;16.2. 2Calculate line current and total power;error;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3093;16. Polyphase systems;16.3;16.3. Calculate the resistance and inductive reactance of the load;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3093;16. Polyphase systems;16.4;16.4. Calculate phase voltage and total power;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3093;16. Polyphase systems;16.5;16.5. Calculate current in each generator and motor phase;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3093;16. Polyphase systems;16.6;16.6. Calculate the circuit parameters;error;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3093;16. Polyphase systems;16.7;16.7. Calculate the reduction in power;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3093;16. Polyphase systems;16.8;16.8. Calculate the circuit parameters;correct;runtime; -1376;Electrical Measurements And Measuring Instruments(N. V. Suryanarayana);3093;16. Polyphase systems;16.9;16.9. Calculate the circuit parameters;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3144;1. Pipe Flow of Liquids;1.1.1;1.1.1. laminar turnulent pipe flow and Reynolds number;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3144;1. Pipe Flow of Liquids;1.1.10;1.1.10. minimum pipe diameter to obtain a given fluid flow;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3144;1. Pipe Flow of Liquids;1.1.2;1.1.2. conditions in pipeline while liquid passes in steady motion through it ;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3144;1. Pipe Flow of Liquids;1.1.3;1.1.3. laminar flow and Hagen Poiseuille equation;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3144;1. Pipe Flow of Liquids;1.1.4;1.1.4. velocity distribution in fluid in laminar motion in pipe;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3144;1. Pipe Flow of Liquids;1.1.5;1.1.5. comparison of laminar and turbulent flow;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3144;1. Pipe Flow of Liquids;1.1.6;1.1.6. power required for pumping local pressure in pipeline and the effects on both of an increase in pipe roughness;error;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3144;1. Pipe Flow of Liquids;1.1.7;1.1.7. power required for pumping when pipe system contains resistances to flow;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3144;1. Pipe Flow of Liquids;1.1.8;1.1.8. fluid flow rate and use of friction and chart;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3144;1. Pipe Flow of Liquids;1.1.9;1.1.9. time taken to drain a tank;error;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3145;2. pipe flow of gasses and gas liquid mixtures;2.1.1;2.1.1. gas flow through pipe line when compressibility must be considered;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3145;2. pipe flow of gasses and gas liquid mixtures;2.1.2;2.1.2. flow of ideal gas at maximum velocity under isothermal and adiabatic condition;error;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3145;2. pipe flow of gasses and gas liquid mixtures;2.1.3;2.1.3. flow of a non ideal gas at maximum velocity under adiabatic condition;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3145;2. pipe flow of gasses and gas liquid mixtures;2.1.4;2.1.4. venting of gas from pressure vessel;error;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3145;2. pipe flow of gasses and gas liquid mixtures;2.1.5;2.1.5. gas flow measurement with veturimeter;error;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3145;2. pipe flow of gasses and gas liquid mixtures;2.1.6;2.1.6. pressure drop required for flow of a gas liquid mixture through pipe;error;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3146;3. velocity boundary layers;3.1.1;3.1.1. streamline flow over a flat plate;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3146;3. velocity boundary layers;3.1.2;3.1.2. turbulent flow over a plate;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3146;3. velocity boundary layers;3.1.3;3.1.3. streamline and turbulent flow through and equations of universal velocity profile;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3147;4. Flow Measurement;4.1.1;4.1.1. use of pitot tube to measure flow rate;error;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3147;4. Flow Measurement;4.1.2;4.1.2. use of pitot tube to measure flow of gas;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3147;4. Flow Measurement;4.1.3;4.1.3. use of orifice and manometer to measure flow;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3147;4. Flow Measurement;4.1.4;4.1.4. determination of orifice size for flow measurement and pressure drop produced by orifice and venturi meters;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3147;4. Flow Measurement;4.1.5;4.1.5. use of rotatometer for flow measurement;error;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3147;4. Flow Measurement;4.1.6;4.1.6. mass of float required to measure fluid rate in rotatometer;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3148;5. Flow measurement in open channel;5.1.1;5.1.1. use of manning and chezy formulae;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3148;5. Flow measurement in open channel;5.1.10;5.1.10. gradually varied flow behind a weir;error;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3148;5. Flow measurement in open channel;5.1.11;5.1.11. analysis of hydraulic jump;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3148;5. Flow measurement in open channel;5.1.2;5.1.2. stream depth in trapezoid channel;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3148;5. Flow measurement in open channel;5.1.3;5.1.3. optimum base angle of a Vshaped channel Slope of a channel;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3148;5. Flow measurement in open channel;5.1.4;5.1.4. stream depth and maximum velocity and flow rate in a pipe;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3148;5. Flow measurement in open channel;5.1.5;5.1.5. flow measurement with sharp crested weir;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3148;5. Flow measurement in open channel;5.1.6;5.1.6. equation of specific energy and analysis of tranquil and shooting flow;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3148;5. Flow measurement in open channel;5.1.7;5.1.7. alternate depth of stream gradient of mild and steep slope;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3148;5. Flow measurement in open channel;5.1.8;5.1.8. critical flw condition;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3148;5. Flow measurement in open channel;5.1.9;5.1.9. flow measurement with broad crested weir;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3149;6. pumping of liquids;6.1.1;6.1.1. cavitation and its avoidance in suction pipes;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3149;6. pumping of liquids;6.1.2;6.1.2. specific speed of a centrifugal pump;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3149;6. pumping of liquids;6.1.3;6.1.3. theoritical and effective characteristic of centrifugal pump flow rate;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3149;6. pumping of liquids;6.1.4;6.1.4. flow rate when cetrifugal pumps operate singly and in parallel;error;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3149;6. pumping of liquids;6.1.5;6.1.5. pumping with a reciprocating pump;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3149;6. pumping of liquids;6.1.6;6.1.6. pumping with a air lift pump;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3150;7. Flow Through Packed Beds;7.1.1;7.1.1. determination of particle size and specific surface area for a sample of powder;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3150;7. Flow Through Packed Beds;7.1.2;7.1.2. rate of flow through packed bed;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3150;7. Flow Through Packed Beds;7.1.3;7.1.3. determination of pressure drop to drive fluid through a packed bed of raschig rings then of similar size spheres and the determination of total area of surface presented with two types of packing;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3151;8. Filtration;8.1.1;8.1.1. constant rate of filtration in a plate and frame filter process;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3151;8. Filtration;8.1.2;8.1.2. Constant rate and pressure drop filteration;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3151;8. Filtration;8.1.3;8.1.3. determination of characteristic of filtration system ;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3151;8. Filtration;8.1.4;8.1.4. constant pressure drop filtration of suspension which gives rise to a compressible filter cake ;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3151;8. Filtration;8.1.5;8.1.5. filtration on a rotatory drum filter;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3151;8. Filtration;8.1.6;8.1.6. filtration of centrifugal filter;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3152;9. Forces on bodies Immersed in fluids;9.1.1;9.1.1. drag forces and coefficient;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3152;9. Forces on bodies Immersed in fluids;9.1.2;9.1.2. lift force and lift coefficient;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3152;9. Forces on bodies Immersed in fluids;9.1.3;9.1.3. Particle diameter and terminal settling velocity;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3152;9. Forces on bodies Immersed in fluids;9.1.4;9.1.4. terminal settling velocity of sphere;error;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3152;9. Forces on bodies Immersed in fluids;9.1.5;9.1.5. effect of shape on drag force;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3152;9. Forces on bodies Immersed in fluids;9.1.6;9.1.6. estimation of hindered settling velocity;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3152;9. Forces on bodies Immersed in fluids;9.1.7;9.1.7. acceleration of settling particle in gravitational feild;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3153;10. Sedimentation and Clssification;10.1.1;10.1.1. determination of settling velocity from a single batch sedimentation;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3153;10. Sedimentation and Clssification;10.1.2;10.1.2. Minimum area required for a continuous thickener;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3153;10. Sedimentation and Clssification;10.1.3;10.1.3. classification of materials on basis of settling velocities;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3153;10. Sedimentation and Clssification;10.1.4;10.1.4. density variation of settling suspension;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3153;10. Sedimentation and Clssification;10.1.5;10.1.5. determination of particle size distribution using a sedimentation method;error;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3153;10. Sedimentation and Clssification;10.1.6;10.1.6. determination of particle size distribution of a suspended solid;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3153;10. Sedimentation and Clssification;10.1.7;10.1.7. decanting of homogeneous suspension to obtain particle size of a given size range ;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3154;11. Fluidisation;11.1.1;11.1.1. particulate and aggregative fluidisation;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3154;11. Fluidisation;11.1.2;11.1.2. calculation of minimum flow rates;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3154;11. Fluidisation;11.1.3;11.1.3. calculation of flow rates in fluidised beds;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3154;11. Fluidisation;11.1.4;11.1.4. estimation of vessel diameters and height for fluidisation operations;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3154;11. Fluidisation;11.1.5;11.1.5. power required for pumping in fluidised beds;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3154;11. Fluidisation;11.1.6;11.1.6. wall effect in fluidised beds ;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3154;11. Fluidisation;11.1.7;11.1.7. effect of particle size on the ratio of terminal velocity;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3156;12. Pneumatic Conveying;12.1.1;12.1.1. flow pattern in pneumatic conveying;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3156;12. Pneumatic Conveying;12.1.2;12.1.2. prediction of choking velocity and choking choking voidage in a vertical transport line;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3156;12. Pneumatic Conveying;12.1.3;12.1.3. prediction of pressure drop in horizontal pneumatic transport;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3156;12. Pneumatic Conveying;12.1.4;12.1.4. prediction of pressure drop in vertical pneumatic transport;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3156;12. Pneumatic Conveying;12.1.5;12.1.5. density phase flow regime for pneumatic transport;error;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3155;13. Centrifugal Separation Operations;13.1.1;13.1.1. Equations of centrifugal operations;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3155;13. Centrifugal Separation Operations;13.1.2;13.1.2. fluid pressure in tubular bowl centrifuge;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3155;13. Centrifugal Separation Operations;13.1.3;13.1.3. particle size determination of fine particles;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3155;13. Centrifugal Separation Operations;13.1.4;13.1.4. flow rates in continuous centrifugal sedimentation;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3155;13. Centrifugal Separation Operations;13.1.5;13.1.5. separation of two immiscible liquid by centrifugation;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3155;13. Centrifugal Separation Operations;13.1.6;13.1.6. Cyclone Separators;correct;runtime; -1379;Problems In Fluid Flow(D. J. Brasch And D. Whyman);3155;13. Centrifugal Separation Operations;13.1.7;13.1.7. efficiency of cyclone separators;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3032;2. Gases;2.1;2.1. chapter 2 example 1;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3032;2. Gases;2.10;2.10. chapter 2 example 10;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3032;2. Gases;2.2;2.2. chapter 2 example 2;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3032;2. Gases;2.3;2.3. chapter 2 example 3;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3032;2. Gases;2.4;2.4. chapter 2 example 4;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3032;2. Gases;2.5;2.5. chapter 2 example 5;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3032;2. Gases;2.6;2.6. chapter 2 example 6;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3032;2. Gases;2.7;2.7. chapter 2 example 7;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3032;2. Gases;2.8;2.8. chapter 2 example 8;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3032;2. Gases;2.9;2.9. chapter 2 example 9;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3033;3. Liquids;3.1;3.1. chapter 3 example 1;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3033;3. Liquids;3.2;3.2. chapter 3 example 2;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3033;3. Liquids;3.3;3.3. chapter 3 example 3;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3033;3. Liquids;3.4;3.4. chapter 3 example 4;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3034;4. Solutions Nonelectrolytes;4.1;4.1. chapter 4 example 1;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3034;4. Solutions Nonelectrolytes;4.2;4.2. chapter 4 example 2;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3034;4. Solutions Nonelectrolytes;4.3;4.3. chapter 4 example 3;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3034;4. Solutions Nonelectrolytes;4.4;4.4. Chapter 4 example 4;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3034;4. Solutions Nonelectrolytes;4.5;4.5. chapter 4 example 5;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3034;4. Solutions Nonelectrolytes;4.6;4.6. chapter 4 example 6;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3035;5. Solutions Osmotic Pressure;5.1;5.1. chapter 5 example 1;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3035;5. Solutions Osmotic Pressure;5.2;5.2. chapter 5 example 2;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3036;6. Solutions Solutions of Electrolytes;6.1;6.1. chapter 6 example 1;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3036;6. Solutions Solutions of Electrolytes;6.2;6.2. chapter 6 example 2;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3037;7. Conductivity;7.1;7.1. chapter 7 example 1;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3037;7. Conductivity;7.2;7.2. chapter 7 example 2;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3037;7. Conductivity;7.3;7.3. chapter 7 example 3;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3037;7. Conductivity;7.4;7.4. chapter 7 example 4;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3037;7. Conductivity;7.5;7.5. chapter 7 example 5;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3038;8. Chemical Equlibrium;8.1;8.1. chapter 8 example 1;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3038;8. Chemical Equlibrium;8.2;8.2. chapter 8 example 2;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3038;8. Chemical Equlibrium;8.3;8.3. chapter 8 example 3;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3038;8. Chemical Equlibrium;8.4;8.4. chapter 8 example 4;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3038;8. Chemical Equlibrium;8.5;8.5. chapter 8 example 5;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3039;9. Ionic Equilibria and Buffer Action;9.1;9.1. chapter 9 example 1;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3039;9. Ionic Equilibria and Buffer Action;9.10;9.10. chapter 9 example 10;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3039;9. Ionic Equilibria and Buffer Action;9.11;9.11. chapter 9 example 11;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3039;9. Ionic Equilibria and Buffer Action;9.12;9.12. chapter 9 example 12;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3039;9. Ionic Equilibria and Buffer Action;9.13;9.13. chapter 9 example 13;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3039;9. Ionic Equilibria and Buffer Action;9.14;9.14. chapter 9 example 14;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3039;9. Ionic Equilibria and Buffer Action;9.15;9.15. chapter 9 example 15;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3039;9. Ionic Equilibria and Buffer Action;9.16;9.16. chapter 9 example 16;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3039;9. Ionic Equilibria and Buffer Action;9.17;9.17. chapter 9 example 17;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3039;9. Ionic Equilibria and Buffer Action;9.18;9.18. chapter 9 example 18;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3039;9. Ionic Equilibria and Buffer Action;9.19;9.19. chapter 9 example 19;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3039;9. Ionic Equilibria and Buffer Action;9.2;9.2. chapter 9 example 2;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3039;9. Ionic Equilibria and Buffer Action;9.3;9.3. chapter 9 example 3;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3039;9. Ionic Equilibria and Buffer Action;9.4;9.4. chapter 9 example 4;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3039;9. Ionic Equilibria and Buffer Action;9.5;9.5. chapter 9 example 5;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3039;9. Ionic Equilibria and Buffer Action;9.6;9.6. chapter 9 example 6;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3039;9. Ionic Equilibria and Buffer Action;9.7;9.7. chapter 9 example 7;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3039;9. Ionic Equilibria and Buffer Action;9.8;9.8. chapter 9 example 8;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3039;9. Ionic Equilibria and Buffer Action;9.9;9.9. chapter 9 example 9;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3040;10. Electmotive Force;10.1;10.1. chapter 10 example 1;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3040;10. Electmotive Force;10.2;10.2. chapter 10 example 2;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3040;10. Electmotive Force;10.3;10.3. chapter 10 example 3;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3040;10. Electmotive Force;10.4;10.4. chapter 10 example 4;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3040;10. Electmotive Force;10.5;10.5. chapter 10 example 5;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3040;10. Electmotive Force;10.6;10.6. chapter 10 example 6;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3040;10. Electmotive Force;10.7;10.7. chapter 10 example 7;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3040;10. Electmotive Force;10.8;10.8. chapter 10 example 8;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3041;11. Thermodynamics Some Basic Concepts;11.1;11.1. chapter 11 example 1;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3041;11. Thermodynamics Some Basic Concepts;11.2;11.2. chapter 11 example 2;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3041;11. Thermodynamics Some Basic Concepts;11.3;11.3. chapter 11 example 3;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3041;11. Thermodynamics Some Basic Concepts;11.4;11.4. chapter 11 example 4;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3042;12. Thermodynamics Thermodynamic chemistry;12.1;12.1. chapter 12 example 1;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3042;12. Thermodynamics Thermodynamic chemistry;12.2;12.2. chapter 12 example 2;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3042;12. Thermodynamics Thermodynamic chemistry;12.3;12.3. chapter 12 example 3;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3042;12. Thermodynamics Thermodynamic chemistry;12.4;12.4. chapter 12 example 4;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3042;12. Thermodynamics Thermodynamic chemistry;12.5;12.5. chapter 12 example 5;error;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3042;12. Thermodynamics Thermodynamic chemistry;12.6;12.6. chapter 12 example 6;error;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3043;13. Thermodynamics Entropy and Free Energy;13.1;13.1. chapter 13 example 1;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3043;13. Thermodynamics Entropy and Free Energy;13.10;13.10. chapter 13 example 10;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3043;13. Thermodynamics Entropy and Free Energy;13.11;13.11. chapter 13 example 11;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3043;13. Thermodynamics Entropy and Free Energy;13.12;13.12. chapter 13 example 12;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3043;13. Thermodynamics Entropy and Free Energy;13.13;13.13. chapter 13 example 13;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3043;13. Thermodynamics Entropy and Free Energy;13.14;13.14. chapter 13 example 14;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3043;13. Thermodynamics Entropy and Free Energy;13.15;13.15. chapter 13 example 15;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3043;13. Thermodynamics Entropy and Free Energy;13.2;13.2. chapter 13 example 2;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3043;13. Thermodynamics Entropy and Free Energy;13.3;13.3. chapter 13 example 3;error;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3043;13. Thermodynamics Entropy and Free Energy;13.4;13.4. chapter 13 example 4;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3043;13. Thermodynamics Entropy and Free Energy;13.5;13.5. chapter 13 example 5;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3043;13. Thermodynamics Entropy and Free Energy;13.6;13.6. chapter 13 example 6;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3043;13. Thermodynamics Entropy and Free Energy;13.7;13.7. chapter 13 example 7;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3043;13. Thermodynamics Entropy and Free Energy;13.8;13.8. chapter 13 example 8;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3043;13. Thermodynamics Entropy and Free Energy;13.9;13.9. chapter 13 example 9;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3044;14. Determination of hydronium ion Concentrations;14.1;14.1. chapter 14 example 1;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3044;14. Determination of hydronium ion Concentrations;14.2;14.2. chapter 14 example 2;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3044;14. Determination of hydronium ion Concentrations;14.3;14.3. chapter 14 example 3;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3044;14. Determination of hydronium ion Concentrations;14.4;14.4. chapter 14 example 4;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3044;14. Determination of hydronium ion Concentrations;14.5;14.5. chapter 14 example 5;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3045;16. Oxidation Reduction potentials;16.1;16.1. chapter 16 example 1;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3045;16. Oxidation Reduction potentials;16.2;16.2. chapter 16 example 2;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3045;16. Oxidation Reduction potentials;16.3;16.3. chapter 16 example 3;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3046;17. Speed of Reaction Catalysis;17.1;17.1. chapter 17 example 1;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3046;17. Speed of Reaction Catalysis;17.3;17.3. chapter 17 example 3;correct;runtime; -1385;Fundamentals Of Physical Chemistry(H. D. Crockford, J. W. Nowell, H. W. Baird And F. W. Getzen);3047;20. Radiochemistry;20.1;20.1. chapter 20 example 1;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3049;1. KINETIC THEORY OF GASES AND EQUATIONS OF STATE;1.1;1.1. chapter 1 example 1;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3049;1. KINETIC THEORY OF GASES AND EQUATIONS OF STATE;1.10;1.10. chapter 1 example 10;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3049;1. KINETIC THEORY OF GASES AND EQUATIONS OF STATE;1.12;1.12. chapter 1 example 12;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3049;1. KINETIC THEORY OF GASES AND EQUATIONS OF STATE;1.13;1.13. chapter 1 example 13;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3049;1. KINETIC THEORY OF GASES AND EQUATIONS OF STATE;1.14;1.14. chapter 1 example 14;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3049;1. KINETIC THEORY OF GASES AND EQUATIONS OF STATE;1.2;1.2. chapter 1 example 2;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3049;1. KINETIC THEORY OF GASES AND EQUATIONS OF STATE;1.3;1.3. chapter 1 example 3;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3049;1. KINETIC THEORY OF GASES AND EQUATIONS OF STATE;1.4;1.4. chapter 1 example 4;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3049;1. KINETIC THEORY OF GASES AND EQUATIONS OF STATE;1.5;1.5. chapter 1 example 5;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3049;1. KINETIC THEORY OF GASES AND EQUATIONS OF STATE;1.6;1.6. chapter 1 example 6;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3049;1. KINETIC THEORY OF GASES AND EQUATIONS OF STATE;1.7;1.7. chapter 1 example 7;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3049;1. KINETIC THEORY OF GASES AND EQUATIONS OF STATE;1.9;1.9. chapter 1 example 9;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3050;2. STRUCTURES OF CONDENSED PHASES;2.1;2.1. chapter 2 example 1;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3050;2. STRUCTURES OF CONDENSED PHASES;2.10;2.10. chapter 2 example 10;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3050;2. STRUCTURES OF CONDENSED PHASES;2.11;2.11. chapter 2 example 11;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3050;2. STRUCTURES OF CONDENSED PHASES;2.2;2.2. chapter 2 example 2;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3050;2. STRUCTURES OF CONDENSED PHASES;2.3;2.3. chapter 2 example 3;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3050;2. STRUCTURES OF CONDENSED PHASES;2.4;2.4. chapter 2 example 4;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3050;2. STRUCTURES OF CONDENSED PHASES;2.5;2.5. chapter 2 example 5;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3050;2. STRUCTURES OF CONDENSED PHASES;2.6;2.6. chapter 2 example 6;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3050;2. STRUCTURES OF CONDENSED PHASES;2.7;2.7. chapter 2 example 7;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3050;2. STRUCTURES OF CONDENSED PHASES;2.8;2.8. chapter 2 example 8;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3050;2. STRUCTURES OF CONDENSED PHASES;2.9;2.9. chapter 2 example 9;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3051;3. FIRST LAW OF THERMODYNAMICS;3.10;3.10. chapter 3 example 10;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3051;3. FIRST LAW OF THERMODYNAMICS;3.11;3.11. chapter 3 example 11;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3051;3. FIRST LAW OF THERMODYNAMICS;3.12;3.12. chapter 3 example 12;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3051;3. FIRST LAW OF THERMODYNAMICS;3.13;3.13. chapter 3 example 13;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3051;3. FIRST LAW OF THERMODYNAMICS;3.14;3.14. chapter 3 example 14;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3051;3. FIRST LAW OF THERMODYNAMICS;3.15;3.15. chapter 3 example 15;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3051;3. FIRST LAW OF THERMODYNAMICS;3.16;3.16. chapter 3 example 16;error;runtime; -1388;Physical Chemistry(W. F. Sheehan);3051;3. FIRST LAW OF THERMODYNAMICS;3.17;3.17. chapter 3 example 17;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3051;3. FIRST LAW OF THERMODYNAMICS;3.18;3.18. chapter 3 example 18;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3051;3. FIRST LAW OF THERMODYNAMICS;3.19;3.19. chapter 3 example 19;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3051;3. FIRST LAW OF THERMODYNAMICS;3.2;3.2. chapter 3 example 2;error;runtime; -1388;Physical Chemistry(W. F. Sheehan);3051;3. FIRST LAW OF THERMODYNAMICS;3.20;3.20. chapter 3 example 20;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3051;3. FIRST LAW OF THERMODYNAMICS;3.22;3.22. chapter 3 example 22;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3051;3. FIRST LAW OF THERMODYNAMICS;3.3;3.3. chapter 3 example 3;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3051;3. FIRST LAW OF THERMODYNAMICS;3.4;3.4. chapter 3 example 4;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3051;3. FIRST LAW OF THERMODYNAMICS;3.6;3.6. chapter 3 example 6;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3051;3. FIRST LAW OF THERMODYNAMICS;3.7;3.7. chapter 3 example 7;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3051;3. FIRST LAW OF THERMODYNAMICS;3.8;3.8. chapter 3 example 8;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3051;3. FIRST LAW OF THERMODYNAMICS;3.9;3.9. chapter 3 example 9;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.1;4.1. chapter 4 example 1;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.10;4.10. chapter 4 example 10;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.12;4.12. chapter 4 example 12;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.14;4.14. chapter 4 example 14;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.15;4.15. chapter 4 example 15;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.16;4.16. chapter 4 example 16;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.18;4.18. chapter 4 example 18;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.19;4.19. chapter 4 example 19;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.2;4.2. chapter 4 example 2;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.20;4.20. chapter 4 example 20;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.22;4.22. chapter 4 example 22;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.24;4.24. chapter 4 example 24;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.25;4.25. chapter 4 example 25;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.26;4.26. chapter 4 example 26;error;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.27;4.27. chapter 4 example 27;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.28;4.28. chapter 4 example 28;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.29;4.29. chapter 4 example 29;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.3;4.3. chapter 4 example 3;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.30;4.30. chapter 4 example 30;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.30;4.30. chapter 4 example 30;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.4;4.4. chapter 4 example 4;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.5;4.5. chapter 4 example 5;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.8;4.8. chapter 4 example 8;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3052;4. SECOND LAW OF THERMODYNAMICS;4.9;4.9. chapter 4 example 9;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3053;5. THE PHASE RULE AND SOLUTIONS;5.1;5.1. chapter 5 example 1;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3053;5. THE PHASE RULE AND SOLUTIONS;5.11;5.11. chapter 5 example 11;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3053;5. THE PHASE RULE AND SOLUTIONS;5.12;5.12. chapter 5 example 12;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3053;5. THE PHASE RULE AND SOLUTIONS;5.13;5.13. chapter 5 example 13;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3053;5. THE PHASE RULE AND SOLUTIONS;5.14;5.14. chapter 5 example 14;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3053;5. THE PHASE RULE AND SOLUTIONS;5.16;5.16. chapter 5 example 16;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3053;5. THE PHASE RULE AND SOLUTIONS;5.17;5.17. chapter 5 example 17;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3053;5. THE PHASE RULE AND SOLUTIONS;5.18;5.18. chapter 5 example 18;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3053;5. THE PHASE RULE AND SOLUTIONS;5.19;5.19. chapter 5 example 19;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3053;5. THE PHASE RULE AND SOLUTIONS;5.2;5.2. chapter 5 example 2;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3053;5. THE PHASE RULE AND SOLUTIONS;5.20;5.20. chapter 5 example 20;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3053;5. THE PHASE RULE AND SOLUTIONS;5.21;5.21. chapter 5 example 21;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3053;5. THE PHASE RULE AND SOLUTIONS;5.22;5.22. chapter 5 example 22;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3053;5. THE PHASE RULE AND SOLUTIONS;5.3;5.3. chapter 5 example 3;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3053;5. THE PHASE RULE AND SOLUTIONS;5.4;5.4. chapter 5 example 4;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3053;5. THE PHASE RULE AND SOLUTIONS;5.5;5.5. chapter 5 example 5;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3053;5. THE PHASE RULE AND SOLUTIONS;5.7;5.7. chapter 5 example 7;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3053;5. THE PHASE RULE AND SOLUTIONS;5.8;5.8. chapter 5 example 8;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3053;5. THE PHASE RULE AND SOLUTIONS;5.9;5.9. chapter 5 example 9;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3054;6. CHEMICAL EQUILIBRIUM;3.12;3.12. chapter 6 example 12;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3054;6. CHEMICAL EQUILIBRIUM;6.1;6.1. chapter 6 example 1;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3054;6. CHEMICAL EQUILIBRIUM;6.10;6.10. chapter 6 example 10;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3054;6. CHEMICAL EQUILIBRIUM;6.11;6.11. chapter 6 example 11;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3054;6. CHEMICAL EQUILIBRIUM;6.13;6.13. chapter 6 example 13;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3054;6. CHEMICAL EQUILIBRIUM;6.15;6.15. chapter 6 example 15;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3054;6. CHEMICAL EQUILIBRIUM;6.16;6.16. chapter 6 example 16;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3054;6. CHEMICAL EQUILIBRIUM;6.17;6.17. chapter 6 example 17;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3054;6. CHEMICAL EQUILIBRIUM;6.18;6.18. chapter 6 example 18;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3054;6. CHEMICAL EQUILIBRIUM;6.19;6.19. chapter 6 example 19;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3054;6. CHEMICAL EQUILIBRIUM;6.2;6.2. chapter 6 example 2;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3054;6. CHEMICAL EQUILIBRIUM;6.3;6.3. chapter 6 example 3;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3054;6. CHEMICAL EQUILIBRIUM;6.4;6.4. chapter 6 example 4;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3054;6. CHEMICAL EQUILIBRIUM;6.5;6.5. chapter 6 example 5;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3054;6. CHEMICAL EQUILIBRIUM;6.7;6.7. chapter 6 example 7;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3054;6. CHEMICAL EQUILIBRIUM;6.8;6.8. chapter 6 example 8;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3054;6. CHEMICAL EQUILIBRIUM;6.9;6.9. chapter 6 example 9;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.1;7.1. chapter 7 example 1;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.11;7.11. chapter 7 example 11;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.13;7.13. chapter 7 example 13;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.14;7.14. chapter 7 example 14;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.15;7.15. chapter 7 example 15;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.16;7.16. chapter 7 example 16;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.17;7.17. chapter 7 example 18;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.19;7.19. chapter 7 example 19;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.2;7.2. chapter 7 example 2;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.20;7.20. chapter 7 example 20;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.21;7.21. chapter 7 example 21;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.22;7.22. chapter 7 example 22;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.23;7.23. chapter 7 example 23;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.25;7.25. chapter 7 example 25;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.26;7.26. chapter 7 example 26;error;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.27;7.27. chapter 7 example 27;error;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.28;7.28. chapter 7 example 28;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.29;7.29. chapter 7 example 29;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.3;7.3. chapter 7 example 3;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.30;7.30. chapter 7 example 30;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.5;7.5. chapter 7 example 5;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.6;7.6. chapter 7 example 6;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.7;7.7. chapter 7 example 7;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.8;7.8. chapter 7 example 8;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3055;7. ELECTROCHEMISRTY;7.9;7.9. chapter 7 example 9;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3056;8. QUANTUM CHEMISTRY;8.1;8.1. chapter 8 example 1;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3056;8. QUANTUM CHEMISTRY;8.10;8.10. chapter 8 example 10;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3056;8. QUANTUM CHEMISTRY;8.11;8.11. chapter 8 example 11;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3056;8. QUANTUM CHEMISTRY;8.12;8.12. chapter 8 example 12;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3056;8. QUANTUM CHEMISTRY;8.2;8.2. chapter 8 example 2;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3056;8. QUANTUM CHEMISTRY;8.3;8.3. chapter 8 example 3;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3056;8. QUANTUM CHEMISTRY;8.4;8.4. chapter 8 example 4;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3056;8. QUANTUM CHEMISTRY;8.5;8.5. chapter 8 example 5;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3056;8. QUANTUM CHEMISTRY;8.7;8.7. chapter 8 example 7;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3056;8. QUANTUM CHEMISTRY;8.8;8.8. chapter 8 example 8;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3056;8. QUANTUM CHEMISTRY;8.9;8.9. chapter 8 example 9;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3057;9. STATICAL MECHANICS;9.2;9.2. chapter 9 example 2;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3057;9. STATICAL MECHANICS;9.3;9.3. chapter 9 example 3;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3058;10. CHEMICAL KINETICS;10.1;10.1. chapter 10 example 1;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3058;10. CHEMICAL KINETICS;10.10;10.10. chapter 10 example 10;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3058;10. CHEMICAL KINETICS;10.11;10.11. chapter 10 example 11;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3058;10. CHEMICAL KINETICS;10.13;10.13. chapter 10 example 13;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3058;10. CHEMICAL KINETICS;10.14;10.14. chapter 10 example 14;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3058;10. CHEMICAL KINETICS;10.15;10.15. chapter 10 example 15;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3058;10. CHEMICAL KINETICS;10.16;10.16. chapter 10 example 16;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3058;10. CHEMICAL KINETICS;10.18;10.18. chapter 10 example 18;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3058;10. CHEMICAL KINETICS;10.2;10.2. chapter 10 example 2;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3058;10. CHEMICAL KINETICS;10.3;10.3. chapter 10 example 3;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3058;10. CHEMICAL KINETICS;10.4;10.4. chapter 10 example 4;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3058;10. CHEMICAL KINETICS;10.5;10.5. chapter 10 example 5;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3058;10. CHEMICAL KINETICS;10.6;10.6. chapter 10 example 6;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3058;10. CHEMICAL KINETICS;10.7;10.7. chapter 10 example 7;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3058;10. CHEMICAL KINETICS;10.8;10.8. chapter 10 example 8;correct;runtime; -1388;Physical Chemistry(W. F. Sheehan);3058;10. CHEMICAL KINETICS;10.9;10.9. chapter 10 example 9;correct;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.1;1.1. To calculate intensity ratio of bright and dark fringes;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.10;1.10. To determine the refractive index of the transparent sheet in Newtons ring experiment;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.11;1.11. To determine the thickness of the glass plate;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.12;1.12. To determine the thickness of the glass plate;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.13;1.13. To calculate the thickness of the glass plate;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.14;1.14. To determine the refractive index of liquid in Newtons ring;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.15;1.15. To determine the thickness of the thinnest film;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.16;1.16. To determine the radius of curvature of plano convex lens;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.17;1.17. To determine the refractive index of the liquid;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.18;1.18. To determine the diameter of a ring in Newtons rings experiment;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.19;1.19. To determine the radius of curvature of convex lens;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.2;1.2. To determine the order that will be visible at a point;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.20;1.20. To determine the wavelength of the light used;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.21;1.21. To determine the slit width;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.22;1.22. To determine the wavelength of light;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.23;1.23. To determine the wavelength of spectral line;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.24;1.24. To determine the angular seperation;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.25;1.25. To determine the visible number of orders;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.26;1.26. To determine the slit width;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.27;1.27. To calculate the possible order of spectra;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.28;1.28. To determine the wavelength of light in Fraulhofer double slit diffraction;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.3;1.3. To determine the slit seperation in Youngs double slit experiment;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.4;1.4. To determine the thickness of the mica sheet;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.5;1.5. To determine the fringe width;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.6;1.6. To determine the wavelength of source of light;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.7;1.7. To calculate the wavelength of monochromatic light;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.8;1.8. To determine the fringe width;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3095;1. Optics;1.9;1.9. To determine the thickness of a soap film;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3140;2. Ultrasonics;2.1;2.1. To determine the fundamental frequency of crystal;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3140;2. Ultrasonics;2.2;2.2. To determine the frequency of the fundamental note;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3140;2. Ultrasonics;2.3;2.3. To determine the natural frequency of ultrasonic waves;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3140;2. Ultrasonics;2.4;2.4. To determine the natural frequency of iron;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3140;2. Ultrasonics;2.5;2.5. To determine the capacitance;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3140;2. Ultrasonics;2.6;2.6. To determine the fundamental frequency;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3140;2. Ultrasonics;2.7;2.7. To determine the fundamental frequency;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3141;3. Acoustics of buildings;3.1;3.1. To determine the total absorption in the hall;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3141;3. Acoustics of buildings;3.2;3.2. To determine reverberation time of hall;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3141;3. Acoustics of buildings;3.3;3.3. To determine average absorbing power of surfaces;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3141;3. Acoustics of buildings;3.4;3.4. To determine the effect on reverberation time;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3141;3. Acoustics of buildings;3.5;3.5. To determine reverberation time of the hall;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3142;4. Magnetic properties;4.1;4.1. To determine the change in magnetic moment;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3142;4. Magnetic properties;4.10;4.10. To determine hysteresis power loss in watt per cubic meter and in watt per kg;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3142;4. Magnetic properties;4.2;4.2. To determine intensity of magnetisation and magnetic flux density;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3142;4. Magnetic properties;4.3;4.3. To determine relative permeability of a ferromagnetic material;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3142;4. Magnetic properties;4.4;4.4. To determine magnetic induction and dipole moment;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3142;4. Magnetic properties;4.5;4.5. To determine average number of Bohr magnetons;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3142;4. Magnetic properties;4.6;4.6. To determine magnetic force and relative permeability of material;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3142;4. Magnetic properties;4.7;4.7. To determine permeability;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3142;4. Magnetic properties;4.8;4.8. To determine the magnetic dipole moment and torque;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3142;4. Magnetic properties;4.9;4.9. To determine the hysteresis loss per cycle;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3143;5. Superconductivity;5.1;5.1. To determine magnitude of critical magnitutic field;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3143;5. Superconductivity;5.10;5.10. To determine the maximum critical temperature;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3143;5. Superconductivity;5.2;5.2. To determine the value of critical field;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3143;5. Superconductivity;5.3;5.3. To determine transition temperature;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3143;5. Superconductivity;5.4;5.4. To determine critical current value;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3143;5. Superconductivity;5.5;5.5. To determine isotopic mass;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3143;5. Superconductivity;5.6;5.6. To determine critical current for a wire;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3143;5. Superconductivity;5.7;5.7. To determine critical temperature;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3143;5. Superconductivity;5.8;5.8. To determine generating EM waves frequency;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3143;5. Superconductivity;5.9;5.9. To determine critical temperature;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3208;6. Crystal structure and X ray diffraction;6.1;6.1. To determine density;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3208;6. Crystal structure and X ray diffraction;6.10;6.10. To calculate the angle at which third order reflection can occur;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3208;6. Crystal structure and X ray diffraction;6.11;6.11. To calculate the glancing angle;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3208;6. Crystal structure and X ray diffraction;6.12;6.12. To calculate the space of the reflecting plane and volume;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3208;6. Crystal structure and X ray diffraction;6.13;6.13. To calculate miller indices of reflecting planes;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3208;6. Crystal structure and X ray diffraction;6.14;6.14. To calculate the inter planar spacing of reflection planes;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3208;6. Crystal structure and X ray diffraction;6.15;6.15. To calculate the wavelength and energy of X ray beam;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3208;6. Crystal structure and X ray diffraction;6.16;6.16. To calculate the spacing of the crystal;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3208;6. Crystal structure and X ray diffraction;6.17;6.17. To calculate the lattice parameter of lead;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3208;6. Crystal structure and X ray diffraction;6.18;6.18. To calculate braggs angle for first order of reflection;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3208;6. Crystal structure and X ray diffraction;6.2;6.2. To determine the lattice constant;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3208;6. Crystal structure and X ray diffraction;6.3;6.3. To determine the lattice constant;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3208;6. Crystal structure and X ray diffraction;6.4;6.4. To calculate the number of atoms per unit cell;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3208;6. Crystal structure and X ray diffraction;6.5;6.5. To calculate the density;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3208;6. Crystal structure and X ray diffraction;6.6;6.6. To calculate the percentage of volume change;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3208;6. Crystal structure and X ray diffraction;6.7;6.7. To calculate the maximum radius of sphere;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3208;6. Crystal structure and X ray diffraction;6.8;6.8. To calculate the distance between two adjacent atoms;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3208;6. Crystal structure and X ray diffraction;6.9;6.9. To calculate the wavelength of X rays and maximum order of diffraction;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3209;7. Laser;7.1;7.1. To determine matter wave energy;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3209;7. Laser;7.2;7.2. To calculate wavelength of emitted photons;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3209;7. Laser;7.3;7.3. To determine the ratio in higher energy and lower energy;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3209;7. Laser;7.4;7.4. To determine the ratio of stimulated emission rate to spontaneous emission;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3209;7. Laser;7.5;7.5. To determine the wavelength;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3210;8. Fiber optics and holography;8.1;8.1. To calculate refractive index of material of the core;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3210;8. Fiber optics and holography;8.10;8.10. To calculate numerical aperture;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3210;8. Fiber optics and holography;8.2;8.2. To calculate the fractional index change ;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3210;8. Fiber optics and holography;8.3;8.3. To calculate numerical aperture;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3210;8. Fiber optics and holography;8.4;8.4. To calculate angle of acceptance;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3210;8. Fiber optics and holography;8.5;8.5. To calculate critical angle;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3210;8. Fiber optics and holography;8.6;8.6. To calculate numerical aperture and acceptance angle;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3210;8. Fiber optics and holography;8.7;8.7. To calculate fractional index change;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3210;8. Fiber optics and holography;8.8;8.8. To calculate angle of refraction at the interface;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3210;8. Fiber optics and holography;8.9;8.9. To calculate refrative index of core;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3211;9. Dielectrics;9.1;9.1. To determine the electronic polarisability;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3211;9. Dielectrics;9.10;9.10. To determine the polarisability of He and its relative permittivity;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3211;9. Dielectrics;9.11;9.11. To determine field strength and total dipole moment;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3211;9. Dielectrics;9.2;9.2. To determine the capacitance and charge on the plates;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3211;9. Dielectrics;9.3;9.3. To determine the electronic polarisability of He atoms;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3211;9. Dielectrics;9.4;9.4. To determine dielectric constant of the material;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3211;9. Dielectrics;9.5;9.5. To determine resultant voltage across the capacitor;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3211;9. Dielectrics;9.6;9.6. To compute the polarisation;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3211;9. Dielectrics;9.7;9.7. To determine the displacement when He atom is subjected to a field;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3211;9. Dielectrics;9.8;9.8. To determine the atomic polarizability;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3211;9. Dielectrics;9.9;9.9. To determine energy stored in the condenser;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3417;10. Thermal Properties;10.1;10.1. To determine the specific heat per Kmol and highest lattice frequency;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3417;10. Thermal Properties;10.2;10.2. To estimate the heat required to raise the temperature;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3417;10. Thermal Properties;10.3;10.3. To compute the lattice specific heat and estimate the electronic specific heat;error;runtime; -1397;Engineering Physics(T. Sreekanth, K. V. Kumar And S. Chandralingam);3417;10. Thermal Properties;10.4;10.4. To estimate the lattice heat capacity;error;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3534;1. Introduction to Communication Systems;1.1;1.1. Maximum number of messages in TDM;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.1;2.1. Lower and Upper sideband frequency and Bandwidth;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.11;2.11. Radiated power;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.12;2.12. Carrier power;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.13;2.13. Frequencies in output;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.14;2.14. Total side band power radiated;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.15;2.15. Antenna current;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.16;2.16. Current rise and percentage power saving;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.18;2.18. Modulation index;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.19;2.19. Modulation index;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.20;2.20. Modulation depth;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.21;2.21. Antenna current;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.22;2.22. Total current;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.23;2.23. Percentage power saving;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.24;2.24. Carrier amplitude and frequency;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.26;2.26. Total power in different forms of amplitude modulation;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.27;2.27. Average power saving;error;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.3;2.3. Power delivered;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.30;2.30. Expression for amplitude modulated wave;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.4;2.4. Total power in modulated wave;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.5;2.5. Carrier power and side band power;error;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.6;2.6. Calculation of Antenna Current;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.7;2.7. Determination of Modulation index;error;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.8;2.8. Calculation of total modulation index;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3535;2. Amplitude Modulation;2.9;2.9. Calculation of modulation index and total radiated power;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3536;5. Angle Modulation;5.10;5.10. Modulated FM wave;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3536;5. Angle Modulation;5.11;5.11. Transmission Bandwidth;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3536;5. Angle Modulation;5.12;5.12. Frequency deviation and power dissipated;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3536;5. Angle Modulation;5.13;5.13. Frequency separation of adjacent side frequencies in FM wave;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3536;5. Angle Modulation;5.17;5.17. Bandwidth of FM signal;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3536;5. Angle Modulation;5.4;5.4. Frequency Deviation and Modulation index;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3536;5. Angle Modulation;5.5;5.5. Modulation index at different modulating voltage;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3536;5. Angle Modulation;5.6;5.6. Highest and lowest frequencies in FM wave;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3536;5. Angle Modulation;5.7;5.7. Carrier swing and lowest frequency reached;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3536;5. Angle Modulation;5.8;5.8. Modulation index of FM signal;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3536;5. Angle Modulation;5.9;5.9. Frequency deviation and carrier frequency;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3537;6. Noise;6.1;6.1. Figure of Merit;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3537;6. Noise;6.3;6.3. Figure of Merit of FM receiver;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3538;7. Radio Transmitters;7.1;7.1. Carrier frequency and frequency deviation of FM transmitter;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3538;7. Radio Transmitters;7.2;7.2. Carrier frequency and frequency deviation of FM transmitter;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3538;7. Radio Transmitters;7.4;7.4. Mixer crystal frequency of Armstrong Transmitter;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.1;8.1. Bandwidth of tuned circuit;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.10;8.10. Q of LC tuned Circuit;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.11;8.11. Coil Resistance;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.12;8.12. Signal frequency and image frequency rejection ratio;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.13;8.13. Image frequency and Q of tuned circuit;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.14;8.14. Value of padder capacitor and tracking error;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.15;8.15. Value of padder capacitor;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.16;8.16. Value of trimmer capacitor and tracking error;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.17;8.17. Image frequency and its rejection ratio;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.18;8.18. Image frequency and its rejection ratio;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.19;8.19. Padder capacitor and oscillator inductor;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.2;8.2. Resistance of coil;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.20;8.20. Frequency of the station and Q of the antenna coil;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.21;8.21. Maximum depth of sinusoidal modulation;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.22;8.22. Maximum modulation index;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.23.1;8.23.1. Image frequency and its rejection ratio;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.23.2;8.23.2. Image frequency and its rejection ratio;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.24;8.24. Maximum depth of sinusoidal modulation;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.25;8.25. Image rejection ratio of receiver;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.26;8.26. Padder Capacitor required;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.27;8.27. Maximum depth for sinusoidal modulation;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.3;8.3. Image frequency and rejection ratio;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.4;8.4. Frequency at another dial station;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.5;8.5. Value of padder capacitor and tracking error;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.6;8.6. Tuning range for oscillator capacitor;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.7;8.7. Maximum modulation index of Envelope Detector;correct;runtime; -1409;Analog Communications(A. P. Godse And U. A. Bakshi);3539;8. Receivers;8.8;8.8. Maximum modulation index of Envelope Detector;correct;runtime; -1415;Finite Mathematics(S. Waner And S. R. Costenoble);3395;1. Functions and Linear Models;1.1.1;1.1.1. Functions from the Numeric Algebraic and Graphical;correct;runtime; -1415;Finite Mathematics(S. Waner And S. R. Costenoble);3395;1. Functions and Linear Models;1.1.2;1.1.2. Functions from the Numeric Algebraic and Graphical;correct;runtime; -1415;Finite Mathematics(S. Waner And S. R. Costenoble);3395;1. Functions and Linear Models;1.1.3;1.1.3. Functions from the Numeric Algebraic and Graphical;correct;runtime; -1415;Finite Mathematics(S. Waner And S. R. Costenoble);3395;1. Functions and Linear Models;1.2.1;1.2.1. Functions and Models;correct;runtime; -1415;Finite Mathematics(S. Waner And S. R. Costenoble);3395;1. Functions and Linear Models;1.2.2;1.2.2. Functions and Models;correct;runtime; -1415;Finite Mathematics(S. Waner And S. R. Costenoble);3395;1. Functions and Linear Models;1.2.3;1.2.3. Functions and Models;correct;runtime; -1415;Finite Mathematics(S. Waner And S. R. Costenoble);3395;1. Functions and Linear Models;1.2.4;1.2.4. Functions and Models;correct;runtime; -1415;Finite Mathematics(S. Waner And S. R. Costenoble);3395;1. Functions and Linear Models;1.2.5;1.2.5. Functions and Models;correct;runtime; -1415;Finite Mathematics(S. Waner And S. R. Costenoble);3395;1. Functions and Linear Models;1.3.1;1.3.1. Linear Functions and Models;correct;runtime; -1415;Finite Mathematics(S. Waner And S. R. Costenoble);3395;1. Functions and Linear Models;1.3.2;1.3.2. Linear Functions and Models;correct;runtime; -1415;Finite Mathematics(S. Waner And S. R. Costenoble);3395;1. Functions and Linear Models;1.3.3;1.3.3. Linear Functions and Models;correct;runtime; -1415;Finite Mathematics(S. Waner And S. R. Costenoble);3395;1. Functions and Linear Models;1.3.4;1.3.4. Linear Functions and Models;correct;runtime; -1415;Finite Mathematics(S. Waner And S. R. Costenoble);3395;1. Functions and Linear Models;1.3.5;1.3.5. Linear Functions and Models;correct;runtime; -1415;Finite Mathematics(S. Waner And S. R. Costenoble);3395;1. Functions and Linear Models;1.3.6;1.3.6. Linear Functions and Models;correct;runtime; -1415;Finite Mathematics(S. Waner And S. R. Costenoble);3395;1. Functions and Linear Models;1.4.1;1.4.1. Linear Regression;correct;runtime; -1415;Finite Mathematics(S. Waner And S. R. Costenoble);3395;1. Functions and Linear Models;1.4.2;1.4.2. Linear Regression;correct;runtime; -1415;Finite Mathematics(S. Waner And S. R. Costenoble);3395;1. Functions and Linear Models;1.4.3;1.4.3. Linear Regression;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3415;25. Elements of electromechanical energy conversions;25.1;25.1. Energy stored in the air gap;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3415;25. Elements of electromechanical energy conversions;25.2;25.2. Electromagnetic relay;error;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3415;25. Elements of electromechanical energy conversions;25.4;25.4. Inductor with varying displacement;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3415;25. Elements of electromechanical energy conversions;25.5;25.5. Inductor with varying displacement;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3415;25. Elements of electromechanical energy conversions;25.7;25.7. Coupled coils;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.10;26.10. DC shunt generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.11.a;26.11.a. 8 Pole DC Generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.11.b;26.11.b. 4 Pole DC shunt generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.12;26.12. Separately excited generators ;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.13;26.13. 4 pole dc shunt generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.14;26.14. Compound generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.15;26.15. 4 Pole long shunt generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.16;26.16. 4 Pole DC generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.17;26.17. 4 Pole DC Generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.18;26.18. 4 Pole long shunt generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.19;26.19. Separately excited generators;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.20.a;26.20.a. 4 pole DC shunt generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.20.b;26.20.b. 4 Pole DC shunt generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.21.a;26.21.a. 6 Pole DC generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.21.b;26.21.b. 4 Pole DC generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.21.c;26.21.c. 4 Pole DC shunt generator;error;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.21.d;26.21.d. Short shunt DC Generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.22;26.22. Long shunt dynamo;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.23;26.23. 6 Pole shunt generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.24.a;26.24.a. Shunt generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.24.b;26.24.b. DC Shunt motor;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.25;26.25. Shunt generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.26;26.26. Long shunt dynamo;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.27;26.27. 4 Pole DC generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.28;26.28. Long shunt compound wound generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.29;26.29. DC Machine;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.3;26.3. Shunt field generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.30;26.30. DC Machine;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.31;26.31. DC Shunt generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.32;26.32. Long shunt DC compound generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.33;26.33. 4 Pole DC shunt generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.34;26.34. 4 Pole lap wound DC machine;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.4;26.4. Long shunt compound generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.5;26.5. Short shunt compound generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.6;26.6. Long shunt compound generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.7;26.7. Long shunt compound generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.8;26.8. Voltage generated by a four pole generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3094;26. DC Generators;26.9;26.9. Voltage generated by a four pole generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3475;27. Armature reaction and commutation;27.1;27.1. 4 Pole generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3475;27. Armature reaction and commutation;27.10;27.10. DC Machine;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3475;27. Armature reaction and commutation;27.11;27.11. DC Machine;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3475;27. Armature reaction and commutation;27.12;27.12. Armature;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3475;27. Armature reaction and commutation;27.2;27.2. 8 Pole generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3475;27. Armature reaction and commutation;27.3.a;27.3.a. 4 Pole Motor;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3475;27. Armature reaction and commutation;27.3.b;27.3.b. 4 Pole generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3475;27. Armature reaction and commutation;27.4;27.4. 4 Pole generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3475;27. Armature reaction and commutation;27.5;27.5. 4 Pole shunt generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3475;27. Armature reaction and commutation;27.6;27.6. DC Generator;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3475;27. Armature reaction and commutation;27.7;27.7. DC Shunt motor;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3475;27. Armature reaction and commutation;27.8;27.8. DC Machine;correct;runtime; -1418;A Text Book Of Electrical Technology, Volume II(B. L. Theraja And A. K. Theraja);3475;27. Armature reaction and commutation;27.9;27.9. Dynamo;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.1;1.1. Calculating grams of Ferrous Sulphate required per litre;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.10;1.10. Calculating Total hardness and Alkalinity and Lime and Soda required for softening hard water;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.11;1.11. Calculating hardness of given water sample;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.12;1.12. Calculating amount of lime and soda required for softening hard water;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.13;1.13. Calculating amount of lime and soda and NaCl required;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.14;1.14. Calculating Hardness of water sample;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.15;1.15. Calculating hardness of water sample;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.16;1.16. Calculating degree of Total and Permanent and Temporary Hardness;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.17;1.17. Calculating Hardness of solution;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.18;1.18. Calculating Hardness of a sample of water;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.19;1.19. Calculating Total and Permanent and Temporary hardness;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.2;1.2. Calculating hardness in three samples;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.20;1.20. Calculate extent of alkalinity;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.21;1.21. Determining type and amount of alkalinity;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.22;1.22. Finding hardness of given water sample;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.23;1.23. Calculating hardness of given water sample;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.3;1.3. Calculating temporary and permanent hardness of a sample of water;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.4;1.4. Calculating temporary and total hardness in given sample of water;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.5;1.5. Calculating amount of lime required;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.6;1.6. Calculating amount of lime and soda required;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.7;1.7. Calculating amount of lime and soda required for softening hard water;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.8;1.8. Calculating amount of lime and soda required for softening water;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3157;1. Water Treatment;1.9;1.9. Calculating amount of lime and soda required to soften one million litres of water;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.1;2.1. Calculating gross and net calorific value of coal;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.10;2.10. Calculating percentage results of the analysis;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.11;2.11. Calculating weight and volume of air required for combustion of Carbon;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.12;2.12. Finding volume of air required for combustion of a gas;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.13;2.13. Calculate mass of air needed for combustion of 5kg of coal;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.14;2.14. Calculating amount of minimum air required for combustion;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.15;2.15. Calculating volume of air supplied for fuel;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.16;2.16. Calculating percentage of dry product obtained;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.17;2.17. Calculating quantities of dry products of combustion;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.18;2.18. Calculating weight of air and oxygen and weight of air when excess air is supplied and GCV and NCV;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.19;2.19. Calculating amount of air for combustion and amount of dry products in fuel gas;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.2;2.2. Calculating percentage of hydrogen and Higher calorific value;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.20;2.20. Calculating theoretical quantity of air required and percentage of products of combustion and percentage of dry products when excess air is used and weight of dry gas on burning producer gas;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.21;2.21. Calculating GCV and NCV of coal and minimum theoretical air required for combustion and composition of dry products with excess air;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.22;2.22. Calculating weight of air theoretically required and weight of dry flue gas per kg of fuel and weight of air actually used;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.23;2.23. Calculating percentage of excess air used for combustion of coal;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.24;2.24. Finding percentage composition of dry products of combustion;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.25;2.25. Calculating minimum air for combustion of 1kg petrol and actual air supplied per kg of petrol and calorific values of petrol sample;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.26;2.26. Calculating minimum weight of air required for combustion of 1kg fuel and composition of dry product of combustion by volume if excess air is used;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.3;2.3. Calculating HCV of fuel;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.4;2.4. Calculating Gross and net calorific value of coal;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.5;2.5. Calculating calorific value of coal sample;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.6;2.6. Calculating Gross and net calorific value of coal;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.7;2.7. Calculating Higher and Lower calorific value;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.8;2.8. Calculating percentage of Sulphur in coal sample;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3162;2. Fuels and Combustion;2.9;2.9. Determining percentage of Nitrogen in given coal sample;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3163;3. High Polymers;3.1;3.1. Calculating weight average and number average molecular mass of polymer;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3163;3. High Polymers;3.2;3.2. Calculating number of molecules of ethene in sample and number of molecues of polyethene produced;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3163;3. High Polymers;3.3;3.3. Calculating maximum percentage of Sulphur possible in vulcanized rubber;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3163;3. High Polymers;3.5;3.5. Calculating weight of HCHO required;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3163;3. High Polymers;3.6;3.6. Calculating number of polyethylene molecules formed;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3163;3. High Polymers;3.7;3.7. Calculating average degree of polymerisation of a polymer sample;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3163;3. High Polymers;3.8;3.8. Calculating weight average and number average molecular mass of polymer;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3164;4. Pollution and its control;4.1;4.1. Calculating total pollution load of sample air;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3164;4. Pollution and its control;4.2;4.2. Calculating COD of given sample;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3164;4. Pollution and its control;4.3;4.3. Calculating COD of effluent sample;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3164;4. Pollution and its control;4.4;4.4. Calculating BOD of sample;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3164;4. Pollution and its control;4.5;4.5. Determining BOD of given sample;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.1;5.1. Calculating cell constant;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.10;5.10. Calculating pH of ammonium hydroxide;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.11;5.11. Finding dissociation constant of acid;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.12;5.12. Calculating pH of a mixture;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.13;5.13. Calculating pH of buffer solution;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.14;5.14. Calculating pH of the solution;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.15;5.15. Calculating solubility product of AgCl;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.16;5.16. Calculating solubility of Calcium fluoride;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.17;5.17. Calculating solubility product of a salt;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.18;5.18. Calculating solubility of Strontium fluoride;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.19;5.19. Calculating pH of Calcium hydroxide;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.2;5.2. Calculating cell constant and specific conductance of solution;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.20;5.20. Calculating pH of HCl solution;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.21;5.21. Calculating pH of given NaOH solution;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.22;5.22. Calculating dissociation constant for HCN;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.23;5.23. Calculating concentration of acetic acid solution;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.24;5.24. Calculating percentage ionization of acetic acid;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.25;5.25. Calculating pH of a buffer solution;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.26;5.26. Calculating amount of Ammonia and Ammonium chloride required;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.27;5.27. Calculating pH of acetic acid and volume required;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.28;5.28. Calculating hydrolysis constant and degree of hydrolysis of sodium acetate solution;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.29;5.29. Calculating hydrolysis constant and degree of hydrolysis of Ammonium chloride;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.3;5.3. Finding specific and equivalent conductance of acid;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.30;5.30. Calculating hydrolysis constant and dissociation constant of acetic acid;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.31;5.31. Calculating dissociation constant of HCN;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.32;5.32. Calculating pH of different salt solutions;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.33;5.33. Finding transport number of silver and nitrate ions;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.34;5.34. Calculating transport number of silver and nitrate ions;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.35;5.35. Calculating transport number of Copper and sulphate ions;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.36;5.36. Finding transport number of copper ion;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.37;5.37. Calculating transport number of Copper and sulphate ions;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.38;5.38. Calculating transport number of Potassium ions in KCl;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.39;5.39. Determining transport number of Silver ions in Silver nitrate;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.4;5.4. Calculating dissolution constant of acetic acid;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.5;5.5. Calculating activity of solution;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.6;5.6. Calculating equivalent conductance of solution;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.7;5.7. Calculating concentration of acetate ion and degree of ionization;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.8;5.8. Calculating pH of NaOH;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3212;5. Electrochemistry;5.9;5.9. Calculating pH of two samples;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3307;6. Electromotive Force;6.1;6.1. Calculating reduction potential for a half cell;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3307;6. Electromotive Force;6.10;6.10. Calculating pH of a solution;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3307;6. Electromotive Force;6.11;6.11. Calculating emf of a concentration cell;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3307;6. Electromotive Force;6.12;6.12. Calculating valency of mercurous ion;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3307;6. Electromotive Force;6.13;6.13. Calculating emf of the cell and determining activity of HCl;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3307;6. Electromotive Force;6.14;6.14. Calculating equilibrium constant for a reaction at 300 K;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3307;6. Electromotive Force;6.15;6.15. Determining solubility of AgCl at 298 K;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3307;6. Electromotive Force;6.16;6.16. Finding enthalpy change for a reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3307;6. Electromotive Force;6.17;6.17. Calculating heat of the reaction at 298 K;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3307;6. Electromotive Force;6.18;6.18. Calculating enthalpy change and free energy change and entropy change for the given cell;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3307;6. Electromotive Force;6.3;6.3. Calculating emf of a concentration cell;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3307;6. Electromotive Force;6.4;6.4. Calculating emf of a daniel cell;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3307;6. Electromotive Force;6.5;6.5. Finding emf of a given cell reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3307;6. Electromotive Force;6.6;6.6. Calculating concentration of nickel ions in the cell;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3307;6. Electromotive Force;6.7;6.7. Calculating reduction potential for reduction of oxygen;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3307;6. Electromotive Force;6.8;6.8. Calculating standard emf and emf generated;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3307;6. Electromotive Force;6.9;6.9. Calculating equilibrium constant of a reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3227;8. Protective Coatings;8.1;8.1. Calculating acid value of a lubricating oil;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3227;8. Protective Coatings;8.2;8.2. Calculating saponification of oil;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3227;8. Protective Coatings;8.3;8.3. Calculating iodine value of linseed oil;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3203;9. The Phase Rule;9.1;9.1. Calculating mass of eutetic in alloy;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3203;9. The Phase Rule;9.2;9.2. Calculating mass of eutectic ;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3203;9. The Phase Rule;9.3;9.3. Calculating mass of eutectic formed and lead separated out;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3203;9. The Phase Rule;9.4;9.4. Calculating amount of an element formed from an alloy;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3228;10. Lubricants;10.1;10.1. Calculating viscosity index of the oil sample;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3229;15. Chemical Equilibrium;15.1;15.1. Calculating equilibrium constant for a reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3229;15. Chemical Equilibrium;15.10;15.10. Calculating equilibrium constant for a reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3229;15. Chemical Equilibrium;15.11;15.11. Calculating total pressure to be applied;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3229;15. Chemical Equilibrium;15.12;15.12. Calculating both equilibrium constants;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3229;15. Chemical Equilibrium;15.2;15.2. Calculating equilibrium constant for a dissociation reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3229;15. Chemical Equilibrium;15.3;15.3. Determining composition of equilibrium mixture;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3229;15. Chemical Equilibrium;15.4;15.4. Calculating equilibrium concentration of hydrogen and iodine and hydrogen iodide;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3229;15. Chemical Equilibrium;15.5;15.5. Calculating equilibrium constant;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3229;15. Chemical Equilibrium;15.6;15.6. Calculating pressure;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3229;15. Chemical Equilibrium;15.7;15.7. Calculating degree of dissociation;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3229;15. Chemical Equilibrium;15.8;15.8. Calculating equilibrium constant for a reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3229;15. Chemical Equilibrium;15.9;15.9. Calculating equilibrium constant for a reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.1;16.1. Calculating rate constant of a reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.10;16.10. Calculating rate constant and half life and time required to complete 75 percent of reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.11;16.11. Calculating amount of A and B left unreacted after 2 hours in two given conditions;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.12;16.12. Calculating order with respect to A and B and rate constant;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.13;16.13. To show that the reaction is of first order;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.14;16.14. Calculating energy of activation of the reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.15;16.15. Calculating activation energy for the reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.16;16.16. Calculating energy of activation of the reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.17;16.17. Finding temperature at which half life becomes 10 minutes;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.18;16.18. Finding temperature at which k is 10000 per s;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.19;16.19. Finding temperature at which given half life is achieved;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.2;16.2. Calculating required concentration after 30 minutes;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.20;16.20. Calculating activation energy and k at 670 K;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.21;16.21. Determining percent decomposition in a 30 percent solution;error;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.22;16.22. Determining order of the reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.25;16.25. Calculating relaxation time and equilibrium constant;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.26;16.26. Calculating values of rate constants;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.3;16.3. Finding initial concentration of the reactants;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.4;16.4. Determining rate law and order with respect to A and B;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.5;16.5. To show a relation at two different times;error;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.6;16.6. Calculating order of a reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.7;16.7. Calculating time required;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.8;16.8. Calculating time required for 80 percent completion of a reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3240;16. Kinetics of Chemical Reactions;16.9;16.9. Finding order of reaction and velocity constant;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.1;18.1. Calculating heat of formation of ethyl alcohol;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.10;18.10. Calculating work done and heat rejected and efficiency;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.11;18.11. Calculating heat to be withdrawn from reservoir;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.12;18.12. Determining required percentage for a heat engine;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.13;18.13. Calculating change in entropy for an isothermal expansion;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.14;18.14. Calculating increase in entropy in evaporation of water;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.15;18.15. Calculating entropy of mixing per mole of the mixture;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.16;18.16. Calculating increase in entropy;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.18;18.18. Calculating entropy change and free energy change of the reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.19;18.19. Calculating enthalpy change for the process;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.2;18.2. Calculating enthalpy of formation of benzene;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.20;18.20. Calculating standard heat of formation and total change in heat capacities at constant pressure;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.21;18.21. Determining heat of formation at constant volume;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.22;18.22. Calculating enthalpy change and entropy change and free energy change and internal energy change;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.23;18.23. Calculating standard free energy change for the reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.24;18.24. Finding vapour pressure of benzene at 300 K;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.25;18.25. Calculating pressure at which water must be heated to produce superheated steam;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.26;18.26. Calculating free energy change at 298 K;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.27;18.27. Finding partial pressure of hydrogen at which free energy change is zero;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.28;18.28. Calculating heat of reaction in terms of calories;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.29;18.29. Determining temperature at which water will boil when atmospheric pressure is 528mm Hg;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.3;18.3. Calculating heat of a reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.30;18.30. Calculating equilibrium constant for the given reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.31;18.31. Calculating entropy change in given state of system;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.32;18.32. Calculating entropy change when pressure is kept constant and when volume is kept constant;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.34;18.34. Computing free energy change;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.35;18.35. Calculating q w U H G and A;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.36;18.36. Calculating w q U H G A and S;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.37;18.37. Calculating final temperature of the gas;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.38;18.38. Calculating S and A and G for vaporization of benzene;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.39;18.39. Calculating values of q and w and U for conversion of water to steam;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.4;18.4. Calculating enthalpy of formation of sucrose;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.40;18.40. Calculating final pressure and temperature on expansion of a dry gas;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.41;18.41. Calculating final temperature and w and q and change in internal energy for the process;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.42;18.42. Finding value of Kp at 500 K;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.43;18.43. Calculating equilibrium constant for dissociation of acetic acid;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.44;18.44. Calculating enthalpy of the reaction and free energy change and entropy change at 925 K;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.45;18.45. Calculating change in chemical potential of a substance;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.46;18.46. Calculating decrease in chemical potential of benzene;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.5;18.5. Calculating standard heat of formation of actylene;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.6;18.6. Calculating standard heat of formation of n heptane;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.7;18.7. Calculating heat of the given reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.8;18.8. Calculating heat of combustion of ethene at constant pressure;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3242;18. Thermodynamics;18.9;18.9. Comparing theoretical efficiencies of system of engine operating at 1 and 50 atm;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3397;19. Atomic Structure;19.1;19.1. Calculating de Broglie wavelength of alpha particles;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3397;19. Atomic Structure;19.10;19.10. Calculating wavelength of radiation emitted;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3397;19. Atomic Structure;19.11;19.11. Calculating wavelength of a tennis ball;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3397;19. Atomic Structure;19.12;19.12. Calculating de Broglie wavelength of a moving electron;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3397;19. Atomic Structure;19.13;19.13. Calculating uncertainity in momentum of an electron;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3397;19. Atomic Structure;19.14;19.14. Determining minimum error in finding position of an electron;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3397;19. Atomic Structure;19.15;19.15. Calculating uncertainity in velocity of an electron;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3397;19. Atomic Structure;19.16;19.16. Calculating uncertainity in velocity of a cricket ball;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3397;19. Atomic Structure;19.17;19.17. Calculating mass of a particle;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3397;19. Atomic Structure;19.2;19.2. Calculating energy per photon for a radiation;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3397;19. Atomic Structure;19.3;19.3. Calculating momentum of a particle;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3397;19. Atomic Structure;19.4;19.4. Calculating momentum of a particle;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3397;19. Atomic Structure;19.5;19.5. Calculating wavelength of a moving electron;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3397;19. Atomic Structure;19.6;19.6. Determining number of photons of light required;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3397;19. Atomic Structure;19.7;19.7. Calculating ionization energy of sodium atom;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3397;19. Atomic Structure;19.8;19.8. Calculating frequency of a particle wave;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3397;19. Atomic Structure;19.9;19.9. Calculating kinetic energy of a moving electron;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3398;20. Nuclear Chemistry;20.10;20.10. Calculating binding energy of alpha particles;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3398;20. Nuclear Chemistry;20.11;20.11. Calculating binding energy for He;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3398;20. Nuclear Chemistry;20.12;20.12. Calculating mass defect and binding energy per nucleon for sodium atom;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3398;20. Nuclear Chemistry;20.13;20.13. Calculating binding energy per nucleon for Krypton;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3398;20. Nuclear Chemistry;20.14;20.14. Calculating age of a wooden article;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3398;20. Nuclear Chemistry;20.4;20.4. Calculating time for required decomposition;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3398;20. Nuclear Chemistry;20.5;20.5. Calculating activity of a sample after 80 years;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3398;20. Nuclear Chemistry;20.6;20.6. Calculating time for required decomposition;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3398;20. Nuclear Chemistry;20.7;20.7. Calculating decay constant and time for required decomposition;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3398;20. Nuclear Chemistry;20.8;20.8. Calculating binding energy per nucleon of Ca;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3398;20. Nuclear Chemistry;20.9;20.9. Calculating energy released in given fission reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.1;22.1. Calculating volume of a cubic unit cell;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.10;22.10. Finding density of chromium;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.11;22.11. Calculating value of avogadro number;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.12;22.12. Calculating atomic mass of an element;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.13;22.13. Calculating edge length of a unit cell;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.14;22.14. To show that KBr has a FCC structure;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.15;22.15. Calculating electron affinity of iodine;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.16;22.16. Calculating lattice energy of KCl crystal;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.17;22.17. Calculating glancing angle required;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.18;22.18. Calculating edge length of a unit cell;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.19;22.19. Calculating distance between planes of a crystal;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.2;22.2. Calculating interionic distance in NaCl;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.20;22.20. Calculating glancing angle required;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.21;22.21. Calculating radius of spherical molecule;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.22;22.22. Calculating ratio of interionic distance in cases 111 and 220;error;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.23;22.23. Calculating separations of 123 planes;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.24;22.24. Determining interplanar spacing between the 220 planes of a cubic lattice;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.25;22.25. Determining interplanar spacing of 200 and 220 planes;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.27;22.27. Calculating angle required for reflection;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.3;22.3. Determining coordination number of Cs and Br;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.4;22.4. Calculating edge length of a cube of NaCl;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.5;22.5. Calculating radius of an anion;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.6;22.6. Calculating ionic radius of chloride ion;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.7;22.7. Calculating interionic distance and radius of cation;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.8;22.8. Calculating radius of sodium atom;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3310;22. The Solid State;22.9;22.9. Finding density of NaCl;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3372;24. Solutions;24.1;24.1. Calculating molality and mole fraction of sugar;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3372;24. Solutions;24.11;24.11. Calculating degree of dissociation of acid;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3372;24. Solutions;24.12;24.12. Calculating quantity of iodine left behind in the aqueous layer;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3372;24. Solutions;24.15;24.15. Calculating amount of a substance extracted by ether;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3372;24. Solutions;24.16;24.16. Calculating amount of a substance left in water after 4 shakings and left in chloroform after single extraction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3372;24. Solutions;24.18;24.18. Calculating solubility of iodine in carbon tetrachloride;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3372;24. Solutions;24.19;24.19. Calculating hydrolysis constant of a salt;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3372;24. Solutions;24.2;24.2. Calculating mole fraction of ethanol and water in a sample;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3372;24. Solutions;24.3;24.3. Finding molality of a solution;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3372;24. Solutions;24.4;24.4. Calculating vapour pressure of a mixture of benzene and toluene;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3372;24. Solutions;24.5;24.5. Calculating Henrys constant;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3372;24. Solutions;24.6;24.6. Calculating amount of oxygen dissolved in 1L of water;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3372;24. Solutions;24.7;24.7. Calculating concentration of an ethereal solution;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3372;24. Solutions;24.8;24.8. Calculating moles of succinic acid extracted;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3372;24. Solutions;24.9;24.9. Calculating concentration of a compound in water and volume of chloroform which will contain 10g of this compound;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.1;25.1. Finding pressure exerted in a vessel;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.10;25.10. Calculating temperatures required for Carbon dioxide;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.11;25.11. Calculating average and rms and most probable velocities of Carbon dioxide;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.12;25.12. Calculating rms velocity of oxygen molecules;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.13;25.13. Calculating pressure using van der Waals equation;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.14;25.14. Calculating pressure for ammonia gas using ideal gas equation and van der Waals equation;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.15;25.15. Calculating Boyles temperature for Carbon monoxide gas;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.16;25.16. Calculating average and rms and most probable velocities of a gas;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.17;25.17. Calculating pressure for carbon dioxide using ideal gas equation and van der Waals equation;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.18;25.18. Calculating volume occupied by oxygen using ideal gas equation and van der Waals equation;error;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.19;25.19. Calculating mean free path of oxygen;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.2;25.2. Determining molecular weight of a gas;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.21;25.21. Calculating pressure using van der Waals equation;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.22;25.22. Calculating collision number for hydrogen;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.23;25.23. Calculating volume occupied by ideal gas equation and compressibility factor;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.24;25.24. Calculating mean free path for hydrogen gas;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.25;25.25. Calculating number of collisions for each molecule and total number of collisions in 1kL in one second and mean free path for a Nitrogen molecule;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.26;25.26. Calculating diameter of oxygen molecules;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.27;25.27. Calculating coefficient of viscosity of benzene;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.28;25.28. Calculating surface tension of a liquid;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.29;25.29. Calculating surface tension of liquid A and how many times is the water drop heavier than a drop of A;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.3;25.3. Calculating root mean square velocity and average velocity of gas molecules;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.4;25.4. Calculating kinetic energy of an ideal gas and temperature required;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.5;25.5. Calculating rms velocity at 392 K;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.6;25.6. Calculating total random kinetic energy of helium at 200 K;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.7;25.7. Calculating rms velocity of a gas and temperature required;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.8;25.8. Calculating kinetic energy per molecule for Carbon dioxide;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3332;25. Gaseous and Liquid States;25.9;25.9. Calculating number of molecules in a mole of gas;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.1;34.1. Calculating frequency of radiations;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.10;34.10. Calculating absorbance and molar absorption coefficient and percentage transmittancy;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.11;34.11. Calculating optical density of incident light;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.12;34.12. Calculating concentration of a solution;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.13;34.13. Calculating molar absorptivity of a solution;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.14;34.14. Determining transmittance of a solution;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.15;34.15. Calculating percentage of light absorbed by a solution;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.16;34.16. Determining moles of HCl produced in given reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.17;34.17. Calculating quantum yield of a reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.18;34.18. Calculating moles of CO formed;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.19;34.19. Calculating energy of light required to decompose 1g of ammonia;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.2;34.2. Calculating energy per mole of light for given wavelengths;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.21;34.21. Calculating calories of sunlight required to synthesise 1kg of carbohydrate;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.22;34.22. Calculating quantum yield of a reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.23;34.23. Calculating quantum yield of a reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.24;34.24. Calculating percentage of transmission;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.25;34.25. Calculating concentration of a substance;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.26;34.26. Calculating Ionization energy for nitrogen;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.3;34.3. Calculating energy and frequency and wave number;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.4;34.4. Calculating wavelength and frequency and wave number of light;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.5;34.5. Calculating energy associated with one photon and one einstein;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.6;34.6. Calculating quantum yield of a reaction;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.7;34.7. Calculating concentration of compound X in a solution;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.8;34.8. Calculating absorbance and molecular absorption coefficient of sample;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3373;34. Photochemistry;34.9;34.9. Calculating concentration of a solution;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3396;35. Spectroscopy;35.1;35.1. Calculating frequency of radiations;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3396;35. Spectroscopy;35.10;35.10. Calculating fundamental frequency of DCl;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3396;35. Spectroscopy;35.11;35.11. Calculating force constant of CO molecule;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3396;35. Spectroscopy;35.13;35.13. Calculating force constant of a Br Br bond;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3396;35. Spectroscopy;35.14;35.14. Calculating bond length for HBr molecule;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3396;35. Spectroscopy;35.16;35.16. Calculating internuclear distance of HCl molecule;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3396;35. Spectroscopy;35.17;35.17. Calculating frequency for a given transition in CO;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3396;35. Spectroscopy;35.18;35.18. Calculating corresponding energy for a NMR spectra;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3396;35. Spectroscopy;35.19;35.19. Calculating frequency shift from TMS required;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3396;35. Spectroscopy;35.2;35.2. Calculating energy per mole of light;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3396;35. Spectroscopy;35.24;35.24. Calculating wavelength at which anti Stokes line appear;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3396;35. Spectroscopy;35.27;35.27. Calculating magnetic field strength required;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3396;35. Spectroscopy;35.28;35.28. Calculating precessional frequency of electrons in a magnetic field;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3396;35. Spectroscopy;35.3;35.3. Calculating energy per mole and frequency and wave number;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3396;35. Spectroscopy;35.4;35.4. Calculating reduced mass of CN molecule;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3396;35. Spectroscopy;35.5;35.5. Calculating reduced mass and moment of inertia of NaCl;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3396;35. Spectroscopy;35.6;35.6. Calculating force constant for CO molecule;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3396;35. Spectroscopy;35.8;35.8. Calculating frequency of oxygen and hydrogen bond;correct;runtime; -1427;Engineering Chemistry(P. C. Jain);3396;35. Spectroscopy;35.9;35.9. Calculating fundamental frequency and wave number for HCl;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3072;1. Temperature;1.1;1.1. Temperature Conversion;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3072;1. Temperature;1.2;1.2. percentage Accuracy and Error;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3072;1. Temperature;1.3;1.3. Two wire RTD;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3072;1. Temperature;1.4;1.4. Thermocouple temperature measurement;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3072;1. Temperature;1.5;1.5. Hot junction temperature of thermocouple;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3072;1. Temperature;1.6;1.6. Caliberation of an instrument;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3072;1. Temperature;1.7;1.7. Wall temperature measurement;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3072;1. Temperature;1.8;1.8. Thermocouple output;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3072;1. Temperature;1.9;1.9. electtronic temperature transmitter;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3086;2. Pressure;2.1;2.1. Pressure conversion;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3086;2. Pressure;2.10;2.10. Capacitance calculation for variable dielectric;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3086;2. Pressure;2.11;2.11. pressure gauge caliberation;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3086;2. Pressure;2.12;2.12. pressure calculation using McLeod gauge;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3086;2. Pressure;2.2;2.2. Gauge and absolute pressure;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3086;2. Pressure;2.3;2.3. Gauge and absolute pressure;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3086;2. Pressure;2.4;2.4. pressure measurement using U tube manometer;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3086;2. Pressure;2.5;2.5. Specific Gravity and weight density;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3086;2. Pressure;2.6;2.6. water flow rate using mercury manometer;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3086;2. Pressure;2.7;2.7. readings and errors in Bourdon gauge reading;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3086;2. Pressure;2.8;2.8. Specific Gravity and density of liquid;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3086;2. Pressure;2.9;2.9. strain gauge wire length and cross section area;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3087;3. Force Torque and Velocity;3.1;3.1. Force calculation;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3087;3. Force Torque and Velocity;3.2;3.2. Weight calculation;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3087;3. Force Torque and Velocity;3.3;3.3. calculation of specific gravity;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3087;3. Force Torque and Velocity;3.4;3.4. Estimation of uncertainty due to sensitivity;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3087;3. Force Torque and Velocity;3.5;3.5. Torque Calculation;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3087;3. Force Torque and Velocity;3.6;3.6. Force calculation;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3087;3. Force Torque and Velocity;3.7;3.7. resistance strain gauge;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3087;3. Force Torque and Velocity;3.8;3.8. speed measurement using stroboscope;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3087;3. Force Torque and Velocity;3.9;3.9. speed measurement using proximity;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3074;4. Acceleration Vibration and Density;4.1;4.1. mechanical system for a seismic instrument;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3074;4. Acceleration Vibration and Density;4.10;4.10. Specific Gravity of unknown liquid;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3074;4. Acceleration Vibration and Density;4.11;4.11. calculation of specific gravity;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3074;4. Acceleration Vibration and Density;4.2;4.2. Frequency and phase angle of motion;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3074;4. Acceleration Vibration and Density;4.3;4.3. time calculation for exponetial transient term;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3074;4. Acceleration Vibration and Density;4.4;4.4. Acceleration measurement;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3074;4. Acceleration Vibration and Density;4.5;4.5. output voltage of quartz piezoelectric crystal;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3074;4. Acceleration Vibration and Density;4.6;4.6. Differential values of capacitor;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3074;4. Acceleration Vibration and Density;4.7;4.7. Specific Gravity Conversion;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3074;4. Acceleration Vibration and Density;4.8;4.8. calculation of the volume of displacer;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3074;4. Acceleration Vibration and Density;4.9;4.9. Differential pressure Sensor;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3130;5. Flow;5.1;5.1. flow rate calulation;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3130;5. Flow;5.11;5.11. detemination of flow velocity;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3130;5. Flow;5.12;5.12. calculation of flying speed of aircraft;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3130;5. Flow;5.13;5.13. Maximum fluid handling capacity of Rotameter;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3130;5. Flow;5.14;5.14. Determination of range of flow for ratameter;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3130;5. Flow;5.15;5.15. calculation of coal delivery for coal conveyor system;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3130;5. Flow;5.16;5.16. Fluid velocity calculation;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3130;5. Flow;5.17;5.17. volume flow rate;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3130;5. Flow;5.18;5.18. induced emf in electromagnetic flow meter;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3130;5. Flow;5.19;5.19. velocity of flow in electromagnetic flow meter;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3130;5. Flow;5.2;5.2. Volumetric flow rate calculation;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3130;5. Flow;5.20;5.20. average velocity of flow in electromagnetic flow meter;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3130;5. Flow;5.3;5.3. Nominal flow velocity;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3130;5. Flow;5.4;5.4. pressure difference calculation;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3130;5. Flow;5.5;5.5. volume flow rate for orifice and venturi Tubes;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3130;5. Flow;5.6;5.6. determination of Reynolds number;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3130;5. Flow;5.7;5.7. Fluid velocity and Volumetric flow rate;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3130;5. Flow;5.8;5.8. Fluid velocity calculation;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3130;5. Flow;5.9;5.9. velocity measurement using pilot tube;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3088;6. Level;6.1;6.1. output current of two wire pressure transmitter;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3088;6. Level;6.10;6.10. calculation of level on the probe;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3088;6. Level;6.2;6.2. water level and current at different positions;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3088;6. Level;6.3;6.3. Differential pressure output at different levels;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3088;6. Level;6.4;6.4. Displacer with spring balance;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3088;6. Level;6.5;6.5. Buoyancy Force calculation;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3088;6. Level;6.6;6.6. Determination of displaced volume from Buoyancy Force;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3088;6. Level;6.7;6.7. Determination of hydrostatic pressure in open tank;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3088;6. Level;6.8;6.8. Determination of hydrostatic pressure in closed tank;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3088;6. Level;6.9;6.9. Determination of height from hydrostatic pressure;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3113;7. Viscosity Humidity and Moisture;7.1;7.1. calculation of absolute viscosity;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3113;7. Viscosity Humidity and Moisture;7.10;7.10. percentage relative humidity;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3113;7. Viscosity Humidity and Moisture;7.11;7.11. percentage increase in moisture content;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3113;7. Viscosity Humidity and Moisture;7.12;7.12. calculation of moisture content;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3113;7. Viscosity Humidity and Moisture;7.2;7.2. calculation of kinematic relative and absolute viscosity;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3113;7. Viscosity Humidity and Moisture;7.3;7.3. Absolute viscosity of the Newtonian fluid;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3113;7. Viscosity Humidity and Moisture;7.4;7.4. kinematic viscosity and density calculation;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3113;7. Viscosity Humidity and Moisture;7.5;7.5. Kinematic Viscosity in Saybolts Universal viscometer;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3113;7. Viscosity Humidity and Moisture;7.6;7.6. calculation of absolute viscosity;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3113;7. Viscosity Humidity and Moisture;7.7;7.7. calculation of relative humidity;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3113;7. Viscosity Humidity and Moisture;7.8;7.8. calculation of Relative Humidity dew point and moisture content;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3113;7. Viscosity Humidity and Moisture;7.9;7.9. calculation of relative humidity;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3112;8. Fundamentals of measuring instruments;8.1;8.1. Flux density calculation;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3112;8. Fundamentals of measuring instruments;8.10;8.10. temperature and altitude calculation from first order thermometer placed in balloon;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3112;8. Fundamentals of measuring instruments;8.2;8.2. Power Dissipation and accuracy of result;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3112;8. Fundamentals of measuring instruments;8.3;8.3. max and min levels of input supply current;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3112;8. Fundamentals of measuring instruments;8.4;8.4. Time constant for thermometer;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3112;8. Fundamentals of measuring instruments;8.5;8.5. Error calculation of second order instrument;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3112;8. Fundamentals of measuring instruments;8.6;8.6. Output of first order instrument for unit step input;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3112;8. Fundamentals of measuring instruments;8.7;8.7. Calculation of different parameters from given frequency distribution;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3112;8. Fundamentals of measuring instruments;8.8;8.8. Calculation of damping coefficient and natural frequency for 2nd order instrument;correct;runtime; -1436;Industrial Instrumentation(K. Krishnaswamy And S. Vijayachitra);3112;8. Fundamentals of measuring instruments;8.9;8.9. calculation of Amplitude inaccuracy and phase shift from transfer function;correct;runtime; -1439;Physical Chemistry(D. Farrington);3509;2. GASES;2.1;2.1. example 1;correct;runtime; -1439;Physical Chemistry(D. Farrington);3509;2. GASES;2.2;2.2. example 2;correct;runtime; -1439;Physical Chemistry(D. Farrington);3509;2. GASES;2.4;2.4. example 4;correct;runtime; -1439;Physical Chemistry(D. Farrington);3509;2. GASES;2.5;2.5. example 5;correct;runtime; -1439;Physical Chemistry(D. Farrington);3510;3. FIRST LAW OF THERMODYNAMICS;3.1;3.1. example 1;correct;runtime; -1439;Physical Chemistry(D. Farrington);3510;3. FIRST LAW OF THERMODYNAMICS;3.4;3.4. example 4;correct;runtime; -1439;Physical Chemistry(D. Farrington);3520;4. THERMOCHEMISTRY;4.1;4.1. example 1;correct;runtime; -1439;Physical Chemistry(D. Farrington);3520;4. THERMOCHEMISTRY;4.10;4.10. example 10;correct;runtime; -1439;Physical Chemistry(D. Farrington);3520;4. THERMOCHEMISTRY;4.11;4.11. example 11;correct;runtime; -1439;Physical Chemistry(D. Farrington);3520;4. THERMOCHEMISTRY;4.12;4.12. example 12;correct;runtime; -1439;Physical Chemistry(D. Farrington);3520;4. THERMOCHEMISTRY;4.13;4.13. example 13;correct;runtime; -1439;Physical Chemistry(D. Farrington);3520;4. THERMOCHEMISTRY;4.2;4.2. example 2;correct;runtime; -1439;Physical Chemistry(D. Farrington);3520;4. THERMOCHEMISTRY;4.3;4.3. example 3;correct;runtime; -1439;Physical Chemistry(D. Farrington);3520;4. THERMOCHEMISTRY;4.4;4.4. example 4;correct;runtime; -1439;Physical Chemistry(D. Farrington);3520;4. THERMOCHEMISTRY;4.5;4.5. example 5;correct;runtime; -1439;Physical Chemistry(D. Farrington);3520;4. THERMOCHEMISTRY;4.6;4.6. example 6;correct;runtime; -1439;Physical Chemistry(D. Farrington);3520;4. THERMOCHEMISTRY;4.7;4.7. example 7;correct;runtime; -1439;Physical Chemistry(D. Farrington);3520;4. THERMOCHEMISTRY;4.8;4.8. example 8;correct;runtime; -1439;Physical Chemistry(D. Farrington);3520;4. THERMOCHEMISTRY;4.9;4.9. example 9;correct;runtime; -1439;Physical Chemistry(D. Farrington);3524;5. SECOND AND THIRD LAW OF THERMODYNAMICS;5.1;5.1. example 1;correct;runtime; -1439;Physical Chemistry(D. Farrington);3524;5. SECOND AND THIRD LAW OF THERMODYNAMICS;5.10;5.10. example 10;correct;runtime; -1439;Physical Chemistry(D. Farrington);3524;5. SECOND AND THIRD LAW OF THERMODYNAMICS;5.2;5.2. example 2;correct;runtime; -1439;Physical Chemistry(D. Farrington);3524;5. SECOND AND THIRD LAW OF THERMODYNAMICS;5.3;5.3. example 3;correct;runtime; -1439;Physical Chemistry(D. Farrington);3524;5. SECOND AND THIRD LAW OF THERMODYNAMICS;5.4;5.4. example 4;correct;runtime; -1439;Physical Chemistry(D. Farrington);3524;5. SECOND AND THIRD LAW OF THERMODYNAMICS;5.5;5.5. example 5;correct;runtime; -1439;Physical Chemistry(D. Farrington);3524;5. SECOND AND THIRD LAW OF THERMODYNAMICS;5.6;5.6. example 6;correct;runtime; -1439;Physical Chemistry(D. Farrington);3524;5. SECOND AND THIRD LAW OF THERMODYNAMICS;5.7;5.7. example 7;correct;runtime; -1439;Physical Chemistry(D. Farrington);3524;5. SECOND AND THIRD LAW OF THERMODYNAMICS;5.8;5.8. example 8;correct;runtime; -1439;Physical Chemistry(D. Farrington);3524;5. SECOND AND THIRD LAW OF THERMODYNAMICS;5.9;5.9. example 9;correct;runtime; -1439;Physical Chemistry(D. Farrington);3511;6. ONE COMPONENT SYSTEMS;6.1;6.1. example 1;correct;runtime; -1439;Physical Chemistry(D. Farrington);3511;6. ONE COMPONENT SYSTEMS;6.2;6.2. example 2;correct;runtime; -1439;Physical Chemistry(D. Farrington);3511;6. ONE COMPONENT SYSTEMS;6.3;6.3. example 3;correct;runtime; -1439;Physical Chemistry(D. Farrington);3511;6. ONE COMPONENT SYSTEMS;6.4;6.4. example 4;correct;runtime; -1439;Physical Chemistry(D. Farrington);3511;6. ONE COMPONENT SYSTEMS;6.5;6.5. example 5;correct;runtime; -1439;Physical Chemistry(D. Farrington);3512;7. SOLUTIONS;7.1;7.1. example 1;correct;runtime; -1439;Physical Chemistry(D. Farrington);3512;7. SOLUTIONS;7.2;7.2. example 2;correct;runtime; -1439;Physical Chemistry(D. Farrington);3512;7. SOLUTIONS;7.3;7.3. example 3;correct;runtime; -1439;Physical Chemistry(D. Farrington);3512;7. SOLUTIONS;7.4;7.4. example 4;correct;runtime; -1439;Physical Chemistry(D. Farrington);3513;8. PROPERTIES OF DILUTE SOLUTIONS;8.2;8.2. example 2;correct;runtime; -1439;Physical Chemistry(D. Farrington);3513;8. PROPERTIES OF DILUTE SOLUTIONS;8.3;8.3. example 3;correct;runtime; -1439;Physical Chemistry(D. Farrington);3513;8. PROPERTIES OF DILUTE SOLUTIONS;8.4;8.4. example 4;correct;runtime; -1439;Physical Chemistry(D. Farrington);3513;8. PROPERTIES OF DILUTE SOLUTIONS;8.5;8.5. example 5;correct;runtime; -1439;Physical Chemistry(D. Farrington);3513;8. PROPERTIES OF DILUTE SOLUTIONS;8.6;8.6. example 6;correct;runtime; -1439;Physical Chemistry(D. Farrington);3513;8. PROPERTIES OF DILUTE SOLUTIONS;8.7;8.7. example 7;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.1;9.1. example 1;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.10;9.10. example 10;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.11;9.11. example 11;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.12;9.12. example 12;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.13;9.13. example 13;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.14;9.14. example 14;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.15;9.15. example 15;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.16;9.16. example 16;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.17;9.17. example 17;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.18;9.18. example 18;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.19;9.19. example 19;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.2;9.2. example 2;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.20;9.20. example 20;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.21;9.21. example 21;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.22;9.22. example 22;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.3;9.3. example 3;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.4;9.4. example 4;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.5;9.5. example 5;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.6;9.6. example 6;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.7;9.7. example 7;correct;runtime; -1439;Physical Chemistry(D. Farrington);3525;9. CHEMICAL EQUILIBRIA;9.8;9.8. example 8;correct;runtime; -1439;Physical Chemistry(D. Farrington);3519;11. KINETIC THEORY;11.1;11.1. example 1;correct;runtime; -1439;Physical Chemistry(D. Farrington);3519;11. KINETIC THEORY;11.2;11.2. example 2;correct;runtime; -1439;Physical Chemistry(D. Farrington);3519;11. KINETIC THEORY;11.3;11.3. example 3;correct;runtime; -1439;Physical Chemistry(D. Farrington);3519;11. KINETIC THEORY;11.4;11.4. example 4;correct;runtime; -1439;Physical Chemistry(D. Farrington);3519;11. KINETIC THEORY;11.5;11.5. example 5;correct;runtime; -1439;Physical Chemistry(D. Farrington);3514;12. CHEMICAL KINETICS;12.1;12.1. example 1;correct;runtime; -1439;Physical Chemistry(D. Farrington);3514;12. CHEMICAL KINETICS;12.2;12.2. example 2;correct;runtime; -1439;Physical Chemistry(D. Farrington);3514;12. CHEMICAL KINETICS;12.3;12.3. example 3;correct;runtime; -1439;Physical Chemistry(D. Farrington);3514;12. CHEMICAL KINETICS;12.4;12.4. example 4;correct;runtime; -1439;Physical Chemistry(D. Farrington);3514;12. CHEMICAL KINETICS;12.7;12.7. example 7;correct;runtime; -1439;Physical Chemistry(D. Farrington);3515;13. IREVERSIBLE PROCESS IN LIQUIDS;13.1;13.1. example 1;correct;runtime; -1439;Physical Chemistry(D. Farrington);3515;13. IREVERSIBLE PROCESS IN LIQUIDS;13.10;13.10. example 10;correct;runtime; -1439;Physical Chemistry(D. Farrington);3515;13. IREVERSIBLE PROCESS IN LIQUIDS;13.11;13.11. example 11;correct;runtime; -1439;Physical Chemistry(D. Farrington);3515;13. IREVERSIBLE PROCESS IN LIQUIDS;13.2;13.2. example 2;correct;runtime; -1439;Physical Chemistry(D. Farrington);3515;13. IREVERSIBLE PROCESS IN LIQUIDS;13.3;13.3. example 3;correct;runtime; -1439;Physical Chemistry(D. Farrington);3515;13. IREVERSIBLE PROCESS IN LIQUIDS;13.4;13.4. example 4;correct;runtime; -1439;Physical Chemistry(D. Farrington);3515;13. IREVERSIBLE PROCESS IN LIQUIDS;13.5;13.5. example 5;correct;runtime; -1439;Physical Chemistry(D. Farrington);3515;13. IREVERSIBLE PROCESS IN LIQUIDS;13.6;13.6. example 6;correct;runtime; -1439;Physical Chemistry(D. Farrington);3515;13. IREVERSIBLE PROCESS IN LIQUIDS;13.7;13.7. example 7;correct;runtime; -1439;Physical Chemistry(D. Farrington);3515;13. IREVERSIBLE PROCESS IN LIQUIDS;13.8;13.8. example 8;correct;runtime; -1439;Physical Chemistry(D. Farrington);3515;13. IREVERSIBLE PROCESS IN LIQUIDS;13.9;13.9. example 9;correct;runtime; -1439;Physical Chemistry(D. Farrington);3508;14. ELECTROMOTIVE FORCE;14.1;14.1. example 1;correct;runtime; -1439;Physical Chemistry(D. Farrington);3508;14. ELECTROMOTIVE FORCE;14.10;14.10. example 10;correct;runtime; -1439;Physical Chemistry(D. Farrington);3508;14. ELECTROMOTIVE FORCE;14.3;14.3. example 3;correct;runtime; -1439;Physical Chemistry(D. Farrington);3508;14. ELECTROMOTIVE FORCE;14.4;14.4. example 4;correct;runtime; -1439;Physical Chemistry(D. Farrington);3508;14. ELECTROMOTIVE FORCE;14.5;14.5. example 5;correct;runtime; -1439;Physical Chemistry(D. Farrington);3508;14. ELECTROMOTIVE FORCE;14.6;14.6. example 6;correct;runtime; -1439;Physical Chemistry(D. Farrington);3508;14. ELECTROMOTIVE FORCE;14.7;14.7. example 7;correct;runtime; -1439;Physical Chemistry(D. Farrington);3508;14. ELECTROMOTIVE FORCE;14.8;14.8. example 8;correct;runtime; -1439;Physical Chemistry(D. Farrington);3508;14. ELECTROMOTIVE FORCE;14.9;14.9. example 9;error;runtime; -1439;Physical Chemistry(D. Farrington);3507;15. IONIC EQUILIBRIA;15.1;15.1. example 1;correct;runtime; -1439;Physical Chemistry(D. Farrington);3507;15. IONIC EQUILIBRIA;15.10;15.10. example 10;correct;runtime; -1439;Physical Chemistry(D. Farrington);3507;15. IONIC EQUILIBRIA;15.11;15.11. example 11;correct;runtime; -1439;Physical Chemistry(D. Farrington);3507;15. IONIC EQUILIBRIA;15.2;15.2. example 2;correct;runtime; -1439;Physical Chemistry(D. Farrington);3507;15. IONIC EQUILIBRIA;15.3;15.3. example 3;correct;runtime; -1439;Physical Chemistry(D. Farrington);3507;15. IONIC EQUILIBRIA;15.4;15.4. example 4;error;runtime; -1439;Physical Chemistry(D. Farrington);3507;15. IONIC EQUILIBRIA;15.5;15.5. example 5;correct;runtime; -1439;Physical Chemistry(D. Farrington);3507;15. IONIC EQUILIBRIA;15.6;15.6. example 6;correct;runtime; -1439;Physical Chemistry(D. Farrington);3507;15. IONIC EQUILIBRIA;15.7;15.7. example 7;correct;runtime; -1439;Physical Chemistry(D. Farrington);3507;15. IONIC EQUILIBRIA;15.8;15.8. example 8;correct;runtime; -1439;Physical Chemistry(D. Farrington);3507;15. IONIC EQUILIBRIA;15.9;15.9. example 9;correct;runtime; -1439;Physical Chemistry(D. Farrington);3506;16. Quantum theory;16.1;16.1. example 1;correct;runtime; -1439;Physical Chemistry(D. Farrington);3506;16. Quantum theory;16.2;16.2. example 2;error;runtime; -1439;Physical Chemistry(D. Farrington);3505;18. SPECTROSCOPY;18.1;18.1. example 1;correct;runtime; -1439;Physical Chemistry(D. Farrington);3505;18. SPECTROSCOPY;18.2;18.2. example 2;correct;runtime; -1439;Physical Chemistry(D. Farrington);3505;18. SPECTROSCOPY;18.4;18.4. example 4;correct;runtime; -1439;Physical Chemistry(D. Farrington);3505;18. SPECTROSCOPY;18.5;18.5. example 5;correct;runtime; -1439;Physical Chemistry(D. Farrington);3505;18. SPECTROSCOPY;18.6;18.6. example 6;correct;runtime; -1439;Physical Chemistry(D. Farrington);3505;18. SPECTROSCOPY;18.7;18.7. example 7;correct;runtime; -1439;Physical Chemistry(D. Farrington);3505;18. SPECTROSCOPY;18.8;18.8. example 8;error;runtime; -1439;Physical Chemistry(D. Farrington);3505;18. SPECTROSCOPY;19.3;19.3. example 3;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1439/CH19/EX19.3/: PATH DOES NOT EXIST -1439;Physical Chemistry(D. Farrington);3518;19. STATISTICAL MECHANICS;19.1;19.1. example 1;correct;runtime; -1439;Physical Chemistry(D. Farrington);3518;19. STATISTICAL MECHANICS;19.2;19.2. example 2;correct;runtime; -1439;Physical Chemistry(D. Farrington);3518;19. STATISTICAL MECHANICS;19.4;19.4. example 4;correct;runtime; -1439;Physical Chemistry(D. Farrington);3504;20. MACROMOLECULES;20.1;20.1. example 1;correct;runtime; -1439;Physical Chemistry(D. Farrington);3504;20. MACROMOLECULES;20.2;20.2. example 2;correct;runtime; -1439;Physical Chemistry(D. Farrington);3504;20. MACROMOLECULES;20.3;20.3. example 3;correct;runtime; -1439;Physical Chemistry(D. Farrington);3504;20. MACROMOLECULES;20.4;20.4. example 4;correct;runtime; -1439;Physical Chemistry(D. Farrington);3504;20. MACROMOLECULES;20.5;20.5. example 5;correct;runtime; -1439;Physical Chemistry(D. Farrington);3502;21. SURFACE CHEMSITRY;21.1;21.1. example 1;correct;runtime; -1439;Physical Chemistry(D. Farrington);3502;21. SURFACE CHEMSITRY;21.2;21.2. example 2;correct;runtime; -1439;Physical Chemistry(D. Farrington);3501;22. CRYSTALS;23.1;23.1. example 1;correct;runtime; -1439;Physical Chemistry(D. Farrington);3500;23. KINETICSPHOTOCHEMISTRYRADIATIONCHEMISTRY;23.1;23.1. example 1;correct;runtime; -1439;Physical Chemistry(D. Farrington);3500;23. KINETICSPHOTOCHEMISTRYRADIATIONCHEMISTRY;23.2;23.2. example 2;correct;runtime; -1439;Physical Chemistry(D. Farrington);3500;23. KINETICSPHOTOCHEMISTRYRADIATIONCHEMISTRY;23.4;23.4. example 4;correct;runtime; -1439;Physical Chemistry(D. Farrington);3500;23. KINETICSPHOTOCHEMISTRYRADIATIONCHEMISTRY;23.5;23.5. example 5;correct;runtime; -1439;Physical Chemistry(D. Farrington);3499;24. NUCLEAR CHEMISTRY;24.1;24.1. example 1;correct;runtime; -1439;Physical Chemistry(D. Farrington);3499;24. NUCLEAR CHEMISTRY;24.2;24.2. example 2;correct;runtime; -1439;Physical Chemistry(D. Farrington);3499;24. NUCLEAR CHEMISTRY;24.3;24.3. example 3;correct;runtime; -1439;Physical Chemistry(D. Farrington);3499;24. NUCLEAR CHEMISTRY;24.4;24.4. example 4;correct;runtime; -1439;Physical Chemistry(D. Farrington);3499;24. NUCLEAR CHEMISTRY;24.5;24.5. example 5;correct;runtime; -1439;Physical Chemistry(D. Farrington);3499;24. NUCLEAR CHEMISTRY;24.6;24.6. example 6;correct;runtime; -1439;Physical Chemistry(D. Farrington);3499;24. NUCLEAR CHEMISTRY;24.8;24.8. example 8;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3382;2. Basic concepts;2.2;2.2. chapter 2 example 2;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3383;3. Work energy and heat first law of thermodynamics;3.3;3.3. chapter 3 example 3;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3383;3. Work energy and heat first law of thermodynamics;3.4;3.4. chapter 3 example 4;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3383;3. Work energy and heat first law of thermodynamics;3.5;3.5. chapter 3 example 5;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3383;3. Work energy and heat first law of thermodynamics;3.6;3.6. chapter 3 example 6;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3383;3. Work energy and heat first law of thermodynamics;3.7;3.7. chapter 3 example 7;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3384;4. simple systems;4.1;4.1. chapter 4 example 1;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3384;4. simple systems;4.12;4.12. chapter 4 example 12;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3384;4. simple systems;4.13;4.13. chapter 4 example 13;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3384;4. simple systems;4.14;4.14. chapter 4 example 14;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3384;4. simple systems;4.2;4.2. chapter 4 example 2;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3384;4. simple systems;4.3;4.3. chapter 4 example 3;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3384;4. simple systems;4.4;4.4. chapter 4 example 4;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3384;4. simple systems;4.5;4.5. chapter 4 example 5;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3384;4. simple systems;4.6;4.6. chapter 4 example 6;error;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3384;4. simple systems;4.7;4.7. chapter 4 example 7;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3384;4. simple systems;4.8;4.8. chapter 4 example 8;error;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3384;4. simple systems;4.9;4.9. chapter 4 example 9;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3385;5. Ideal Gas;5.1;5.1. chapter 5 example 1;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3385;5. Ideal Gas;5.3;5.3. chapter 5 example 3;error;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3385;5. Ideal Gas;5.4;5.4. chapter 5 example 4;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3385;5. Ideal Gas;5.5;5.5. chapter 5 example 5;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3385;5. Ideal Gas;5.6;5.6. chapter 5 example 6;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3385;5. Ideal Gas;5.7;5.7. chapter 5 example 7;error;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3387;6. Control Volume;6.1;6.1. chapter 6 example 1;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3387;6. Control Volume;6.2;6.2. chapter 6 example 2;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3387;6. Control Volume;6.3;6.3. chapter 6 example 3;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3387;6. Control Volume;6.4;6.4. chapter 6 example 4;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3387;6. Control Volume;6.5;6.5. chapter 6 example 5;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3387;6. Control Volume;6.6;6.6. chapter 6 example 6;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3388;7. Heat Engines and Second Law of Thermodynamics;7.1;7.1. chapter 7 example 1;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3388;7. Heat Engines and Second Law of Thermodynamics;7.4;7.4. chapter 7 example 4;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3389;8. Entropy ;8.1;8.1. chapter 8 example 1;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3389;8. Entropy ;8.2;8.2. chapter 8 example 2;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3389;8. Entropy ;8.3;8.3. chapter 8 example 3;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3389;8. Entropy ;8.4;8.4. chapter8example4;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3389;8. Entropy ;8.5;8.5. chapter8example5;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3389;8. Entropy ;8.6;8.6. chapter8example6;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3389;8. Entropy ;8.7;8.7. chapter8example7;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3389;8. Entropy ;8.8;8.8. chapter8example8;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3391;9. Applications of Second Law of Thermodynamics;9.1;9.1. chapter 9 example 1;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3391;9. Applications of Second Law of Thermodynamics;9.10;9.10. chapter 9 example 10;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3391;9. Applications of Second Law of Thermodynamics;9.2;9.2. chapter 9 example 2;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3391;9. Applications of Second Law of Thermodynamics;9.3;9.3. chapter 9 example 3;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3391;9. Applications of Second Law of Thermodynamics;9.4;9.4. chapter 9 example 4;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3391;9. Applications of Second Law of Thermodynamics;9.5;9.5. chapter 9 example 5;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3391;9. Applications of Second Law of Thermodynamics;9.6;9.6. chapter 9 example 6;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3391;9. Applications of Second Law of Thermodynamics;9.7;9.7. chapter 9 example 7;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3391;9. Applications of Second Law of Thermodynamics;9.8;9.8. chapter 9 example 8;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3391;9. Applications of Second Law of Thermodynamics;9.9;9.9. chapter 9 example 9;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3392;10. Availability Exergy and Irreversibility;10.1;10.1. chapter 10 example 1;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3392;10. Availability Exergy and Irreversibility;10.2;10.2. chapter 10 example 2;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3392;10. Availability Exergy and Irreversibility;10.3;10.3. chapter 10 example 3;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3392;10. Availability Exergy and Irreversibility;10.6;10.6. chapter 10 example 6;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3392;10. Availability Exergy and Irreversibility;10.8;10.8. chapter 10 example 8;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3393;11. Power and Refrigeration cycles;11.1;11.1. chapter 11 example1;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3393;11. Power and Refrigeration cycles;11.10;11.10. chapter 11 example 10;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3393;11. Power and Refrigeration cycles;11.11;11.11. chapter 11 example 11;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3393;11. Power and Refrigeration cycles;11.2;11.2. chapter 11 example 2;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3393;11. Power and Refrigeration cycles;11.3;11.3. chapter 11 example 3;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3393;11. Power and Refrigeration cycles;11.4;11.4. chapter 11 example4;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3393;11. Power and Refrigeration cycles;11.5;11.5. chapter 11 example 5;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3393;11. Power and Refrigeration cycles;11.6;11.6. chapter 11 example 6;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3393;11. Power and Refrigeration cycles;11.7;11.7. chapter 11 example 7;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3393;11. Power and Refrigeration cycles;11.8;11.8. chapter 11 example 8;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3393;11. Power and Refrigeration cycles;11.9;11.9. chapter 11 example 9;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3394;12. Ideal Gas Mixtures and Humid Air;12.1;12.1. chapter 12 example 1;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3394;12. Ideal Gas Mixtures and Humid Air;12.2;12.2. chapter 12 example 2;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3394;12. Ideal Gas Mixtures and Humid Air;12.3;12.3. chapter 12 example 3;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3394;12. Ideal Gas Mixtures and Humid Air;12.4;12.4. chapter 12 example 4;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3394;12. Ideal Gas Mixtures and Humid Air;12.5;12.5. chapter 12 example 5;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3394;12. Ideal Gas Mixtures and Humid Air;12.6;12.6. chapter 12 example 6;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3394;12. Ideal Gas Mixtures and Humid Air;12.7;12.7. chapter 12 example 7;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3408;13. Thermodynamic Relations ;13.2;13.2. chapter 13 exqample 2;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3408;13. Thermodynamic Relations ;13.3;13.3. chapter 13 exqample 3;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3408;13. Thermodynamic Relations ;13.4;13.4. chapter 13 example 4;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3408;13. Thermodynamic Relations ;13.7;13.7. chapter 13 example 7;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3409;14. Equations of state and Generalized Charts;14.2;14.2. chapter 14 example 2;error;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3409;14. Equations of state and Generalized Charts;14.3;14.3. chapter 14 example 3;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3409;14. Equations of state and Generalized Charts;14.4;14.4. chapter 14 example 4;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3409;14. Equations of state and Generalized Charts;14.5;14.5. chapter 14 example 5;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3409;14. Equations of state and Generalized Charts;14.6;14.6. chapter 14 example 6;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3409;14. Equations of state and Generalized Charts;14.7;14.7. chapter 14 example 7;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3410;15. Multicomponent Systems;15.1;15.1. chapter 15 example 1;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3410;15. Multicomponent Systems;15.3;15.3. chapter 15 example 3;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3411;16. Equilibrium ;16.1;16.1. chapter 16 example 1;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3411;16. Equilibrium ;16.2;16.2. chapter 16 example 2;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3412;17. Ideal solutions;17.1;17.1. chapter 17 example 1;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3412;17. Ideal solutions;17.2;17.2. chapter 17 example 2;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3412;17. Ideal solutions;17.3;17.3. chapter 17 example 3;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3412;17. Ideal solutions;17.4;17.4. chapter 17 example 4;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3412;17. Ideal solutions;17.5;17.5. chapter 17 example 5;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3412;17. Ideal solutions;17.6;17.6. chapter 17 example 6;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3413;18. Nonideal Solutions ;18.2;18.2. chapter 18 example 2;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3413;18. Nonideal Solutions ;18.3;18.3. chapter18 example 3;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3413;18. Nonideal Solutions ;18.5;18.5. chapter18 example 5;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3413;18. Nonideal Solutions ;18.6;18.6. chapter18 example 6;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3414;19. Chemical Reactions;19.1;19.1. chapter 19 example 1;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3414;19. Chemical Reactions;19.10;19.10. chapter 19 example 10;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3414;19. Chemical Reactions;19.11;19.11. chapter 19 example 11;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3414;19. Chemical Reactions;19.2;19.2. chapter 19 example 2;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3414;19. Chemical Reactions;19.3;19.3. chapter 19 example 3;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3414;19. Chemical Reactions;19.4;19.4. chapter 19 example 4;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3414;19. Chemical Reactions;19.6;19.6. chapter 19 example 6;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3414;19. Chemical Reactions;19.7;19.7. chapter 19 example 7;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3414;19. Chemical Reactions;19.8;19.8. chapter 19 example 8;correct;runtime; -1442;Thermodynamics: From Concepts To Applications(A. Shavit And C. Gutfinger);3414;19. Chemical Reactions;19.9;19.9. chapter 19 example 9;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3527;3. Three Phase AC Circuits;3.1;3.1. Identical impedances each consisting of 15 ohm in series;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3527;3. Three Phase AC Circuits;3.11;3.11. Balanced load of 20kVA;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3527;3. Three Phase AC Circuits;3.12;3.12. Three identical impedances each having a resistance R;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3527;3. Three Phase AC Circuits;3.2;3.2. Resistance and reactance values of each impedance;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3527;3. Three Phase AC Circuits;3.3;3.3. Three similar coils each of 30 ohms;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3527;3. Three Phase AC Circuits;3.4;3.4. Line and phase current when phase sequence is positive;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3527;3. Three Phase AC Circuits;3.5;3.5. Power measurement by 2 wattmeter method;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3527;3. Three Phase AC Circuits;3.6;3.6. 3300 V synchronous alternator;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3527;3. Three Phase AC Circuits;3.7;3.7. Three phase star connected system;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3527;3. Three Phase AC Circuits;3.8;3.8. Balanced delta connection;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3527;3. Three Phase AC Circuits;3.9;3.9. 400 V 50 Hz three phase supply;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3315;4. Measuring Instruments;4.1;4.1. Deflecting torque exerted on a coil;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3315;4. Measuring Instruments;4.10;4.10. Readings of two voltmeters;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3315;4. Measuring Instruments;4.11;4.11. Readings of two voltmeters with different internal resistances;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3315;4. Measuring Instruments;4.12;4.12. Total current carried by two ammeters;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3315;4. Measuring Instruments;4.2;4.2. Current through galvanometer;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3315;4. Measuring Instruments;4.3;4.3. Resistance of wire;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3315;4. Measuring Instruments;4.4;4.4. Resistance required to read current and voltage;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3315;4. Measuring Instruments;4.5;4.5. Number of revolutions made by energy meter and percentage error;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3315;4. Measuring Instruments;4.6;4.6. Series resistance to measure 500 V on full scale;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3315;4. Measuring Instruments;4.7;4.7. Percentage error of energy meter;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3315;4. Measuring Instruments;4.8;4.8. Resistance required to read current and voltage;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3315;4. Measuring Instruments;4.9;4.9. Percentage error of meter;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3482;6. Magnetic Circuits;6.1;6.1. Magnetic circuit having two air gaps;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3482;6. Magnetic Circuits;6.2;6.2. Steel ring of 25 cm mean diameter;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3482;6. Magnetic Circuits;6.3;6.3. Magnetic circuit with cast steel core;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3482;6. Magnetic Circuits;6.4;6.4. Iron ring made of round iron rod;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3482;6. Magnetic Circuits;6.5;6.5. Ring made of composite material;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.1;8.1. Generated emf;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.10;8.10. 6 pole DC machine with 400 conductors;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.11;8.11. Total emf generated in the armature;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.12;8.12. Terminal voltage of the machine ;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.13;8.13. Current in each conductor and emf generated;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.14;8.14. Armature resistance and load current at maximum efficiency;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.15;8.15. Full load speed;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.16;8.16. 250 V 4 pole shunt motor;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.17;8.17. 200 V DC shunt motor;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.18;8.18. Value of inserted resistance ;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.19;8.19. New speed of motor on inserting a 250 ohm resistance;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.2;8.2. Ratio of speed;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.20;8.20. Reduction of main flux to raise the speed by 50 percent;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.21;8.21. 10 kW 6 pole DC generator;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.22;8.22. Shunt wound motor running at 600 rpm from a 230 V supply;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.23;8.23. Value of inserted resistance in field circuit for increasing the speed;error;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.24;8.24. New speed of motor on inserting a 250 ohm resistance in the field circuit;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.25;8.25. 24 slot 2 pole DC machine;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.27;8.27. Counter emf of motor and power developed in armature;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.28;8.28. Voltage between far end of feeder and bus bar;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.29;8.29. Speed of motor when connected in series with 5 ohm resistance;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.3;8.3. Armature induced emf and developed torque and efficiency;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.30;8.30. Value of starting torque;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.31;8.31. Value of speed when flux is increased by 20 percent;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.32;8.32. 250 V series motor with 20 A current and 1000 rpm;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.33;8.33. Resistance to be added to obtain rated torque at starting and at 1000 rpm;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.34;8.34. Total emf and armature current;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.35;8.35. Armature current and induced emf;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.36;8.36. Constant losses and full load efficiency;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.37;8.37. Hysteresis and eddy current losses;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.38;8.38. Speed of motor when flux per pole is increased by 10 percent;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.4;8.4. Armature resistance and load current at maximum efficiency;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.5;8.5. BHP of prime mover;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.6;8.6. 20 HP 230 V 1150 rpm shunt motor;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.7;8.7. New operating speed;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.8;8.8. 250 V DC shunt machine;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3449;8. Direct Current Machines;8.9;8.9. Torque developed in the motor;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3481;10. Three Phase Induction Machines;10.10;10.10. 6 pole 60 Hz induction motor;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3481;10. Three Phase Induction Machines;10.11;10.11. 4 pole induction motor;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3481;10. Three Phase Induction Machines;10.12;10.12. 3 phase 440 V distribution;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3481;10. Three Phase Induction Machines;10.13;10.13. 3 phase 50 Hz induction motor;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3481;10. Three Phase Induction Machines;10.14;10.14. 10 kW 400 V delta connected induction motor;error;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3481;10. Three Phase Induction Machines;10.15;10.15. 4 pole 3 phase SRIM;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3481;10. Three Phase Induction Machines;10.16;10.16. 3 phase induction motor;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3481;10. Three Phase Induction Machines;10.2;10.2. 6 pole wound rotor induction motor;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3481;10. Three Phase Induction Machines;10.3;10.3. 3 phase induction motor running at 1140 rpm;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3481;10. Three Phase Induction Machines;10.4;10.4. 3 phase squirrel cage motor;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3481;10. Three Phase Induction Machines;10.5;10.5. Speed of motor;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3481;10. Three Phase Induction Machines;10.6;10.6. Speed of 4 pole induction motor;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3481;10. Three Phase Induction Machines;10.7;10.7. 4 pole 3 phase induction motor;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3481;10. Three Phase Induction Machines;10.8;10.8. 3 phase induction motor with synchronous speed 1200 rpm;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3481;10. Three Phase Induction Machines;10.9;10.9. 150 kW 6 pole star connected induction motor;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3378;11. Single Phase Induction Motor;11.1;11.1. Shaft torque;correct;runtime; -1445;Basics Of Electrical Engineering(S. Sharma);3378;11. Single Phase Induction Motor;11.2;11.2. Slip and resistance in forward and backward direction;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3169;1. The properties of gases;1.1.e;1.1.e. example 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3169;1. The properties of gases;1.2.i;1.2.i. illustration 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3169;1. The properties of gases;1.3.i;1.3.i. Illustration 3;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3169;1. The properties of gases;1.4.i;1.4.i. illustration 4;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3169;1. The properties of gases;1.5.i;1.5.i. illustration 5;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3170;2. Thermodynamics The first law;2.1.e;2.1.e. example 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3170;2. Thermodynamics The first law;2.1.i;2.1.i. illustration 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3170;2. Thermodynamics The first law;2.2.e;2.2.e. example 2 ;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3170;2. Thermodynamics The first law;2.4.i;2.4.i. illustration 4 ;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3171;3. Thermochemistry;3.1.e;3.1.e. example 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3171;3. Thermochemistry;3.1.i;3.1.i. illustration 1 ;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3171;3. Thermochemistry;3.2.e;3.2.e. example 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3171;3. Thermochemistry;3.3.e;3.3.e. example 3;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3171;3. Thermochemistry;3.4.e;3.4.e. example 4;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3171;3. Thermochemistry;3.5.e;3.5.e. Example 5;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3171;3. Thermochemistry;3.6.e;3.6.e. example 6;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3172;4. Thermodynamics The second law;4.1.e;4.1.e. example 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3172;4. Thermodynamics The second law;4.1.i;4.1.i. illustration 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3172;4. Thermodynamics The second law;4.2.e;4.2.e. example 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3172;4. Thermodynamics The second law;4.2.i;4.2.i. illustration 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3172;4. Thermodynamics The second law;4.3.i;4.3.i. illustration 3 ;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3173;6. The properties of mixtures;6.1.e;6.1.e. example 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3173;6. The properties of mixtures;6.2.e;6.2.e. example 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3173;6. The properties of mixtures;6.3.e;6.3.e. example 3;error;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3173;6. The properties of mixtures;6.4.e;6.4.e. example 4;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3173;6. The properties of mixtures;6.5.e;6.5.e. example 5;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3173;6. The properties of mixtures;6.6.e;6.6.e. example 6;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3174;7. Principles of chemical equilibrium;7.1.e;7.1.e. example 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3174;7. Principles of chemical equilibrium;7.2.e;7.2.e. example 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3174;7. Principles of chemical equilibrium;7.2.i;7.2.i. illustration 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3174;7. Principles of chemical equilibrium;7.3.e;7.3.e. example 3;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3174;7. Principles of chemical equilibrium;7.3.i;7.3.i. illustration 3;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3174;7. Principles of chemical equilibrium;7.4.e;7.4.e. example 4;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3174;7. Principles of chemical equilibrium;7.4.i;7.4.i. illustration 4;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3174;7. Principles of chemical equilibrium;7.5.e;7.5.e. example 5;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3176;8. Consequences of equilibrium;8.1.e;8.1.e. example 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3176;8. Consequences of equilibrium;8.1.i;8.1.i. illustration 1;error;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3176;8. Consequences of equilibrium;8.2.e;8.2.e. example 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3176;8. Consequences of equilibrium;8.2.i;8.2.i. illustration 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3176;8. Consequences of equilibrium;8.3.e;8.3.e. example 3;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3176;8. Consequences of equilibrium;8.5.e;8.5.e. example 5;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3177;9. Electrochemistry;9.1.e;9.1.e. example 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3177;9. Electrochemistry;9.1.i;9.1.i. illustration 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3177;9. Electrochemistry;9.10.e;9.10.e. example 10;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3177;9. Electrochemistry;9.11.e;9.11.e. example 11;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3177;9. Electrochemistry;9.2.i;9.2.i. illustration 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3177;9. Electrochemistry;9.6.e;9.6.e. example 6;error;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3177;9. Electrochemistry;9.7.e;9.7.e. example 7;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3177;9. Electrochemistry;9.8.e;9.8.e. example 8;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3177;9. Electrochemistry;9.9.e;9.9.e. example 9;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3178;10. The rates of reactions;10.1.e;10.1.e. example 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3178;10. The rates of reactions;10.1.i;10.1.i. illustration 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3178;10. The rates of reactions;10.2.e;10.2.e. example 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3178;10. The rates of reactions;10.2.i;10.2.i. illustration 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3178;10. The rates of reactions;10.3.e;10.3.e. example 3;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3179;11. Accounting for the rate laws;11.1.e;11.1.e. example 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3179;11. Accounting for the rate laws;11.1.i;11.1.i. illustration 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3179;11. Accounting for the rate laws;11.2.e;11.2.e. examlple 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3179;11. Accounting for the rate laws;11.2.i;11.2.i. illustration 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3179;11. Accounting for the rate laws;11.3.e;11.3.e. example 3;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3180;12. Quantum theory;12.1.e;12.1.e. example 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3180;12. Quantum theory;12.1.i;12.1.i. illustration 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3180;12. Quantum theory;12.2.e;12.2.e. example 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3180;12. Quantum theory;12.2.i;12.2.i. illustration 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3180;12. Quantum theory;12.3.e;12.3.e. example 3;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3180;12. Quantum theory;12.4.e;12.4.e. example 4;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3181;13. Atomic structure;13.2.i;13.2.i. illustration 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3181;13. Atomic structure;13.3.i;13.3.i. illustration 3;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3182;15. Metallic and Ionic solids;15.1.e;15.1.e. example 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3182;15. Metallic and Ionic solids;15.2.e;15.2.e. example 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3182;15. Metallic and Ionic solids;15.3.e;15.3.e. example 3;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3183;16. Molecular substances;16.1.e;16.1.e. example 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3183;16. Molecular substances;16.1.i;16.1.i. illustration 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3183;16. Molecular substances;16.2.e;16.2.e. example 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3183;16. Molecular substances;16.2.i;16.2.i. illustration 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3184;17. Molecular rotations and vibrations;17.1.e;17.1.e. example 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3184;17. Molecular rotations and vibrations;17.1.i;17.1.i. illustration 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3185;18. Electronic transistions;18.1.e;18.1.e. example 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3185;18. Electronic transistions;18.2.e;18.2.e. example 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3186;19. Magnetic resonance;19.2.i;19.2.i. illustration 2;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3187;20. Statistical thermodynamics;20.1.e;20.1.e. example 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3187;20. Statistical thermodynamics;20.1.i;20.1.i. illustration 1;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3187;20. Statistical thermodynamics;20.2.i;20.2.i. illustration 2;error;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3187;20. Statistical thermodynamics;20.3.e;20.3.e. example 3;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3187;20. Statistical thermodynamics;20.3.i;20.3.i. illustration 3;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3187;20. Statistical thermodynamics;20.5.e;20.5.e. example 5;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3188;21. Introduction;0.1.e;0.1.e. example 1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1448/CH0/EX0.1.e/: PATH DOES NOT EXIST -1448;Elements Of Physical Chemistry(P. Atkins);3188;21. Introduction;0.1.i;0.1.i. illustration 1;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1448/CH0/EX0.1.i/: PATH DOES NOT EXIST -1448;Elements Of Physical Chemistry(P. Atkins);3188;21. Introduction;20.2.i;20.2.i. illustration 2;error;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3188;21. Introduction;21.3.i;21.3.i. illustration 3;correct;runtime; -1448;Elements Of Physical Chemistry(P. Atkins);3188;21. Introduction;21.4.i;21.4.i. illustration 4;correct;runtime; -1460;Thermodynamics(F. P. Durham);3265;2. Types of energy;2.1;2.1. example 1;correct;runtime; -1460;Thermodynamics(F. P. Durham);3265;2. Types of energy;2.2;2.2. example 2;correct;runtime; -1460;Thermodynamics(F. P. Durham);3265;2. Types of energy;2.3;2.3. example 3;correct;runtime; -1460;Thermodynamics(F. P. Durham);3265;2. Types of energy;2.4;2.4. example 4;correct;runtime; -1460;Thermodynamics(F. P. Durham);3265;2. Types of energy;2.5;2.5. example 5;correct;runtime; -1460;Thermodynamics(F. P. Durham);3265;2. Types of energy;2.6;2.6. example 6;correct;runtime; -1460;Thermodynamics(F. P. Durham);3266;3. properties of thermodynamic media;3.1;3.1. example 1;correct;runtime; -1460;Thermodynamics(F. P. Durham);3266;3. properties of thermodynamic media;3.2;3.2. example 2;correct;runtime; -1460;Thermodynamics(F. P. Durham);3266;3. properties of thermodynamic media;3.3;3.3. example 3;correct;runtime; -1460;Thermodynamics(F. P. Durham);3266;3. properties of thermodynamic media;3.4;3.4. example 4;error;file_not_found;/var/www/scilab_in/uploads-backup/1460/CH3/EX3.4/ : NO SCILAB FILE INSIDE -1460;Thermodynamics(F. P. Durham);3267;4. The first law of thermodynamics;4.1;4.1. example 1;correct;runtime; -1460;Thermodynamics(F. P. Durham);3267;4. The first law of thermodynamics;4.2;4.2. example 2;correct;runtime; -1460;Thermodynamics(F. P. Durham);3267;4. The first law of thermodynamics;4.3;4.3. example 3;correct;runtime; -1460;Thermodynamics(F. P. Durham);3267;4. The first law of thermodynamics;4.4;4.4. example 4;correct;runtime; -1460;Thermodynamics(F. P. Durham);3267;4. The first law of thermodynamics;4.5;4.5. example 5;correct;runtime; -1460;Thermodynamics(F. P. Durham);3267;4. The first law of thermodynamics;4.6;4.6. example 6;correct;runtime; -1460;Thermodynamics(F. P. Durham);3267;4. The first law of thermodynamics;4.7;4.7. example 7;correct;runtime; -1460;Thermodynamics(F. P. Durham);3267;4. The first law of thermodynamics;4.8;4.8. example 8;correct;runtime; -1460;Thermodynamics(F. P. Durham);3267;4. The first law of thermodynamics;4.9;4.9. example 9;correct;runtime; -1460;Thermodynamics(F. P. Durham);3268;5. The second law of thermodynamics;5.1;5.1. example 1;correct;runtime; -1460;Thermodynamics(F. P. Durham);3268;5. The second law of thermodynamics;5.2;5.2. example 2;correct;runtime; -1460;Thermodynamics(F. P. Durham);3268;5. The second law of thermodynamics;5.3;5.3. example 3;correct;runtime; -1460;Thermodynamics(F. P. Durham);3269;6. The ideal gas;6.1;6.1. example 1;correct;runtime; -1460;Thermodynamics(F. P. Durham);3269;6. The ideal gas;6.2;6.2. example 2;correct;runtime; -1460;Thermodynamics(F. P. Durham);3269;6. The ideal gas;6.3;6.3. example 3;correct;runtime; -1460;Thermodynamics(F. P. Durham);3269;6. The ideal gas;6.4;6.4. example 4;correct;runtime; -1460;Thermodynamics(F. P. Durham);3269;6. The ideal gas;6.5;6.5. example 5;correct;runtime; -1460;Thermodynamics(F. P. Durham);3269;6. The ideal gas;6.6;6.6. example 6;correct;runtime; -1460;Thermodynamics(F. P. Durham);3269;6. The ideal gas;6.7;6.7. example 7;correct;runtime; -1460;Thermodynamics(F. P. Durham);3269;6. The ideal gas;6.8;6.8. example 8;correct;runtime; -1460;Thermodynamics(F. P. Durham);3269;6. The ideal gas;6.9;6.9. example 9;error;runtime; -1460;Thermodynamics(F. P. Durham);3270;7. Thermodynamic processes;7.1;7.1. example 1;correct;runtime; -1460;Thermodynamics(F. P. Durham);3270;7. Thermodynamic processes;7.10;7.10. example 10;correct;runtime; -1460;Thermodynamics(F. P. Durham);3270;7. Thermodynamic processes;7.11;7.11. example 11;correct;runtime; -1460;Thermodynamics(F. P. Durham);3270;7. Thermodynamic processes;7.12;7.12. example 12;correct;runtime; -1460;Thermodynamics(F. P. Durham);3270;7. Thermodynamic processes;7.2;7.2. example 2;correct;runtime; -1460;Thermodynamics(F. P. Durham);3270;7. Thermodynamic processes;7.3;7.3. example 3;correct;runtime; -1460;Thermodynamics(F. P. Durham);3270;7. Thermodynamic processes;7.4;7.4. example 4;correct;runtime; -1460;Thermodynamics(F. P. Durham);3270;7. Thermodynamic processes;7.5;7.5. example 5;correct;runtime; -1460;Thermodynamics(F. P. Durham);3270;7. Thermodynamic processes;7.6;7.6. example 6;correct;runtime; -1460;Thermodynamics(F. P. Durham);3270;7. Thermodynamic processes;7.7;7.7. example 7;correct;runtime; -1460;Thermodynamics(F. P. Durham);3270;7. Thermodynamic processes;7.8;7.8. example 8;correct;runtime; -1460;Thermodynamics(F. P. Durham);3270;7. Thermodynamic processes;7.9;7.9. example 9;correct;runtime; -1460;Thermodynamics(F. P. Durham);3271;8. Engine Cycles;8.1;8.1. example 1;correct;runtime; -1460;Thermodynamics(F. P. Durham);3271;8. Engine Cycles;8.2;8.2. example 2;correct;runtime; -1460;Thermodynamics(F. P. Durham);3271;8. Engine Cycles;8.3;8.3. example 3;correct;runtime; -1460;Thermodynamics(F. P. Durham);3271;8. Engine Cycles;8.4;8.4. example 4;correct;runtime; -1460;Thermodynamics(F. P. Durham);3271;8. Engine Cycles;8.5;8.5. example 5;correct;runtime; -1460;Thermodynamics(F. P. Durham);3271;8. Engine Cycles;8.6;8.6. example 6;correct;runtime; -1460;Thermodynamics(F. P. Durham);3272;9. Vapor power cycles;9.1;9.1. example 1;correct;runtime; -1460;Thermodynamics(F. P. Durham);3272;9. Vapor power cycles;9.2;9.2. example 2;correct;runtime; -1460;Thermodynamics(F. P. Durham);3272;9. Vapor power cycles;9.3;9.3. example 3;correct;runtime; -1460;Thermodynamics(F. P. Durham);3272;9. Vapor power cycles;9.4;9.4. example 4;correct;runtime; -1460;Thermodynamics(F. P. Durham);3274;10. Refrigeration;10.1;10.1. example 1;correct;runtime; -1460;Thermodynamics(F. P. Durham);3274;10. Refrigeration;10.2;10.2. example 2;correct;runtime; -1460;Thermodynamics(F. P. Durham);3274;10. Refrigeration;10.3;10.3. example 3;correct;runtime; -1460;Thermodynamics(F. P. Durham);3275;11. Nozzles and Jet propulsion;11.1;11.1. example 1;correct;runtime; -1460;Thermodynamics(F. P. Durham);3275;11. Nozzles and Jet propulsion;11.10;11.10. example 10;correct;runtime; -1460;Thermodynamics(F. P. Durham);3275;11. Nozzles and Jet propulsion;11.2;11.2. example 2;correct;runtime; -1460;Thermodynamics(F. P. Durham);3275;11. Nozzles and Jet propulsion;11.3;11.3. example 3;correct;runtime; -1460;Thermodynamics(F. P. Durham);3275;11. Nozzles and Jet propulsion;11.4;11.4. example 4;correct;runtime; -1460;Thermodynamics(F. P. Durham);3275;11. Nozzles and Jet propulsion;11.5;11.5. example 5;error;runtime; -1460;Thermodynamics(F. P. Durham);3275;11. Nozzles and Jet propulsion;11.6;11.6. example 6;correct;runtime; -1460;Thermodynamics(F. P. Durham);3275;11. Nozzles and Jet propulsion;11.7;11.7. example 7;correct;runtime; -1460;Thermodynamics(F. P. Durham);3275;11. Nozzles and Jet propulsion;11.8;11.8. example 8;correct;runtime; -1460;Thermodynamics(F. P. Durham);3275;11. Nozzles and Jet propulsion;11.9;11.9. example 9;correct;runtime; -1460;Thermodynamics(F. P. Durham);3277;12. Mixtures;12.1;12.1. example 1;correct;runtime; -1460;Thermodynamics(F. P. Durham);3277;12. Mixtures;12.10;12.10. example 10;correct;runtime; -1460;Thermodynamics(F. P. Durham);3277;12. Mixtures;12.11;12.11. example 11;correct;runtime; -1460;Thermodynamics(F. P. Durham);3277;12. Mixtures;12.3;12.3. example 3;correct;runtime; -1460;Thermodynamics(F. P. Durham);3277;12. Mixtures;12.4;12.4. example 4;correct;runtime; -1460;Thermodynamics(F. P. Durham);3277;12. Mixtures;12.5;12.5. example 5;correct;runtime; -1460;Thermodynamics(F. P. Durham);3277;12. Mixtures;12.6;12.6. example 6;correct;runtime; -1460;Thermodynamics(F. P. Durham);3277;12. Mixtures;12.7;12.7. example 7;correct;runtime; -1460;Thermodynamics(F. P. Durham);3277;12. Mixtures;12.8;12.8. example 8;correct;runtime; -1460;Thermodynamics(F. P. Durham);3277;12. Mixtures;12.9;12.9. example 9;correct;runtime; -1460;Thermodynamics(F. P. Durham);3278;13. Gas Dynamics;13.1;13.1. example 1;correct;runtime; -1460;Thermodynamics(F. P. Durham);3278;13. Gas Dynamics;13.2;13.2. example 2;correct;runtime; -1460;Thermodynamics(F. P. Durham);3278;13. Gas Dynamics;13.3;13.3. example 3;correct;runtime; -1460;Thermodynamics(F. P. Durham);3278;13. Gas Dynamics;13.4;13.4. example 4;correct;runtime; -1460;Thermodynamics(F. P. Durham);3278;13. Gas Dynamics;13.5;13.5. example 5;correct;runtime; -1460;Thermodynamics(F. P. Durham);3278;13. Gas Dynamics;13.6;13.6. example 6;correct;runtime; -1460;Thermodynamics(F. P. Durham);3279;14. Heat transfer;14.1;14.1. example 1;correct;runtime; -1460;Thermodynamics(F. P. Durham);3279;14. Heat transfer;14.2;14.2. example 2;correct;runtime; -1460;Thermodynamics(F. P. Durham);3279;14. Heat transfer;14.3;14.3. example 3;correct;runtime; -1460;Thermodynamics(F. P. Durham);3279;14. Heat transfer;14.4;14.4. example 4;correct;runtime; -1460;Thermodynamics(F. P. Durham);3279;14. Heat transfer;14.5;14.5. example 5;correct;runtime; -1460;Thermodynamics(F. P. Durham);3279;14. Heat transfer;14.6;14.6. example 6;correct;runtime; -1460;Thermodynamics(F. P. Durham);3279;14. Heat transfer;14.7;14.7. example 7;correct;runtime; -1460;Thermodynamics(F. P. Durham);3279;14. Heat transfer;14.8;14.8. example 8;correct;runtime; -1460;Thermodynamics(F. P. Durham);3279;14. Heat transfer;14.9;14.9. example 9;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3280;1. static pressure of a fluid;1.1;1.1. chapter 1 example 1;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3280;1. static pressure of a fluid;1.11;1.11. chapter 1 example 11;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3280;1. static pressure of a fluid;1.2;1.2. chapter 1 example 2;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3280;1. static pressure of a fluid;1.3;1.3. chapter 1 example 3;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3280;1. static pressure of a fluid;1.4;1.4. chapter 1 example 4;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3280;1. static pressure of a fluid;1.5;1.5. chapter 1 example 5;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3280;1. static pressure of a fluid;1.6;1.6. chapter 1 example 6;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3280;1. static pressure of a fluid;1.7;1.7. chapter 1 example 7;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3280;1. static pressure of a fluid;1.8;1.8. chapter 1 example 8;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3280;1. static pressure of a fluid;1.9;1.9. chapter 1 example 9;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3281;2. The Buancyoy of a fluid;2.1;2.1. chapter 2 example 1;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3281;2. The Buancyoy of a fluid;2.2;2.2. chapter 2 example 2;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3281;2. The Buancyoy of a fluid;2.3;2.3. chapter 2 example 3;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3281;2. The Buancyoy of a fluid;2.4;2.4. chapter 2 example 4;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3281;2. The Buancyoy of a fluid;2.6;2.6. chapter 2 example 6;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3282;3. The Flow Of a Fluid;3.1;3.1. chapter 3 example 1;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3282;3. The Flow Of a Fluid;3.10;3.10. chapter 3 example 10;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3282;3. The Flow Of a Fluid;3.11;3.11. chapter 3 example 11;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3282;3. The Flow Of a Fluid;3.13;3.13. chapter 3 example 13;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3282;3. The Flow Of a Fluid;3.2;3.2. chapter 3 example 2;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3282;3. The Flow Of a Fluid;3.3;3.3. chapter 3 example 3;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3282;3. The Flow Of a Fluid;3.4;3.4. chapter 3 example 4;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3282;3. The Flow Of a Fluid;3.5;3.5. chapter 3 example 5;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3282;3. The Flow Of a Fluid;3.6;3.6. chapter 3 example 6;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3282;3. The Flow Of a Fluid;3.7;3.7. chapter 3 example 7;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3282;3. The Flow Of a Fluid;3.8;3.8. chapter 3 example 8;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3282;3. The Flow Of a Fluid;3.9;3.9. chapter 3 example 9;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3283;4. Orifices and Mouthpieces;4.1;4.1. chapter 4 example 1;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3283;4. Orifices and Mouthpieces;4.10;4.10. chapter 4 example 10;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3283;4. Orifices and Mouthpieces;4.11;4.11. chapter 4 example 11;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3283;4. Orifices and Mouthpieces;4.2;4.2. chapter 4 example 2;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3283;4. Orifices and Mouthpieces;4.3;4.3. chapter 4 example 3;error;file_not_found;/var/www/scilab_in/uploads-backup/1466/CH4/EX4.3/ : NO SCILAB FILE INSIDE -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3283;4. Orifices and Mouthpieces;4.4;4.4. chapter 4 example 4;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3283;4. Orifices and Mouthpieces;4.5;4.5. chapter 4 example 5;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3283;4. Orifices and Mouthpieces;4.6;4.6. chapter 4 example 6;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3283;4. Orifices and Mouthpieces;4.8;4.8. chapter 4 example 8;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3283;4. Orifices and Mouthpieces;4.9;4.9. chapter 4 example 9;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3284;5. Notches And Weirs;5.1;5.1. chapter 5 example 1;error;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3284;5. Notches And Weirs;5.6;5.6. chapter 5 example 6;error;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3284;5. Notches And Weirs;5.7;5.7. chapter 5 example 7;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3284;5. Notches And Weirs;5.8;5.8. chapter 5 example 8;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3284;5. Notches And Weirs;5.9;5.9. chapter 5 example 9;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3285;6. Impact of jets;6.1;6.1. chapter 6 example 1;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3285;6. Impact of jets;6.2;6.2. chapter 6 example 2;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3285;6. Impact of jets;6.3;6.3. chapter 6 example 3;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3285;6. Impact of jets;6.4;6.4. chapter 6 example 4;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3285;6. Impact of jets;6.5;6.5. chapter 6 example 5;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3286;7. Friction and Flow through pipes;7.1;7.1. chapter 7 example 1;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3286;7. Friction and Flow through pipes;7.10;7.10. chapter 7 example 10;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3286;7. Friction and Flow through pipes;7.11;7.11. chapter 7 example 11;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3286;7. Friction and Flow through pipes;7.12;7.12. chapter 7 example 12;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3286;7. Friction and Flow through pipes;7.13;7.13. chapter 7 example 13;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3286;7. Friction and Flow through pipes;7.14;7.14. chapter 7 example 14;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3286;7. Friction and Flow through pipes;7.2;7.2. chapter 7 example 2;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3286;7. Friction and Flow through pipes;7.3;7.3. chapter 7 example 3;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3286;7. Friction and Flow through pipes;7.4;7.4. chapter 7 example 4;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3286;7. Friction and Flow through pipes;7.5;7.5. chapter 7 example 5;error;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3286;7. Friction and Flow through pipes;7.6;7.6. chapter 7 example 6;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3286;7. Friction and Flow through pipes;7.7;7.7. chapter 7 example 7;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3286;7. Friction and Flow through pipes;7.9;7.9. chapter 7 example 9;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3287;8. Viscous flow of fluids;8.1;8.1. chapter 8 example 1;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3287;8. Viscous flow of fluids;8.2;8.2. chapter 8 example 2;warning;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3287;8. Viscous flow of fluids;8.3;8.3. chapter 8 example 3;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3287;8. Viscous flow of fluids;8.4;8.4. chapter 8 example 4;error;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3287;8. Viscous flow of fluids;8.5;8.5. chapter 8 example 5;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3287;8. Viscous flow of fluids;8.6;8.6. chapter 8 example 6;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3287;8. Viscous flow of fluids;8.7;8.7. chapter 8 example 7;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3287;8. Viscous flow of fluids;8.8;8.8. chapter 8 example 8;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3288;9. Turbulent flow of fluids;9.1;9.1. chapter 9 example 1;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3288;9. Turbulent flow of fluids;9.2;9.2. chapter 9 example 2;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3289;10. flow through open channels;10.1;10.1. chapter 10 example 1;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3289;10. flow through open channels;10.3;10.3. chapter 10 example 3;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3289;10. flow through open channels;10.4;10.4. chapter 10 example 4;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3289;10. flow through open channels;10.5;10.5. chapter 10 example 5;error;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3289;10. flow through open channels;10.6;10.6. chapter 10 example 6;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3289;10. flow through open channels;10.7;10.7. chapter 10 example 7;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3289;10. flow through open channels;10.8;10.8. chapter 10 example 8;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3290;11. Dimensional Analysis;11.1;11.1. chapter 11 example 1;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3290;11. Dimensional Analysis;11.2;11.2. chapter 11 example 2;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3290;11. Dimensional Analysis;11.3;11.3. chapter 11 example 3;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3291;12. Dynamical similarity and model testing;12.1;12.1. chapter 12 example 1;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3291;12. Dynamical similarity and model testing;12.2;12.2. chapter 12 example 2;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3292;13. compressible fluids;13.2;13.2. chapter 13 example 2;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3292;13. compressible fluids;13.3;13.3. chapter 13 example 3;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3292;13. compressible fluids;13.4;13.4. chapter 13 example 4;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3292;13. compressible fluids;13.5;13.5. chapter 13 example 5;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3293;14. flow of gases;14.1;14.1. chapter 14 example 1;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3293;14. flow of gases;14.2;14.2. chapter 14 example 2;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3293;14. flow of gases;14.3;14.3. chapter 14 example 3;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3293;14. flow of gases;14.4;14.4. chapter 14 example 4;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3293;14. flow of gases;14.5;14.5. chapter 14 example 5;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3293;14. flow of gases;14.6;14.6. chapter 14 example 6;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3293;14. flow of gases;14.7;14.7. chapter 14 example 7;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3294;15. The Aerofoil And its Application;15.1;15.1. chapter 15 example 1;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3294;15. The Aerofoil And its Application;15.2;15.2. chapter 15 example 2;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3294;15. The Aerofoil And its Application;15.3;15.3. chapter 15 example 3;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3294;15. The Aerofoil And its Application;15.4;15.4. chapter 15 example 4;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3294;15. The Aerofoil And its Application;15.5;15.5. chapter 15 example 5;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3295;16. The Boundary Layer;16.1;16.1. chapter 16 example 1;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3296;18. flow of gases through pipes;18.1;18.1. chapter 18 example 1;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3296;18. flow of gases through pipes;18.2;18.2. chapter 18 example 2;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3296;18. flow of gases through pipes;18.3;18.3. chapter 18 example 3;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3296;18. flow of gases through pipes;18.4;18.4. chapter 18 example 4;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3297;19. flow of gases through tapering pipes;19.1;19.1. chapter 19 example 1;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3297;19. flow of gases through tapering pipes;19.2;19.2. chapter 19 example 2;error;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3298;20. hydraulic machines metres and valves;20.1;20.1. chapter 20 example 1;error;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3298;20. hydraulic machines metres and valves;20.2;20.2. chapter 20 example 2;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3298;20. hydraulic machines metres and valves;20.3;20.3. chapter 20 example 3;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3298;20. hydraulic machines metres and valves;20.4;20.4. chapter 20 example 4;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3298;20. hydraulic machines metres and valves;20.6;20.6. chapter 20 example 6;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3299;21. Reciprocating pumps;21.1;21.1. chapter 21 example 1;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3299;21. Reciprocating pumps;21.2;21.2. chapter 21 example 2;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3299;21. Reciprocating pumps;21.3;21.3. chapter 21 example 3;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3299;21. Reciprocating pumps;21.4;21.4. chapter 21 example 4;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3299;21. Reciprocating pumps;21.5;21.5. chapter 21 example 5;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3300;22. water turbines;22.1;22.1. chapter 22 example 1;error;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3300;22. water turbines;22.10;22.10. chapter 22 example 10;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3300;22. water turbines;22.2;22.2. chapter 22 example 2;error;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3300;22. water turbines;22.3;22.3. chapter 22 example 3;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3300;22. water turbines;22.4;22.4. chapter 22 example 4;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3300;22. water turbines;22.5;22.5. chapter 22 example 5;error;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3300;22. water turbines;22.6;22.6. chapter 22 example 6;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3300;22. water turbines;22.8;22.8. chapter 22 example 8;error;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3300;22. water turbines;22.9;22.9. chapter 22 example 9;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3301;23. centrifugal pumps;23.3;23.3. chapter 23 example 3;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3302;24. flow of gases through ducts and turbine pipes;24.1;24.1. chapter 24 example 1;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3302;24. flow of gases through ducts and turbine pipes;24.2;24.2. chapter 24 example 2;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3302;24. flow of gases through ducts and turbine pipes;24.3;24.3. chapter 24 example 3;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3302;24. flow of gases through ducts and turbine pipes;24.4;24.4. chapter 24 example 4;error;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3302;24. flow of gases through ducts and turbine pipes;24.5;24.5. chapter 24 example 5;correct;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3302;24. flow of gases through ducts and turbine pipes;24.6;24.6. chapter 24 example 6;error;runtime; -1466;Hydraulics And Fluid Mechanics(E. H. Lewitt);3302;24. flow of gases through ducts and turbine pipes;24.7;24.7. chapter 24 example 7;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3349;2. Work;2.1;2.1. example 1;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3349;2. Work;2.2;2.2. example 2;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3349;2. Work;2.3;2.3. example 3;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3350;3. Temperature and Heat;3.1;3.1. example 1;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3350;3. Temperature and Heat;3.2;3.2. example 2;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3350;3. Temperature and Heat;3.3;3.3. example 3;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3350;3. Temperature and Heat;3.4;3.4. example 4;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3350;3. Temperature and Heat;3.5;3.5. example 5;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3351;5. The first law of thermodynamics;5.1;5.1. example 1;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3351;5. The first law of thermodynamics;5.2;5.2. example 2;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3351;5. The first law of thermodynamics;5.3;5.3. example 3;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3351;5. The first law of thermodynamics;5.4.a;5.4.a. example 4;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3351;5. The first law of thermodynamics;5.4.b;5.4.b. example 5;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3352;6. Flow Procesess First law analysis;6.1;6.1. example 1;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3352;6. Flow Procesess First law analysis;6.2;6.2. example 2;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3352;6. Flow Procesess First law analysis;6.3;6.3. example 3;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3353;8. Basic applications of the second law;8.1;8.1. example 1;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3353;8. Basic applications of the second law;8.2;8.2. example 2;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3353;8. Basic applications of the second law;8.3;8.3. example 3;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3353;8. Basic applications of the second law;8.4;8.4. example 4;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3353;8. Basic applications of the second law;8.5;8.5. example 5;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3353;8. Basic applications of the second law;8.6;8.6. example 6;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3354;10. Tabulated properties Steam Tables;10.1;10.1. example 1;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3354;10. Tabulated properties Steam Tables;10.10;10.10. example 10;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3354;10. Tabulated properties Steam Tables;10.11;10.11. example 11;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3354;10. Tabulated properties Steam Tables;10.2;10.2. example 2;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3354;10. Tabulated properties Steam Tables;10.3;10.3. example 3;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3354;10. Tabulated properties Steam Tables;10.4;10.4. example 4;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3354;10. Tabulated properties Steam Tables;10.5;10.5. example 5;error;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3354;10. Tabulated properties Steam Tables;10.6;10.6. example 6;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3354;10. Tabulated properties Steam Tables;10.7;10.7. example 7;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3354;10. Tabulated properties Steam Tables;10.8;10.8. example 8;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3355;11. Properties of Gases;11.1;11.1. example 1;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3355;11. Properties of Gases;11.2;11.2. example 2;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3355;11. Properties of Gases;11.4;11.4. example 4;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3355;11. Properties of Gases;11.5.a;11.5.a. example 5;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3355;11. Properties of Gases;11.5.b;11.5.b. example 6;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3355;11. Properties of Gases;11.5.c;11.5.c. example 7;error;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3356;12. Properties of Gaseous Mixtures;12.1;12.1. example 1;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3356;12. Properties of Gaseous Mixtures;12.2;12.2. example 2;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3357;13. process calculations for stationary systems;13.1.a;13.1.a. example 1;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3357;13. process calculations for stationary systems;13.1.b;13.1.b. example 2;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3357;13. process calculations for stationary systems;13.2.a;13.2.a. example 2;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3357;13. process calculations for stationary systems;13.2.b;13.2.b. example 4;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3357;13. process calculations for stationary systems;13.3.a;13.3.a. example 5;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3357;13. process calculations for stationary systems;13.3.b;13.3.b. example 6;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3357;13. process calculations for stationary systems;13.4.a;13.4.a. example 7;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3357;13. process calculations for stationary systems;13.4.b;13.4.b. example 8;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3357;13. process calculations for stationary systems;13.5.a;13.5.a. example 9;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3357;13. process calculations for stationary systems;13.5.b;13.5.b. example 10;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3357;13. process calculations for stationary systems;13.6.a;13.6.a. example 11;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3357;13. process calculations for stationary systems;13.6.b;13.6.b. example 12;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3358;14. Vapor cycles rankine cycle;14.1;14.1. example 1;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3358;14. Vapor cycles rankine cycle;14.2;14.2. example 2;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3358;14. Vapor cycles rankine cycle;14.3.a;14.3.a. example 3;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3358;14. Vapor cycles rankine cycle;14.3.b;14.3.b. example 4;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3359;15. Vapor cycles More efficient cycles;15.1;15.1. example 1;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3359;15. Vapor cycles More efficient cycles;15.2.a;15.2.a. example 2;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3359;15. Vapor cycles More efficient cycles;15.2.b;15.2.b. example 3;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3360;16. Gas cycles;16.1.a;16.1.a. example 1;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3360;16. Gas cycles;16.1.b;16.1.b. example 2;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3360;16. Gas cycles;16.2;16.2. example 3;error;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3361;17. Fluid Flow Nozzles and Orifices;17.1.a;17.1.a. example 1;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3361;17. Fluid Flow Nozzles and Orifices;17.1.b;17.1.b. example 2;error;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3361;17. Fluid Flow Nozzles and Orifices;17.2;17.2. example 2;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3361;17. Fluid Flow Nozzles and Orifices;17.3.a;17.3.a. example 4;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3361;17. Fluid Flow Nozzles and Orifices;17.3.b;17.3.b. example 5;error;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3362;18. Turbines;18.1;18.1. example 1;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3362;18. Turbines;18.2;18.2. example 2;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3363;19. Reciprocating expanders and compressors;19.1;19.1. example 1;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3363;19. Reciprocating expanders and compressors;19.2;19.2. example 2;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3364;21. Gas compression;21.1;21.1. example 1;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3364;21. Gas compression;21.2;21.2. example 2;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3364;21. Gas compression;21.3;21.3. example 3;error;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3364;21. Gas compression;21.4;21.4. example 4;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3364;21. Gas compression;21.5;21.5. example 5;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3365;22. Combustion Processes First law analysis;22.10;22.10. example 6;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3365;22. Combustion Processes First law analysis;22.5;22.5. example 1;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3365;22. Combustion Processes First law analysis;22.6;22.6. example 2;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3365;22. Combustion Processes First law analysis;22.7;22.7. example 3;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3365;22. Combustion Processes First law analysis;22.8;22.8. example 4;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3365;22. Combustion Processes First law analysis;22.9;22.9. example 5;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3366;23. Internal combustion power plants;23.1;23.1. example 1;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3366;23. Internal combustion power plants;23.2;23.2. example 2;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3366;23. Internal combustion power plants;23.3;23.3. example 3;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3366;23. Internal combustion power plants;23.4;23.4. example 4;error;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3367;24. Refrigeration;24.1;24.1. example 1;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3368;25. Air water vapor mixtures;25.1;25.1. example 1;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3368;25. Air water vapor mixtures;25.2;25.2. example 2;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3368;25. Air water vapor mixtures;25.3;25.3. example 3;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3368;25. Air water vapor mixtures;25.4;25.4. example 4;correct;runtime; -1472;Mechanical Engineering Thermodynamics(D. A. Mooney);3368;25. Air water vapor mixtures;25.5;25.5. example 5;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.10;1.10. Obtaining Head in single toss;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.11;1.11. Two unbiased coin are tossed;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.12;1.12. A die is tossed;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.13;1.13. When two unbiased coins are tossed;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.14;1.14. Two coins are tossed;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.15;1.15. Two dices with faces marked are thrown simultaneously;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.16;1.16. A bag contains 6 white and 4 blacks balls;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.17;1.17. 2 balls are drawn from a bag containing 3 white and 5 black balls;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.18;1.18. Two cards are drawn from a full pack of 52 cards;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.19;1.19. All 3 children in a family have different birthdays;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.20;1.20. Five Persons A B C D E occupy seats in a row at random;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.21;1.21. A batch contains 10 articles of which 4 are defective;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.22;1.22. 10 distinguishable ball are distributed at random into 4 boxes;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.23;1.23. If 10 persons are arranged at random;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.24;1.24. X and Y stand in aline with 10 other people;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.25;1.25. X and Y are seated at random at a round table;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.26;1.26. A lady declares that by testing a cup of tea with milk;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.27;1.27. A box contains twenty tickets of identical appearance;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.28;1.28. Four Cards are drawn at random from a full pack;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.31;1.31. 10 dissimilar balls are distributed at random into 4 boxes ar marked A B C D;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.32;1.32. 10 identical balls are distributed at random into 4 boxes ar marked A B C D;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.35;1.35. Find the values of following probabilites;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.36;1.36. Are A and B independent;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.39;1.39. The odds in favour of an event A are;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.40;1.40. A card is drawn from each of two well shuffled cards;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.41;1.41. An Article manufacture by company consists of two parts;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.42;1.42. One urn contains 2 white and 2 black balls;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.43;1.43. A salesman has a 80 percent chance of making a sale to each customer;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.44;1.44. There is 50 50 chance that a contractors firm A will bid for construction;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.45;1.45. Two players A and B toss a die alternately;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.47;1.47. A bag contains 8 white and 6 black balls;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.48;1.48. Five men in a compan of 20 are graduated;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.49;1.49. A bag contains 8 red and 5 white balls;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.50;1.50. Four cards are drawn from a full pack;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.52;1.52. A coin is tossed 10 times;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.53;1.53. The probabibility that an entering college student;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.54;1.54. A machine produces on the average 2 per cent defectives;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.55;1.55. Two boxes contain respectively 4 white and 2 black;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.56;1.56. Three identical boxes I II III;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.57;1.57. In a bolt factory the machines;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.58;1.58. An unbiased die is thrown ;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.59;1.59. A box contains 4 white 6 black balls;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.60;1.60. A man purchases a lottery ticket in which he win;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.61;1.61. Two dice with faces numbered 1 to 6;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.62;1.62. A man tosses a coin twice ;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.63;1.63. A man has the choice of running either a hot snack stall;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.66;1.66. 1000 patients sufferring from disease;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.67;1.67. There are 3 children in a family;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.68;1.68. Two urns marked I and II;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3223;1. Theory of Probability;1.69;1.69. There are 3 children in a family;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3474;2. Theoretical Distributions ;2.10;2.10. the overall percentage of failure;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3474;2. Theoretical Distributions ;2.13;2.13. Arithmetic mean and standard deviation of a binomial distribution;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3474;2. Theoretical Distributions ;2.15;2.15. A random variable x follow Poisson distribution;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3474;2. Theoretical Distributions ;2.16;2.16. A business firm receives on an average ;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3474;2. Theoretical Distributions ;2.2;2.2. A random variable has the following proabability distribution;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3474;2. Theoretical Distributions ;2.20;2.20. In turning out certain toys;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3474;2. Theoretical Distributions ;2.21;2.21. 2 percent of items made by a machine are defective;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3474;2. Theoretical Distributions ;2.22;2.22. Two defective tube lights are mixed;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3474;2. Theoretical Distributions ;2.23;2.23. A dice is rolled 6 times;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3474;2. Theoretical Distributions ;2.24;2.24. A box contains 4 white 3 black and 5 red ball;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3474;2. Theoretical Distributions ;2.35;2.35. If a continuous random variable x follows rectangular distribution;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3474;2. Theoretical Distributions ;2.36;2.36. The height distribution of a group of 10000 men;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3474;2. Theoretical Distributions ;2.37;2.37. The mean weight of 500 male students;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3474;2. Theoretical Distributions ;2.38;2.38. A sample of 100 dry battery ;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3474;2. Theoretical Distributions ;2.42;2.42. A fair coin is tossed 400 times;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3474;2. Theoretical Distributions ;2.43;2.43. A variable x follows Poisson distribution;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3474;2. Theoretical Distributions ;2.6;2.6. If a discrete random varaiable x follows;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3474;2. Theoretical Distributions ;2.8;2.8. Three coins are tossed;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3474;2. Theoretical Distributions ;2.9;2.9. Five coins are tossed 3200 times;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3495;3. Sampling Theory;3.14;3.14. A simple random sample of size is 5;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3495;3. Sampling Theory;3.15;3.15. The safety limit of a crane is known to be 32 tons;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3495;3. Sampling Theory;3.16;3.16. It has been found 2 percent of tools;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3495;3. Sampling Theory;3.26;3.26. The mean of a certain normal distribution is equal to the standard error;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3497;5. Analysis of Variance;5.1;5.1. A random sample of five motor car tyres;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3497;5. Analysis of Variance;5.2;5.2. An Experimenter wished to study the effect of 4 fertilizers;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3497;5. Analysis of Variance;5.3;5.3. Each of the following sets of observation is a random sample;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3497;5. Analysis of Variance;5.4;5.4. There experimenters determine the moisture content of samples of power;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3528;6. Time Series;6.11;6.11. Calculate the five year Moving Average;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3528;6. Time Series;6.12;6.12. Find the trend for the following;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3528;6. Time Series;6.13;6.13. Find the trend for the following using 3 year weighted moving average;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3528;6. Time Series;6.15;6.15. Compute the trend by the method of moving averages;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3528;6. Time Series;6.23;6.23. The trend equation fitted to annual average;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3528;6. Time Series;6.24;6.24. Trend equation for certain production;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3528;6. Time Series;6.29;6.29. A certain company estimates its average monthly sales in a particular year;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3528;6. Time Series;6.30;6.30. Deseasonalise the following sales data;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3528;6. Time Series;6.31;6.31. Sales of a company rose ;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3528;6. Time Series;6.33;6.33. Compute the average seasonal movements by the method of quarterly total for the following series of observation;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3528;6. Time Series;6.34;6.34. Calculate the seasonal indices in the case of the following;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3528;6. Time Series;6.35;6.35. Obtain seasonal fluctuation from the following time series;error;runtime; -1475;Statistical Methods Volume II(N G Das);3528;6. Time Series;6.36;6.36. Deseasonalize the following production data;error;runtime; -1475;Statistical Methods Volume II(N G Das);3528;6. Time Series;6.37;6.37. find the seasonal indices by the method ;error;runtime; -1475;Statistical Methods Volume II(N G Das);3528;6. Time Series;6.40;6.40. Compute Seasonal Indices from the data ;error;runtime; -1475;Statistical Methods Volume II(N G Das);3516;8. Vital Statistics;8.1;8.1. From the following data;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3516;8. Vital Statistics;8.10;8.10. Calculate Gross Reproduction Rate and Net Reproduction Rate;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3516;8. Vital Statistics;8.2;8.2. Calculate Standarised Death Rates for Town I and Town II;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3516;8. Vital Statistics;8.3;8.3. Given that the crude death rate of standard population ;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3516;8. Vital Statistics;8.5;8.5. From the life table we have the following table;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3516;8. Vital Statistics;8.6;8.6. In 1981 a city had a total of 507;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3516;8. Vital Statistics;8.7;8.7. Calculate General fertility Rate;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3516;8. Vital Statistics;8.8;8.8. Calculate the Gross Reproduction Rate Reproduction Rate and Net;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3516;8. Vital Statistics;8.9;8.9. From the following table calculate TFR GRR NRR;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3517;9. Statistical Quality Control;9.1;9.1. In order to construct a control a contol Chart;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3517;9. Statistical Quality Control;9.3;9.3. The table below shows the thickness of mica discs produced in a machine;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3517;9. Statistical Quality Control;9.4;9.4. Based on 15 subgroups each of size 200 taken at intervals;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3517;9. Statistical Quality Control;9.5;9.5. In a glass factory the task of qauality;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3517;9. Statistical Quality Control;9.6;9.6. Measurements on average x and range ;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3517;9. Statistical Quality Control;9.7;9.7. The following figures give the number of defectives in 20 sample;correct;runtime; -1475;Statistical Methods Volume II(N G Das);3517;9. Statistical Quality Control;9.9;9.9. The following are the numbers of defects noted in 20 hundred ;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.1;2.18.1. hardness calculation;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.10;2.18.10. hardness calculation;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.11;2.18.11. hardness calculation;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.12;2.18.12. hardness calculation by EDTA method;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.13;2.18.13. hardness calculation by EDTA method;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.14;2.18.14. hardness calculation by EDTA method;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.15;2.18.15. hardness calculation by EDTA method;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.16;2.18.16. hardness calculation by EDTA method;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.17;2.18.17. hardness calculation by EDTA method;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.18;2.18.18. hardness calculation by EDTA method;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.19;2.18.19. hardness calculation by EDTA method;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.2;2.18.2. hardness calculation;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.20;2.18.20. hardness calculation by EDTA method;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.20.A;2.18.20.A. hardness calculation by EDTA method;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.20.B;2.18.20.B. hardness calculation by EDTA method;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.21;2.18.21. calculation of required lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.22;2.18.22. cost of lime and soda required;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.23;2.18.23. calculation of required lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.24;2.18.24. calculation of required lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.25;2.18.25. cost of lime and soda required;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.26;2.18.26. quantity of lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.27;2.18.27. quantity of lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.28;2.18.28. quantity of lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.29;2.18.29. quantity of lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.3;2.18.3. hardness calculation;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.30;2.18.30. quantity of lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.31;2.18.31. calculation of required lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.32;2.18.32. calculation of required lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.33;2.18.33. calculation of required lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.34;2.18.34. quantity of lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.35;2.18.35. quantity of lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.36;2.18.36. quantity of lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.37;2.18.37. quantity of lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.38;2.18.38. calculation of required lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.39;2.18.39. calculation of required lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.4;2.18.4. hardness calculation;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.40;2.18.40. calculation of required lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.41;2.18.41. calculation of required lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.42;2.18.42. calculation of required lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.43;2.18.43. calculation of required lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.44;2.18.44. calculation of required lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.44.A;2.18.44.A. calculation of required lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.44.B;2.18.44.B. calculation of required lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.44.C;2.18.44.C. calculation of required lime and soda;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.44.D;2.18.44.D. Calculation of hardness using Zeolite process;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.45;2.18.45. Hardwater quantity softened using Zeolite process;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.46;2.18.46. NaCl required for zeolite bed regeneration;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.47;2.18.47. NaCl required for zeolite bed regeneration;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.48;2.18.48. Calculation of hardness using Zeolite process;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.49;2.18.49. Calculation of hardness using Zeolite process;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.5;2.18.5. hardness calculation;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.50;2.18.50. Calculation of hardness using Zeolite process;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.51;2.18.51. Hardwater quantity softened using Zeolite process;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.52;2.18.52. Hardwater quantity softened using Zeolite process;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.53;2.18.53. Calculation of hardness using Zeolite process;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.54;2.18.54. Hardwater quantity softened using Zeolite process;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.55;2.18.55. Hardwater quantity softened using Zeolite process;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.56;2.18.56. Hardwater quantity softened using Zeolite process;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.57;2.18.57. Calculation of hardness using Zeolite process;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.6;2.18.6. hardness calculation;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.7;2.18.7. hardness in different systems;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.7.A;2.18.7.A. hardness calculation;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.8;2.18.8. hardness in different systems;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3325;2. Water and its Treatment;2.18.9;2.18.9. hardness in different systems;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3335;3. Lubricants;3.7.1;3.7.1. Saponification value of oil;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3335;3. Lubricants;3.7.10;3.7.10. Acid value of oil;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3335;3. Lubricants;3.7.11;3.7.11. Acid value of oil;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3335;3. Lubricants;3.7.12;3.7.12. Acid value of oil;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3335;3. Lubricants;3.7.13;3.7.13. Acid value of oil;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3335;3. Lubricants;3.7.14;3.7.14. Acid value of oil;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3335;3. Lubricants;3.7.15;3.7.15. Acid value of oil;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3335;3. Lubricants;3.7.16;3.7.16. Acid value of oil;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3335;3. Lubricants;3.7.17;3.7.17. Acid value of oil;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3335;3. Lubricants;3.7.2;3.7.2. Alcoholic KOH consumed in Saponification;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3335;3. Lubricants;3.7.3;3.7.3. Saponification value of oil;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3335;3. Lubricants;3.7.4;3.7.4. Saponification value of oil;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3335;3. Lubricants;3.7.5;3.7.5. Saponification value of oil;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3335;3. Lubricants;3.7.6;3.7.6. Saponification value of oil;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3335;3. Lubricants;3.7.7;3.7.7. Saponification value of oil;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3335;3. Lubricants;3.7.8;3.7.8. Saponification value of oil;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3335;3. Lubricants;3.7.9;3.7.9. Saponification of blended oils;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3335;3. Lubricants;3.7.9.A;3.7.9.A. Saponification value of oil;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3335;3. Lubricants;3.7.9.B;3.7.9.B. Saponification value of oil;correct;runtime; -1478;Applied Chemistry(J. A. Parikh);3333;5. Phase rule and steels;5.1;5.1. Eutectic in alloy;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3243;2. Basic concepts;2.2;2.2. chapter 2 example 2;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3245;3. Work energy and heat first law of thermodynamics;3.3;3.3. chapter 3 example 3;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3245;3. Work energy and heat first law of thermodynamics;3.4;3.4. chapter 3 example 4;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3245;3. Work energy and heat first law of thermodynamics;3.5;3.5. chapter 3 example 5;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3245;3. Work energy and heat first law of thermodynamics;3.6;3.6. chapter 3 example 6;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3245;3. Work energy and heat first law of thermodynamics;3.7;3.7. chapter 3 example 7;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3246;4. simple systems;4.1;4.1. chapter 4 example 1;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3246;4. simple systems;4.12;4.12. chapter 4 example 12;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3246;4. simple systems;4.13;4.13. chapter 4 example 13;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3246;4. simple systems;4.14;4.14. chapter 4 example 14;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3246;4. simple systems;4.2;4.2. chapter 4 example 2;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3246;4. simple systems;4.3;4.3. chapter 4 example 3;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3246;4. simple systems;4.4;4.4. chapter 4 example 4;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3246;4. simple systems;4.5;4.5. chapter 4 example 5;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3246;4. simple systems;4.6;4.6. chapter 4 example 6;error;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3246;4. simple systems;4.7;4.7. chapter 4 example 7;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3246;4. simple systems;4.8;4.8. chapter 4 example 8;error;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3246;4. simple systems;4.9;4.9. chapter 4 example 9;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3244;5. Ideal Gas;5.1;5.1. chapter 5 example 1;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3244;5. Ideal Gas;5.3;5.3. chapter 5 example 3;error;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3244;5. Ideal Gas;5.4;5.4. chapter 5 example 4;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3244;5. Ideal Gas;5.5;5.5. chapter 5 example 5;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3244;5. Ideal Gas;5.6;5.6. chapter 5 example 6;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3244;5. Ideal Gas;5.7;5.7. chapter 5 example 7;error;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3247;6. Control Volume;6.1;6.1. chapter 6 example 1;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3247;6. Control Volume;6.2;6.2. chapter 6 example 2;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3247;6. Control Volume;6.3;6.3. chapter 6 example 3;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3247;6. Control Volume;6.4;6.4. chapter 6 example 4;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3247;6. Control Volume;6.5;6.5. chapter 6 example 5;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3247;6. Control Volume;6.6;6.6. chapter 6 example 6;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3248;7. Heat Engines and Second Law of Thermodynamics;7.1;7.1. chapter 7 example 1;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3248;7. Heat Engines and Second Law of Thermodynamics;7.4;7.4. chapter 7 example 4;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3249;8. Entropy;8.1;8.1. chapter 8 example 1;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3249;8. Entropy;8.2;8.2. chapter 8 example 2;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3249;8. Entropy;8.3;8.3. chapter 8 example 3;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3249;8. Entropy;8.4;8.4. chapter 8 example 4;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3249;8. Entropy;8.5;8.5. chapter 8 example 5;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3249;8. Entropy;8.6;8.6. chapter 8 example 6;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3249;8. Entropy;8.7;8.7. chapter 8 example 7;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3249;8. Entropy;8.8;8.8. chapter 8 example 8;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3250;9. Applications of Second Law of Thermodynamics;9.1;9.1. chapter 9 example 1;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3250;9. Applications of Second Law of Thermodynamics;9.10;9.10. chapter 9 example 10;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3250;9. Applications of Second Law of Thermodynamics;9.2;9.2. chapter 9 example 2;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3250;9. Applications of Second Law of Thermodynamics;9.3;9.3. chapter 9 example 3;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3250;9. Applications of Second Law of Thermodynamics;9.4;9.4. chapter 9 example 4;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3250;9. Applications of Second Law of Thermodynamics;9.5;9.5. chapter 9 example 5;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3250;9. Applications of Second Law of Thermodynamics;9.6;9.6. chapter 9 example 6;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3250;9. Applications of Second Law of Thermodynamics;9.7;9.7. chapter 9 example 7;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3250;9. Applications of Second Law of Thermodynamics;9.8;9.8. chapter 9 example 8;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3250;9. Applications of Second Law of Thermodynamics;9.9;9.9. chapter 9 example 9;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3251;10. Availability Exergy and Irreversibility;10.1;10.1. chapter 10 example 1;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3251;10. Availability Exergy and Irreversibility;10.2;10.2. chapter 10 example 2;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3251;10. Availability Exergy and Irreversibility;10.3;10.3. chapter 10 example 3;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3251;10. Availability Exergy and Irreversibility;10.4;10.4. chapter 10 example 4;error;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3251;10. Availability Exergy and Irreversibility;10.6;10.6. chapter 10 example 6;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3251;10. Availability Exergy and Irreversibility;10.7;10.7. chapter 10 example 7;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3251;10. Availability Exergy and Irreversibility;10.8;10.8. chapter 10 example 8;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3252;11. Power and Refrigeration cycles;11.1;11.1. chapter 11 example1;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3252;11. Power and Refrigeration cycles;11.10;11.10. chapter 11 example 10;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3252;11. Power and Refrigeration cycles;11.11;11.11. chapter 11 example 11;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3252;11. Power and Refrigeration cycles;11.2;11.2. chapter 11 example 2;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3252;11. Power and Refrigeration cycles;11.3;11.3. chapter 11 example 3;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3252;11. Power and Refrigeration cycles;11.4;11.4. chapter 11 example4;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3252;11. Power and Refrigeration cycles;11.5;11.5. chapter 11 example 5;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3252;11. Power and Refrigeration cycles;11.6;11.6. chapter 11 example 6;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3252;11. Power and Refrigeration cycles;11.7;11.7. chapter 11 example 7;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3252;11. Power and Refrigeration cycles;11.8;11.8. chapter 11 example 8;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3252;11. Power and Refrigeration cycles;11.9;11.9. chapter 11 example 9;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3253;12. Ideal Gas Mixtures and Humid Air;12.1;12.1. chapter 12 example 1;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3253;12. Ideal Gas Mixtures and Humid Air;12.2;12.2. chapter 12 example 2;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3253;12. Ideal Gas Mixtures and Humid Air;12.3;12.3. chapter 12 example 3;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3253;12. Ideal Gas Mixtures and Humid Air;12.4;12.4. chapter 12 example 4;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3253;12. Ideal Gas Mixtures and Humid Air;12.5;12.5. chapter 12 example 5;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3253;12. Ideal Gas Mixtures and Humid Air;12.6;12.6. chapter 12 example 6;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3253;12. Ideal Gas Mixtures and Humid Air;12.7;12.7. chapter 12 example 7;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3254;13. Thermodynamic Relations;13.2;13.2. chapter 13 example 2;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3254;13. Thermodynamic Relations;13.3;13.3. chapter 13 example 3;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3254;13. Thermodynamic Relations;13.4;13.4. chapter 13 example 4;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3254;13. Thermodynamic Relations;13.7;13.7. chapter 13 example 7;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3255;14. Equations of state and Generalized Charts;14.2;14.2. chapter 14 example 2;error;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3255;14. Equations of state and Generalized Charts;14.3;14.3. chapter 14 example 3;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3255;14. Equations of state and Generalized Charts;14.4;14.4. chapter 14 example 4;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3255;14. Equations of state and Generalized Charts;14.5;14.5. chapter 14 example 5;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3255;14. Equations of state and Generalized Charts;14.6;14.6. chapter 14 example 6;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3255;14. Equations of state and Generalized Charts;14.7;14.7. chapter 14 example 7;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3256;15. Multicomponent Systems;15.1;15.1. chapter 15 example 1;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3256;15. Multicomponent Systems;15.3;15.3. chapter 15 example 3;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3257;16. Equilibrium;16.1;16.1. chapter 16 example 1;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3257;16. Equilibrium;16.2;16.2. chapter 16 example 2;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3258;17. Ideal solutions;17.1;17.1. chapter 17 example 1;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3258;17. Ideal solutions;17.2;17.2. chapter 17 example 2;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3258;17. Ideal solutions;17.3;17.3. chapter 17 example 3;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3258;17. Ideal solutions;17.4;17.4. chapter 17 example 4;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3258;17. Ideal solutions;17.5;17.5. chapter 17 example 5;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3258;17. Ideal solutions;17.6;17.6. chapter 17 example 6;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3259;18. Nonideal Solutions;18.2;18.2. chapter 18 example 2;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3259;18. Nonideal Solutions;18.3;18.3. chapter 18 example 3;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3259;18. Nonideal Solutions;18.5;18.5. chapter 18 example 5;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3259;18. Nonideal Solutions;18.6;18.6. chapter 18 example 6;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3260;19. Chemical Reactions;19.1;19.1. chapter 19 example 1;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3260;19. Chemical Reactions;19.10;19.10. chapter 19 example 10;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3260;19. Chemical Reactions;19.11;19.11. chapter 19 example 11;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3260;19. Chemical Reactions;19.2;19.2. chapter 19 example 2;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3260;19. Chemical Reactions;19.3;19.3. chapter 19 example 2;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3260;19. Chemical Reactions;19.4;19.4. chapter 19 example 4;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3260;19. Chemical Reactions;19.6;19.6. chapter 19 example 6;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3260;19. Chemical Reactions;19.7;19.7. chapter 19 example 7;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3260;19. Chemical Reactions;19.8;19.8. chapter 19 example 8;correct;runtime; -1484;Hydraulics Made Easy(R. S. Dighe);3260;19. Chemical Reactions;19.9;19.9. chapter 19 example 9;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3451;1. Electron Dynamics and CRO;1.1;1.1. speed of electon in electric field;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3451;1. Electron Dynamics and CRO;1.10;1.10. distance travelled in helical path;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3451;1. Electron Dynamics and CRO;1.11;1.11. Deflection sensitivity;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3451;1. Electron Dynamics and CRO;1.12;1.12. displacement angle and velocity of electron in CRT;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3451;1. Electron Dynamics and CRO;1.13;1.13. Calculation of transverse magnetic field;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3451;1. Electron Dynamics and CRO;1.14;1.14. effect of earths magnetic filed on deflection in CRT;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3451;1. Electron Dynamics and CRO;1.2;1.2. speed of electron and position of applied AC voltage point;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3451;1. Electron Dynamics and CRO;1.3;1.3. effect of electric filed on electron;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3451;1. Electron Dynamics and CRO;1.4;1.4. calculation of potential ;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3451;1. Electron Dynamics and CRO;1.5;1.5. Application of magnetic field on electron;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3451;1. Electron Dynamics and CRO;1.6;1.6. calculation of transit time;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3451;1. Electron Dynamics and CRO;1.7;1.7. time of flight under electric field;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3451;1. Electron Dynamics and CRO;1.8;1.8. velocity of electron;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3451;1. Electron Dynamics and CRO;1.9;1.9. application of electric and magnetic filed;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.1;2.1. radius of the lowest state of Ground State;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.10;2.10. Work function and wavelength;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.11;2.11. effect of temperature on emission;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.12;2.12. RF voltage frequency in cyclotron;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.13;2.13. Emission current and cathode efficiency;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.14;2.14. resistivity of doped material;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.15;2.15. conductivity and resistivity of pure silicon;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.16;2.16. concentration of free electrons and holes;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.17;2.17. concentration of free electrons and holes;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.18;2.18. concentration of free electrons and holes in p type Ge and n type Si;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.19;2.19. conduction current density;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.2;2.2. no of photons emitted per second by lamp;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.20;2.20. concentration of free electrons and holes in Ge;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.21;2.21. intrinic concentration and conductivity of Germanium;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.22;2.22. resistivity of intrinsic Germanium at room temperature;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.23;2.23. Fermi level of p type Ge;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.24;2.24. Distance of Fermi level from centre of forbidden bond;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.25;2.25. Temperature for which conduction band and fermi level coincides;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.26;2.26. distance between valence band and Fermi level;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.27;2.27. doping concentration for given fermi level;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.28;2.28. Distance of Fermi level from centre of forbidden bond;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.29;2.29. Einstein relationship;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.3;2.3. Speed of ejected electron;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.30;2.30. Hall Effect;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.31;2.31. Reverse saturation current in diode;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.32;2.32. AC and DC resistance of Ge diode;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.33;2.33. width of the depletion layer;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.34;2.34. dynamic forward and reverse resistance of a p n junction diode;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.35;2.35. zener breakdown voltage;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.36;2.36. Effect of bias on capacitance of a diode;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.37;2.37. Zener As voltage regulator ;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.39;2.39. Zener As voltage regulator;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.4;2.4. speed of electron in sodium vapour lamp;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.40;2.40. forward snd reverse current ratios;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.41;2.41. PN junction diode as Resistance;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.42;2.42. Zener As voltage regulator;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.5;2.5. radio transmitter;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.6;2.6. Neon Ionization ;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.8;2.8. wavelength of photon;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3452;2. Junction Diode Characteristics;2.9;2.9. High field emission;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3453;3. Rectifiers Filters and Regulators;3.1;3.1. Ripple Factor;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3453;3. Rectifiers Filters and Regulators;3.10;3.10. Half Wave Rectifier;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3453;3. Rectifiers Filters and Regulators;3.11;3.11. FWR with C type capacitor filter;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3453;3. Rectifiers Filters and Regulators;3.12;3.12. Full wave rectifier circuit;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3453;3. Rectifiers Filters and Regulators;3.13;3.13. Shunt regulator;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3453;3. Rectifiers Filters and Regulators;3.2;3.2. diode as a rectifier;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3453;3. Rectifiers Filters and Regulators;3.4;3.4. Full scale reading of voltmeter;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3453;3. Rectifiers Filters and Regulators;3.5;3.5. FWR with LC filter;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3453;3. Rectifiers Filters and Regulators;3.6;3.6. Ripple Factor;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3453;3. Rectifiers Filters and Regulators;3.7;3.7. power supply using pi filter;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3453;3. Rectifiers Filters and Regulators;3.8;3.8. Diode rating for FWR;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3453;3. Rectifiers Filters and Regulators;3.9;3.9. FWR with C type capacitor filter;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3454;4. Transistor Characteristics;4.1;4.1. minimum base current to work transistor in saturation region;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3454;4. Transistor Characteristics;4.10;4.10. Av Ai and Ap of transistor in CB configuration;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3454;4. Transistor Characteristics;4.11;4.11. Av Ai and Ap of Transistor in CE configuration;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3454;4. Transistor Characteristics;4.12;4.12. Junction voltages for open collector transistor;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3454;4. Transistor Characteristics;4.13;4.13. variation in Vi corresponding to variation in Vo;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3454;4. Transistor Characteristics;4.14;4.14. Design of bias circuit for zero drain current drift;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3454;4. Transistor Characteristics;4.15;4.15. pinch off voltage;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3454;4. Transistor Characteristics;4.16;4.16. pinch off voltage;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3454;4. Transistor Characteristics;4.17;4.17. pinch off voltage and channel half width;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3454;4. Transistor Characteristics;4.20;4.20. design of self bias circuit;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3454;4. Transistor Characteristics;4.21;4.21. Voltage gain and output impedance of common source amplifier;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3454;4. Transistor Characteristics;4.22;4.22. calculation of Vgs Id and Vds;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3454;4. Transistor Characteristics;4.5;4.5. maximum allowable value of RB for transistor in cut off;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3454;4. Transistor Characteristics;4.6;4.6. temperature increase before transistor comes of cut off;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3454;4. Transistor Characteristics;4.7;4.7. calculation of ib ic and vbc for transistor AF 114;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3454;4. Transistor Characteristics;4.8;4.8. calculation of resistance in CE configuration;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3454;4. Transistor Characteristics;4.9;4.9. Barrier Potential;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3455;5. Transistor biasing and Stabilization;5.1;5.1. Quiescent Point and Stability Factor of CE amplifier;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3455;5. Transistor biasing and Stabilization;5.10;5.10. designing of self bias circuit of given specification;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3455;5. Transistor biasing and Stabilization;5.11;5.11. Q point and stability for self bias arrangement;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3455;5. Transistor biasing and Stabilization;5.12;5.12. Stability factor and thermal resistance;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3455;5. Transistor biasing and Stabilization;5.13;5.13. DC input resistance of a JFET;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3455;5. Transistor biasing and Stabilization;5.14;5.14. V0 for a JFET amplifier;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3455;5. Transistor biasing and Stabilization;5.2;5.2. Stability Factor;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3455;5. Transistor biasing and Stabilization;5.3;5.3. Stability Factor and Quiescent Point;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3455;5. Transistor biasing and Stabilization;5.5;5.5. Stability factor and Rb for 2N780 connected in collector to base bias;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3455;5. Transistor biasing and Stabilization;5.6;5.6. Stability factor and Rb for CE configuration;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3455;5. Transistor biasing and Stabilization;5.7;5.7. calculation of parameters of two identical Si transistors;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3455;5. Transistor biasing and Stabilization;5.8;5.8. Quiescent Point and Stability Factor for self bias arrangment;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3455;5. Transistor biasing and Stabilization;5.9;5.9. Self bias circuit design when Q point and stability are given;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3457;6. Amplifiers;6.1;6.1. conversion efficiency;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3457;6. Amplifiers;6.2;6.2. calculation of different parameters of CC circuit;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3457;6. Amplifiers;6.4;6.4. calculation of different parameters of CE circuit;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3457;6. Amplifiers;6.5;6.5. calculation of different parameters of CC circuit;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3457;6. Amplifiers;6.7;6.7. maximum value of RL in CE configuration;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3457;6. Amplifiers;6.8;6.8. voltage gains Avs Av1 and Av2 for given circuit;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3458;7. Feedback Amplifiers;7.1;7.1. determination of various parameters of feedback amplifiers;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3458;7. Feedback Amplifiers;7.2;7.2. percentage variation in Avdash;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3458;7. Feedback Amplifiers;7.3;7.3. reverse transmission factor and gain with feedback;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3458;7. Feedback Amplifiers;7.4;7.4. Improvement in stability;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3458;7. Feedback Amplifiers;7.5;7.5. Overall gain and reverse transmission factor;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3458;7. Feedback Amplifiers;7.6;7.6. different parameeters with and without negative feedback;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3458;7. Feedback Amplifiers;7.7;7.7. Avf Rof and Rif for the voltage series feedback;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3458;7. Feedback Amplifiers;7.8;7.8. current series feedack;correct;runtime; -1511;Electronic Devices And Circuits(K. L. Kishore);3458;7. Feedback Amplifiers;7.9;7.9. calculation of Avf and Rif for given circuit;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3425;1. OSCILLATION AND WAVES;1.1;1.1. Time period of SHM;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3425;1. OSCILLATION AND WAVES;1.2;1.2. Accelertion and maximum velocity in SHM;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3425;1. OSCILLATION AND WAVES;1.3;1.3. Damped Vibrating System;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3425;1. OSCILLATION AND WAVES;1.4;1.4. Amplitude and Time Period in SHM;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3425;1. OSCILLATION AND WAVES;1.5;1.5. Oscillation of a spring mass system;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3425;1. OSCILLATION AND WAVES;1.6;1.6. Frequency of visible region;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3425;1. OSCILLATION AND WAVES;1.7;1.7. Characteristics of sound wave;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3425;1. OSCILLATION AND WAVES;1.8;1.8. Equation of a wave moving along X axis;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3425;1. OSCILLATION AND WAVES;1.9;1.9. Wave in the wire;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3426;2. ELECTROMAGNETIC THEORY;2.1;2.1. Peak value of displacement current;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3426;2. ELECTROMAGNETIC THEORY;2.2;2.2. Displacement current density in a good conductor;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3426;2. ELECTROMAGNETIC THEORY;2.4;2.4. Poynting vector;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3426;2. ELECTROMAGNETIC THEORY;2.5;2.5. Plane electromagnetic wave in a medium;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3429;3. INTERFERENCE;3.1;3.1. Wavelength of Light using Young Double Slit experiment;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3429;3. INTERFERENCE;3.10;3.10. Shift in movable mirror of Michelson Interferometer;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3429;3. INTERFERENCE;3.2;3.2. Fringe shift due to change in wavelength;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3429;3. INTERFERENCE;3.3;3.3. Refractive index from double slit experiment;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3429;3. INTERFERENCE;3.4;3.4. Interference by thin soap film;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3429;3. INTERFERENCE;3.5;3.5. Interference due to thin air wedge;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3429;3. INTERFERENCE;3.6;3.6. Separation between consecutive bright fringes formed by an air wedge;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3429;3. INTERFERENCE;3.7;3.7. Newton Rings by reflected light;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3429;3. INTERFERENCE;3.8;3.8. Refractive index from Newton Rings arrangement;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3429;3. INTERFERENCE;3.9;3.9. Wavelength of light using Michelson Interferometer;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3430;4. DIFFRACTION;4.1;4.1. Diffraction at a single slit;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3430;4. DIFFRACTION;4.2;4.2. Diffraction at a circular aperture;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3430;4. DIFFRACTION;4.3;4.3. Second order maximum for diffraction grating;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3430;4. DIFFRACTION;4.4;4.4. The highest spectral order with diffraction grating;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3430;4. DIFFRACTION;4.5;4.5. Overlapping spectra with diffraction grating;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3430;4. DIFFRACTION;4.6;4.6. Width of first order spectrum;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3430;4. DIFFRACTION;4.7;4.7. Resolution of wavelengths for grating;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3430;4. DIFFRACTION;4.8;4.8. Angular separation to satisfy Rayleigh criterion;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3430;4. DIFFRACTION;4.9;4.9. Linear separation between two points;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3431;5. POLARIZATION;5.1;5.1. Polarization by reflection;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3431;5. POLARIZATION;5.2;5.2. Percentage transmission of polarized light;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3431;5. POLARIZATION;5.3;5.3. Thickness of Quarter Wave Plate;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3431;5. POLARIZATION;5.4;5.4. Behaviour of half wave plate for increased wavelength;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3431;5. POLARIZATION;5.5;5.5. Phase retardation for quartz;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3431;5. POLARIZATION;5.6;5.6. Brewster angle at the boundary between two materials;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3432;6. CRYSTALLOGRAPHY;6.1;6.1. Lattice parameter of NaCl crystal;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3432;6. CRYSTALLOGRAPHY;6.10;6.10. X ray Diffraction by crystal planes;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3432;6. CRYSTALLOGRAPHY;6.11;6.11. Maximum order of diffraction;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3432;6. CRYSTALLOGRAPHY;6.12;6.12. Bragg reflection angle for the second order diffraction;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3432;6. CRYSTALLOGRAPHY;6.13;6.13. Distance between nearest neighbours of NaCl;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3432;6. CRYSTALLOGRAPHY;6.14;6.14. Effect of structural change on volume;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3432;6. CRYSTALLOGRAPHY;6.2;6.2. Miller indices of the crystal plane;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3432;6. CRYSTALLOGRAPHY;6.3;6.3. Indices of lattice plane;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3432;6. CRYSTALLOGRAPHY;6.5;6.5. Interplanar spacing in cubic crystal;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3432;6. CRYSTALLOGRAPHY;6.6;6.6. Interplanar spacing in cubic crystal;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3432;6. CRYSTALLOGRAPHY;6.7;6.7. ngle of reflection by using wavelength of X ray;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3432;6. CRYSTALLOGRAPHY;6.8;6.8. Actual volume occupied by the spheres in fcc structure;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3432;6. CRYSTALLOGRAPHY;6.9;6.9. X ray Diffraction by crystal planes;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3432;6. CRYSTALLOGRAPHY;7.1;7.1. Variation of critical magnetic field with temperature;error;file_not_found;file not found for/var/www/scilab_in/uploads-backup/1535/CH7/EX7.1/: PATH DOES NOT EXIST -1535;Engineering Physics(G. Aruldhas);3433;7. SUPERCONDUCTIVITY;7.2;7.2. Frequency of Josephson current;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3433;7. SUPERCONDUCTIVITY;7.3;7.3. Superconducting energy gap at 0K;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3433;7. SUPERCONDUCTIVITY;7.4;7.4. Wavelength of photon to break up a Cooper pair;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3433;7. SUPERCONDUCTIVITY;7.5;7.5. Variation of London penetration depth with temperature;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3433;7. SUPERCONDUCTIVITY;7.6;7.6. Isotope Effect in mercury;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3434;8. SPECIAL THEORY OF RELATIVITY;8.1;8.1. Relativistic length contraction;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3434;8. SPECIAL THEORY OF RELATIVITY;8.10;8.10. Rate of decreasing mass of sun;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3434;8. SPECIAL THEORY OF RELATIVITY;8.11;8.11. Relativistic mass energy relation;error;runtime; -1535;Engineering Physics(G. Aruldhas);3434;8. SPECIAL THEORY OF RELATIVITY;8.13;8.13. Mass from relativistic energy;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3434;8. SPECIAL THEORY OF RELATIVITY;8.14;8.14. Relativistic momentum of high speed probe;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3434;8. SPECIAL THEORY OF RELATIVITY;8.15;8.15. Moving electron subjected to the electric field;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3434;8. SPECIAL THEORY OF RELATIVITY;8.2;8.2. Time Dilation;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3434;8. SPECIAL THEORY OF RELATIVITY;8.4;8.4. Relativistic velocity addition;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3434;8. SPECIAL THEORY OF RELATIVITY;8.5;8.5. Relativistic effects as observed for spaceship;error;runtime; -1535;Engineering Physics(G. Aruldhas);3434;8. SPECIAL THEORY OF RELATIVITY;8.6;8.6. Time difference and distance between the events;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3434;8. SPECIAL THEORY OF RELATIVITY;8.7;8.7. Speed of unstable particle in the Laboratory frame;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3434;8. SPECIAL THEORY OF RELATIVITY;8.8;8.8. Relativistic effects applied to mu meson;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3434;8. SPECIAL THEORY OF RELATIVITY;8.9;8.9. Speed of moving mass;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3435;9. QUANTUM MECHANICS;9.1;9.1. De broglie wavelength of an electron from accelerating potential;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3435;9. QUANTUM MECHANICS;9.14;9.14. Probability of electron moving in 1D box;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3435;9. QUANTUM MECHANICS;9.2;9.2. De broglie wavelength of an electron from kinetic energy;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3435;9. QUANTUM MECHANICS;9.4;9.4. Uncertainty principle for position and momentum;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3435;9. QUANTUM MECHANICS;9.5;9.5. Uncertainty principle for energy and time;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3435;9. QUANTUM MECHANICS;9.6;9.6. Width of spectral line from Uncertainty principle;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3436;10. STATISTICAL MECHANICS;10.1;10.1. Ratio of occupancy of two states;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3436;10. STATISTICAL MECHANICS;10.4;10.4. Number density and fermi energy of silver;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3436;10. STATISTICAL MECHANICS;10.5;10.5. Electronic contribution to the molar heat capacity of silver ;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3436;10. STATISTICAL MECHANICS;10.6;10.6. Fermi energy and mean energy of aluminium;error;runtime; -1535;Engineering Physics(G. Aruldhas);3437;11. LASERS;11.1;11.1. Ratio of spontaneous and stimulated emission;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3437;11. LASERS;11.2;11.2. Energy of excited state of laser system;error;runtime; -1535;Engineering Physics(G. Aruldhas);3437;11. LASERS;11.3;11.3. Condition of equivalence of stimulated and spontaneous emission;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3437;11. LASERS;11.4;11.4. Area and intensity of image formed by laser;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3437;11. LASERS;11.5;11.5. Rate of energy released in a pulsed laser;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3437;11. LASERS;11.6;11.6. Angular and linear spread of laser beam;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3438;12. HOLOGRAPHY AND FIBRE OPTICS;12.1;12.1. Parameters of step index fibre;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3438;12. HOLOGRAPHY AND FIBRE OPTICS;12.2;12.2. Parameters of optical fibre;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3438;12. HOLOGRAPHY AND FIBRE OPTICS;12.3;12.3. Numerical aperture and acceptance angle of step index fibre;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3438;12. HOLOGRAPHY AND FIBRE OPTICS;12.5;12.5. Output power in fibre optic communication;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3439;13. DIELECTRIC PROPERTIES OF MATERIALS;13.1;13.1. Electronic Polarizability of atom;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3439;13. DIELECTRIC PROPERTIES OF MATERIALS;13.2;13.2. Parallel plate capacitor;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3439;13. DIELECTRIC PROPERTIES OF MATERIALS;13.3;13.3. Dielectric displacement of medium;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3439;13. DIELECTRIC PROPERTIES OF MATERIALS;13.4;13.4. Relative dielectric constant;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3439;13. DIELECTRIC PROPERTIES OF MATERIALS;13.5;13.5. Atomic polarizability of sulphur;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3439;13. DIELECTRIC PROPERTIES OF MATERIALS;13.6;13.6. Electronic polarizability from refractive index;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3439;13. DIELECTRIC PROPERTIES OF MATERIALS;13.7;13.7. Ratio of electronic polarizability to ionic polarizability;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3440;14. MAGNETIC PROPERTIES OF MATERIALS;14.1;14.1. Spontaneous magnetisation of the substance;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3440;14. MAGNETIC PROPERTIES OF MATERIALS;14.2;14.2. Relative permeability of ferromagnetic material;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3440;14. MAGNETIC PROPERTIES OF MATERIALS;14.3;14.3. Relative permeability from magnetisation;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3440;14. MAGNETIC PROPERTIES OF MATERIALS;14.4;14.4. Magnetic flux density and magnetisation of diamagnetic material;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3440;14. MAGNETIC PROPERTIES OF MATERIALS;14.5;14.5. Magnetisation Magnetic flux density relative permeability of diamagnetic material;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3440;14. MAGNETIC PROPERTIES OF MATERIALS;14.6;14.6. Mean radius of body centered cubic structure;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3440;14. MAGNETIC PROPERTIES OF MATERIALS;14.7;14.7. Susceptibility and magnetisation of paramagnetic salt;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3441;15. THERMAL PROPERTIES;15.1;15.1. Debye temperature of aluminium;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3441;15. THERMAL PROPERTIES;15.2;15.2. Lattice specific heat of carbon;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3441;15. THERMAL PROPERTIES;15.3;15.3. Einstein frequency for Cu;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3441;15. THERMAL PROPERTIES;15.4;15.4. Electronic and lattice heat capacities for Cu;error;runtime; -1535;Engineering Physics(G. Aruldhas);3441;15. THERMAL PROPERTIES;15.5;15.5. Einstein lattice specific heat;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3441;15. THERMAL PROPERTIES;15.6;15.6. Molar electronic heat capacity of zinc;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3442;17. ULTRASONICS;17.1;17.1. Thickness of vibrating quartz at resonance;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3443;18. ACOUSTICS OF BUILDINGS;18.1;18.1. Output power of the sound source;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3443;18. ACOUSTICS OF BUILDINGS;18.2;18.2. Change in sound level for doubling intensity;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3443;18. ACOUSTICS OF BUILDINGS;18.3;18.3. Total absorption of sound in the hall;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3443;18. ACOUSTICS OF BUILDINGS;18.4;18.4. Average absorption coefficient of the surfaces of the hall;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3443;18. ACOUSTICS OF BUILDINGS;18.5;18.5. Reverbration time for the hall;correct;runtime; -1535;Engineering Physics(G. Aruldhas);3443;18. ACOUSTICS OF BUILDINGS;18.6;18.6. Gain of resultant sound intensity;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.1;1.1. To find generated emf;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.10;1.10. To calculate the properties of shunt generator;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.11;1.11. To calculate the back emf and total mechanical power;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.12;1.12. To find the change in back emf;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.13;1.13. To find the speed of the motor;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.14;1.14. To find the armature resistance and maximum armature current;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.15;1.15. To find the back emf;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.16;1.16. To find the total power developed;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.17;1.17. To find the armature torque and armature current;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.18;1.18. To calculate the current taken and diameter of the motor pulley;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.19;1.19. To calculate the armature torque and horse power;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.2;1.2. To calculate induced emf and armature current;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.20;1.20. To find the armature torque;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.21;1.21. To determine the speed and electro magnetic torque;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.22;1.22. To calculate the speed of the motor;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.23;1.23. To calculate the speed of a motor;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.24;1.24. To calculate the speed;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.25;1.25. To find the speed and torque;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.26;1.26. To find the efficiency of the motor;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.27;1.27. To calculate the properties of shunt motor;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.28;1.28. To find the speed and load current and speed regulation;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.29;1.29. To find the change in speed;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.3;1.3. To calculate induced emf and armature current;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.30;1.30. To find the resistance to be included;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.31;1.31. To find the resistance required;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.32;1.32. To find the additional field resistance to be included;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.33;1.33. To find the speed;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.34;1.34. To find the properties of shunt motor;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.35;1.35. To find the torque and power and speed;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.36;1.36. To find the series resistance required;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.37;1.37. To find the series resistance to be added;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.38;1.38. To find the resistance to be connected;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.38;1.38. No example;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.4;1.4. To calculate the total power delivered;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.5;1.5. To calculate the emf generated;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.6;1.6. To calculate the speed;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.7;1.7. To calculate the flux per pole;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.8;1.8. To calculate the terminal voltage;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3559;1. DC Machines;1.9;1.9. To calculate the speed;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.1;2.1. Number of turns and full load current;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.10;2.10. Primary current and power factor;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.11;2.11. Properties of an ideal step up transformer;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.12;2.12. Primary current and peak value of flux;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.13;2.13. Secondary voltage and primary and secondary current;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.14;2.14. Primary current;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.15;2.15. Power delivered and current taken;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.16;2.16. Parameters of a transformer;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.17;2.17. Parameters of a transformer;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.18;2.18. Parameters of a transformer;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.19;2.19. Priamary and secondary resistance and reactance;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.2;2.2. Properties of an ideal transformer;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.20;2.20. Primary voltage and power factor and efficiency;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.21;2.21. Primary induced emf and current;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.22;2.22. Induced emf in the secondary;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.23;2.23. Primary currrent;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.24;2.24. Secondary voltage and primary current;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.25;2.25. Efficiency and regulation ;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.26;2.26. Secondary terminal voltage at full load;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.27;2.27. Voltage regulation;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.28;2.28. Voltage regulation;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.29;2.29. Power factor and regulation;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.3;2.3. Number of turns and induced emf;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.30;2.30. Parameters of a transformer;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.31;2.31. Primary voltage and power factor;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.32;2.32. Equivalent resistance and leakage reactance;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.33;2.33. Efficiency of transformer;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.34;2.34. Parameters of a transformer;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.35;2.35. Efficiency at full load;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.36;2.36. Secondary current and maximum efficiency;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.37;2.37. Constant losses and full load copper losses;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.38;2.38. All day efficiency;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.39;2.39. All day efficiency;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.4;2.4. Number of turns;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.40;2.40. Current and output of transformer;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.41;2.41. Parameters of an ideal transformer;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.5;2.5. Magnetising and iron loss components;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.6;2.6. Core and iron loss and magnetising current;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.7;2.7. Properties of a transformer;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.8;2.8. Primary current;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3561;2. Transformers;2.9;2.9. No load current and phase angle;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3562;3. Three Phase Induction Motor;3.1;3.1. Frequency of rotor current;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3562;3. Three Phase Induction Motor;3.2;3.2. Full load speed of the motor;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3562;3. Three Phase Induction Motor;3.3;3.3. Slip and speed of rotor;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3562;3. Three Phase Induction Motor;3.4;3.4. Shaft output and torque;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3562;3. Three Phase Induction Motor;3.5;3.5. Parameters of induction motor;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3562;3. Three Phase Induction Motor;3.6;3.6. Slip and torque;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3562;3. Three Phase Induction Motor;3.7;3.7. Maximum torque and starting torque;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3563;5. Synchronous and Special Machines;5.1;5.1. Emf generated and line voltage;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3563;5. Synchronous and Special Machines;5.2;5.2. Induced emf per phase;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3563;5. Synchronous and Special Machines;5.3;5.3. Number of conductors;correct;runtime; -1541;Electrical Engineering(R. Anandanatarajan);3563;5. Synchronous and Special Machines;5.4;5.4. Synchronous reactance;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3461;1. Bonding in Solids;1.1;1.1. Stability of gaseous molecules;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3461;1. Bonding in Solids;1.2;1.2. Energy and separation in KCl ion pair;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3461;1. Bonding in Solids;1.3;1.3. Bond energy of NaCl molecule;error;runtime; -1580;Solid State Physics(P. K. Palanisamy);3462;2. Crystal Structure;2.1;2.1. Maximum radius of interstitial sphere in BCC;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3462;2. Crystal Structure;2.2;2.2. Volume Phase change BCC to FCC;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3462;2. Crystal Structure;2.3;2.3. Calculation of volume and density of Zinc;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3462;2. Crystal Structure;2.4;2.4. Maximum radius of interstitial sphere in FCC;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3462;2. Crystal Structure;2.5;2.5. Density of diamond ;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3462;2. Crystal Structure;2.6;2.6. Distance between two adjacent atoms in NaCl ;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3462;2. Crystal Structure;2.7;2.7. Density of copper crystal ;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3466;3. Crystal Planes and Defects;3.1;3.1. Number of atoms per square mm in SC;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3466;3. Crystal Planes and Defects;3.10;3.10. Average energy required to create Schottky defect;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3466;3. Crystal Planes and Defects;3.11;3.11. Ratio of vacancies in metal to create Frenkel defect;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3466;3. Crystal Planes and Defects;3.2;3.2. Maximum radius of sphere in BCC lattice;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3466;3. Crystal Planes and Defects;3.3;3.3. Volume change during BCC to FCC;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3466;3. Crystal Planes and Defects;3.4;3.4. Volume and density of unit cell in HCP Zn structure;error;runtime; -1580;Solid State Physics(P. K. Palanisamy);3466;3. Crystal Planes and Defects;3.5;3.5. Interplanar spacing in 110 and 212 planes in FCC lattice;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3466;3. Crystal Planes and Defects;3.6;3.6. Ratio of interplanar spacing in SC lattice;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3466;3. Crystal Planes and Defects;3.7;3.7. Miller indices of a plane in SC lattice;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3466;3. Crystal Planes and Defects;3.8;3.8. Ratio of vacancies in metal;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3466;3. Crystal Planes and Defects;3.9;3.9. Fraction of vacancy sites in metal ;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3467;4. Line Defects and Crystal Structure Determination;4.1;4.1. Wavelength of X ray and order of diffraction;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3467;4. Line Defects and Crystal Structure Determination;4.2;4.2. Ratio of interplanar spacing in simple cube;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3467;4. Line Defects and Crystal Structure Determination;4.3;4.3. Wavelength of X ray from Bragg Law;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3467;4. Line Defects and Crystal Structure Determination;4.4;4.4. Interatomic spacing;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3467;4. Line Defects and Crystal Structure Determination;4.5;4.5. Glancing angle for second order diffraction;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3467;4. Line Defects and Crystal Structure Determination;4.6;4.6. Distance between two adjacent atoms in NaCl ;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3467;4. Line Defects and Crystal Structure Determination;4.7;4.7. Distance between 110 plane;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3467;4. Line Defects and Crystal Structure Determination;4.8;4.8. Density of Iron ;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3467;4. Line Defects and Crystal Structure Determination;4.9;4.9. Density comparison between 111 and 110 planes SC lattice;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3468;5. Principles of Quantum Mechanics;5.1;5.1. de Broglie wavelength of proton;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3468;5. Principles of Quantum Mechanics;5.10;5.10. Minimum Energy;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3468;5. Principles of Quantum Mechanics;5.11;5.11. Energy of ground and first and second state;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3468;5. Principles of Quantum Mechanics;5.12;5.12. Velocity and energy of electron;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3468;5. Principles of Quantum Mechanics;5.13;5.13. Wavelength of electron waves;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3468;5. Principles of Quantum Mechanics;5.14;5.14. Uncertainty in momentum of electron;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3468;5. Principles of Quantum Mechanics;5.2;5.2. de Broglie wavelength of electron;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3468;5. Principles of Quantum Mechanics;5.3;5.3. de Broglie wavelength of neutron;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3468;5. Principles of Quantum Mechanics;5.4;5.4. Uncertainty in momentum of electron;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3468;5. Principles of Quantum Mechanics;5.5;5.5. Uncertainty in velocity of electron;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3468;5. Principles of Quantum Mechanics;5.6;5.6. Uncertainty in time;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3468;5. Principles of Quantum Mechanics;5.7;5.7. Lowest Energy for electron confinement;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3468;5. Principles of Quantum Mechanics;5.8;5.8. Next Lowest Energy level for electron confinement;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3468;5. Principles of Quantum Mechanics;5.9;5.9. de Broglie wavelength from energy;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3478;6. Electron Theory of Metals;6.1;6.1. Electron Density and mobility in silver;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3478;6. Electron Theory of Metals;6.10;6.10. Temperature for occupation of a state above Fermi level ;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3478;6. Electron Theory of Metals;6.11;6.11. Number of energy state in unit volume;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3478;6. Electron Theory of Metals;6.12;6.12. Temperature needed to fill a state above Fermi level ;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3478;6. Electron Theory of Metals;6.2;6.2. Mobility and average time of collision in copper;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3478;6. Electron Theory of Metals;6.3;6.3. Electrical resistivity in Sodium metal;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3478;6. Electron Theory of Metals;6.4;6.4. Resistivity of sodium at zero degree Celsius;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3478;6. Electron Theory of Metals;6.5;6.5. Next Lowest Energy level for electron confinement;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3478;6. Electron Theory of Metals;6.7;6.7. Energy level for electron confinement and equivalent temperature;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3478;6. Electron Theory of Metals;6.9;6.9. Temperature from Fermi function ;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3479;7. Dielectric Properties;7.1;7.1. Net energy stored in capacitor;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3479;7. Dielectric Properties;7.2;7.2. Ratio of polarization;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3479;7. Dielectric Properties;7.3;7.3. Parallel loss resistance and capacitance;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3479;7. Dielectric Properties;7.4;7.4. Dielectric constant of the material;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3479;7. Dielectric Properties;7.5;7.5. Electric polarizability of He atoms;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3479;7. Dielectric Properties;7.6;7.6. Capacitance and charge on the plates;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3479;7. Dielectric Properties;7.7;7.7. Electric polarizability of sulphur atoms;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3473;8. Magnetic Properties;8.1;8.1. Relative permeability;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3473;8. Magnetic Properties;8.2;8.2. Magnetization and flux density of ferromagnetic material;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3473;8. Magnetic Properties;8.3;8.3. Magnetization and flux density;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3473;8. Magnetic Properties;8.4;8.4. Magnetic moment;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3473;8. Magnetic Properties;8.5;8.5. Calculation of temperature using classical statistics;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3473;8. Magnetic Properties;8.6;8.6. Saturation magnetization;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3473;8. Magnetic Properties;8.7;8.7. Magnetic moment of nickel in Bohr Magneton;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3470;9. Semiconductors;5.6;5.6. Conductivity of Si;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3470;9. Semiconductors;5.7;5.7. Electron and hole concentration in silicon;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3470;9. Semiconductors;9.1;9.1. Resistivity;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3470;9. Semiconductors;9.10;9.10. Conductivity and Position of Ef above the intrinsic level;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3470;9. Semiconductors;9.11;9.11. Intrinsic carrier concentration and conductivity in germanium;error;runtime; -1580;Solid State Physics(P. K. Palanisamy);3470;9. Semiconductors;9.12;9.12. Forbidden energy band gap;error;runtime; -1580;Solid State Physics(P. K. Palanisamy);3470;9. Semiconductors;9.13;9.13. Hall Voltage of a semiconductor ;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3470;9. Semiconductors;9.14;9.14. Hall coefficient of a semiconductor;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3470;9. Semiconductors;9.15;9.15. Mobility density and nature of semiconductor;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3470;9. Semiconductors;9.16;9.16. Hall Voltage;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3470;9. Semiconductors;9.17;9.17. Mobility and number of Charge carrier;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3470;9. Semiconductors;9.2;9.2. Determination of Fermi level ;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3470;9. Semiconductors;9.3;9.3. Number of intrinsic carriers at 300K;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3470;9. Semiconductors;9.4;9.4. Resistivity of Ge sample;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3470;9. Semiconductors;9.5;9.5. Resistance of Ge rod ;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3470;9. Semiconductors;9.8;9.8. Temperature that shift the fermi level;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3470;9. Semiconductors;9.9;9.9. Conductivity of intrinsic silicon at 300 K;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3469;10. Superconductivity;10.1;10.1. Critical field;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3469;10. Superconductivity;10.2;10.2. Critical current and Critical field;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3471;11. Lasers;11.1;11.1. Ratio of relative population;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3471;11. Lasers;11.2;11.2. Energy of excited state of laser system;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3472;12. Fibre Optics;12.1;12.1. Numerical aperture and acceptance angle of optical fibre;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3472;12. Fibre Optics;12.2;12.2. V and mode of optical fibre;correct;runtime; -1580;Solid State Physics(P. K. Palanisamy);3472;12. Fibre Optics;12.3;12.3. Loss in signal;correct;runtime; -1589;Numerical Methods(B. Ram);3526;2. Non Linear Equations;2.11;2.11. Newton Raphson Method;correct;runtime; -1589;Numerical Methods(B. Ram);3526;2. Non Linear Equations;2.22;2.22. Graeffe Method;correct;runtime; -1589;Numerical Methods(B. Ram);3526;2. Non Linear Equations;2.3;2.3. Regula Falsi Method;correct;runtime; -1589;Numerical Methods(B. Ram);3526;2. Non Linear Equations;2.4;2.4. Regula Falsi Method;correct;runtime; -1589;Numerical Methods(B. Ram);3526;2. Non Linear Equations;2.5;2.5. Regula Falsi Method;correct;runtime; -1589;Numerical Methods(B. Ram);3526;2. Non Linear Equations;2.6;2.6. Secant Method;correct;runtime; diff --git a/bac_index.php b/bac_index.php deleted file mode 100755 index 645dafe..0000000 --- a/bac_index.php +++ /dev/null @@ -1,468 +0,0 @@ -<html> - <head> - <title>Home | Scilab cloud</title> - <script src="jquery.js" type="text/javascript"></script> - <script src="jquery.lightbox_me.js"></script> - <script> - $(document).ready(function(){ - - var webroot = "http://cloud.scilab.in/"; - var imgdata = '<img src="/images/ajax-loader.gif">'; - $("a#single_image").fancybox(); - //$("a#comment").fancybox(); - $("#graph-dwnld").hide(); - - $("#categories").live("change", function(){ - id = $("#categories").val(); - if(id == "") { - $('#lb').html(''); - $('#b').html(''); - $('#lc').html(''); - $('#c').html(''); - $('#le').html(''); - $('#e').html(''); - $('#input').val(''); - $('#output').val(''); - }else { - $.ajax({ - type: "POST", - url: webroot + "getdata.php", - data:{ - 'catid': id - }, - beforeSend: function(){ - $('#lb').html(''); - $('#b').html(imgdata); 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- $("#download").attr("href","http://scilab-test.garudaindia.in/cloud/download/"+msg["graph"]); - $("#graph-dwnld").show(); - $("#single_image").trigger("click"); - } - } - }); - }); - - // collect book details - - }); - </script> - <script src="fancybox.js"></script> - <link href="fancybox.css" rel="stylesheet"> - <style type="text/css"> - div.lalg { - float: left; - width: 100px; - font-weight: bold; - } - #input { - width: 100%; - height: 320px; - resize: none; - background-color: #fffcfc; - color: black; - font-family: courier; - -moz-border-radius: 5px; - border-radius: 5px; - border: 0px; - } - #output { - width: 100%; - height: 320px; - resize: none; - font-family: courier; - background-color: #fffcfc; - color: blue; - -moz-border-radius: 5px; - border-radius: 5px; - border: 0px; - } - .bclr { - background: #7f7f7f; - } - .banner { - margin-bottom: 10px; - height: 45px; - width: 100%; - background-color: #4E3419; - border-bottom: 0 solid #2E2E2E; - border-top: 0 solid #2E2E2E; - box-shadow: 0 0 5px 0 rgba(0, 0, 0, 0.7); - } - .logo { - height: 31px; - margin: 8px 0 0 10px; - float: left; - } - .site-name { - width: auto; - font: 32px Arial; - color: white; - padding: 6px 0 0 60px; - } - .footer { - margin-top: 10px; - width: 100%; - background-color: #4E3419; - border-bottom: 0 solid #2E2E2E; - border-top: 0 solid #2E2E2E; - box-shadow: 0 0 5px 0 rgba(0, 0, 0, 0.7); - text-align: center; - padding-top: 12px; - padding-bottom: 12px; - } - .white-text { - color: white; - font: 14px Arial; - font-weight: bold; - } - #commentBtn { - background: #efefef; - text-decoration: none; - /*font-weight: bold;*/ - color: black; - padding: 4px; - float: right; - border: 2px solid; - margin-right: 5px; - } - .execute-button { - background: #efefef; - text-decoration: none; - /*font-weight: bold;*/ - color: black; - padding: 4px; - border: 2px solid; - margin-left: 5px; - } - #lightbox-form{ - background: #FFFFFF; - padding: 15px; - -moz-border-radius: 5px; - -webkit-border-radius: 5px; - -o-border-radius: 5px; - border-radius: 5px; - position: relative; - } - #lightbox-close{ - position: absolute; - top: -12; - right: -12 ; - } - .loading-cls{ - cursor:wait; - } - </style> - </head> - <body background="images/body-bg.png" class="cls-body"> - <div class="banner"> - <a href="http://scilab.in" class="home-link" title="scilab.in"><img src="images/scilab-logo.png" class="logo" alt="Home"></a> - <div class="site-name">Scilab on Cloud</div> - </div> - <div id ="image" style="display:none"><a id="single_image" href=""><img id="image" src=""></a></div> - <table align="center" cellpadding="6" cellspacing="0" width="100%"> - <tr> - <td colspan="2"> - <div class="lalg">Category</div> - <select id="categories" name="categories"> - <option value="">-- Select category --</option> - <option value="10">Analog Electronics</option> - <option value="3">Chemical Engineering</option> - <option value="12">Computer Programming</option> - <option value="2">Control Theory & Control Systems</option> - <option value="7">Digital Communications</option> - <option value="11">Digital Electronics</option> - <option value="8">Electrical Technology</option> - <option value="1">Fluid Mechanics</option> - <option value="9">Mathematics & Pure Science</option> - <option value="5">Mechanical Engineering</option> - <option value="6">Signal Processing</option> - <option value="4">Thermodynamics</option> - <option value="13">Others</option> - </select> - </td> - </tr> - - <tr> - <td colspan="2"> - <div id="lb" class="lalg"></div> - <div id="b"></div> - </td> - </tr> - - <tr> - <td colspan="2"> - <div id="lc" class="lalg"></div> - <div id="c"></div> - </td> - </tr> - - <tr> - <td colspan="2"> - <div id="le" class="lalg"></div> - <div id="e"></div> - </td> - </tr> - - <tr class="bclr"> - <td class="white-text">Scilab Code</td> - <td class="white-text">Output</td> - </tr> - - <tr class="bclr"> - <td><textarea name="code" id="input" rows="20" cols="40">Write a new code or select existing from above category...</textarea></td> - <td><textarea name="code" id="output" rows="20" cols="40" readonly="readonly"></textarea></td> - </tr> - <tr class="bclr"> - <td> - <!-- <input type="button" id="submit" name="submit" value="Execute"> --> - <a href="#" id="submit" class="execute-button">Execute</a> - <!-- <input type="checkbox" id="graphicsmode" ><span class="white-text"> Enable Graphics</span> --> - </td> - <td> - <a id="commentBtn" href="#" onclick="tester();"> Comment</a> - </td> - </tr> - </table> - <div class="footer white-text"><p class="test-footer" style="font-size: 10px;color: lightgoldenrodyellow;text-align: center;margin: 0px 0px 0px 0px;">Disclaimer: Scilab is a trademark of <a href="http://www.inria.fr/en/" target="_blank" class="ext" style="color:#FFFFFF;">Inria</a><span class="ext"></span> (registered at the INPI for France and the rest of the World) and <a href="http://www.scilab-enterprises.com/" target="_blank" class="ext" style="color:#FFFFFF;">Scilab Enterprises</a><span class="ext"></span> is granted exclusive rights for Scilab Trademark.</p> -<h3 style="margin:3px 0px 0px 0px;">Copyright © IIT Bombay</h3></div> - - <!-- lightbox form --> - <div id="lightbox-form" style="display:none"> - <a href="#" id="lightbox-close" onclick='$("#lightbox-form").trigger("close");'><img src="images/close.png" width="30px"></a> - <div id="myDiv"></div> - <form name="comment_form" id="comment_form"> - <p>Please fill the details.</p> - <select name="error_type"> - <option>-- Select Type of issue --</option> - <option value=1> Blank Code / Incorrect code</option> - <option value=2>Output error</option> - <option value=3>Executed but Incorrect output</option> - <option value=4>Missing example(s)</option> - <option value=6>Blank output</option> - <option value=7>Any other</option> - </select> <br><br> - - <label>Description:</label><br> - <textarea name="comment" rows="6" cols="50" placeholder="Please tell us more..."></textarea> <br><br> - <label>Email (optional):</label><br> - <input type="text" name='email'> <br><br> - - <input id="submitButtonId" type="button" value="Submit" onclick="commentSubmit();"> - </form> - - </div> <!-- / lightbox-form --> - <script type="text/javascript"> - // LightBox - $('#commentBtn').click(function(e) { - document.getElementById("comment_form").style.display = "block"; - document.getElementById("myDiv").innerHTML=""; - $('#lightbox-form').lightbox_me({ - centered: true, - onLoad: function() { - $('#lightbox-form').find('input:first').focus() - } - }); - e.preventDefault(); - }); - - //Ajax form submission - function commentSubmit() - { - //fetching all form values - error_type = document.comment_form.error_type.value; - comment = document.comment_form.comment.value; - email = document.comment_form.email.value; - - - //retrive the precise details - category = document.getElementById("categories").value; - books = document.getElementById("books"); - if(books){ - books = books.value; - } - else{ - books = "null"; - } - - chapter = document.getElementById("chapter"); - if(chapter){ - chapter = chapter.value; - } - else{ - chapter = "null"; - } - - example = document.getElementById("example"); - if(example){ - example = example.value; - }else{ - example = "null"; - } - - var xmlhttp; - if (window.XMLHttpRequest) - {// code for IE7+, Firefox, Chrome, Opera, Safari - xmlhttp=new XMLHttpRequest(); - } - else - {// code for IE6, IE5 - xmlhttp=new ActiveXObject("Microsoft.XMLHTTP"); - } - xmlhttp.onreadystatechange=function() - { - if (xmlhttp.readyState==4 && xmlhttp.status==200) - { - document.getElementById("comment_form").style.display="none"; - document.getElementById("myDiv").innerHTML="Thanks for your comment."; - } - } - request_string = "type="+error_type+"&comment="+comment+"&email="+email+"&category="+category+"&books="+books+"&chapter="+chapter+"&example="+example; - xmlhttp.open("POST","http://cloud.scilab.in/comment.php",true); - xmlhttp.setRequestHeader("Content-type","application/x-www-form-urlencoded"); - xmlhttp.send(request_string); - } - </script> - </body> -</html> diff --git a/cloud.css b/cloud.css new file mode 100755 index 0000000..183a884 --- /dev/null +++ b/cloud.css @@ -0,0 +1,142 @@ +div.lalg { + float: left; + width: 100px; + font-weight: bold; +} +#input { + width: 100%; +height: 350px; + resize: none; + background-color: #fffcfc; + color: black; +font-family: courier; + -moz-border-radius: 5px; + border-radius: 5px; + border: 0px; +} +#output { + width: 100%; +height: 350px; + resize: none; +font-family: courier; + background-color: #fffcfc; + color: blue; + -moz-border-radius: 5px; + border-radius: 5px; + border: 0px; +} +.bclr { + background: #7f7f7f; +} +.banner { + position: relative; + margin-bottom: 10px; + height: 45px; + width: 100%; + background-color: #4E3419; + border-bottom: 0 solid #2E2E2E; + border-top: 0 solid #2E2E2E; + box-shadow: 0 0 5px 0 rgba(0, 0, 0, 0.7); +} +#banner-tabs{ + display: inline-block; + float: right; + margin: 16px 130px 0 0; +} +#banner-tabs a{ + text-decoration: none; + color: #ffffff; + margin: 0 25px 0 0; +} +.tab-text{ + background: #ffffff; + width: 400px; + padding: 25px; + -moz-border-radius: 5px; + -webkit-border-radius: 5px; + -o-border-radius: 5px; + border-radius: 5px; + text-align: justify; + font-size: .8em; +} + .logo { + height: 31px; + margin: 8px 0 0 10px; + float: left; + } +#scilab-logo{ + position: absolute; + right: 15px; + top: 3px; + width: 90px; +} +.site-name { +display: inline-block; + width: auto; + font: 32px Arial; + color: white; + padding: 6px 0 0 60px; +} +.footer { + margin-top: 10px; + width: 100%; + background-color: #4E3419; + border-bottom: 0 solid #2E2E2E; + border-top: 0 solid #2E2E2E; + box-shadow: 0 0 5px 0 rgba(0, 0, 0, 0.7); + text-align: center; + padding-top: 12px; + padding-bottom: 12px; +} +.white-text { + color: white; + font: 14px Arial; + font-weight: bold; +} +#commentBtn { + background: #efefef; + text-decoration: none; + /*font-weight: bold;*/ + color: black; + padding: 4px; + float: right; + border: 2px solid; + margin-right: 5px; +} +.execute-button { + background: #efefef; + text-decoration: none; + /*font-weight: bold;*/ + color: black; + padding: 4px; + border: 2px solid; + margin-left: 5px; +} +#lightbox-form{ + background: #FFFFFF; + padding: 15px; + -moz-border-radius: 5px; + -webkit-border-radius: 5px; + -o-border-radius: 5px; + border-radius: 5px; + position: relative; +} +.lightbox-close{ + position: absolute; + top: -12; + right: -12 ; +} +#email-notify{ + display: none; +} +.loading-cls{ + cursor:wait; +} +#contrib, +#book-download, +#chapter-download, +#example-download { + display: none; + margin-right: 5px; + float: right; +} diff --git a/comment.php b/comment.php index 9758339..3c4845f 100755 --- a/comment.php +++ b/comment.php @@ -13,8 +13,25 @@ if(isset($_POST['type']) && isset($_POST['comment'])){ $query = "insert into scilab_cloud_comment (type, comment, email,category,books,chapter,example) values(".$_POST['type'].", '".$_POST['comment']."', '".$_POST['email']."', '".$_POST['category']."', '".$_POST['books']."', '".$_POST['chapter']."', '".$_POST['example']."')"; if(mysql_query($query)){ - + echo "<p>Thank you for your valuable feedback.</p>"; + + $to = "rush2jrp@gmail.com, mukulrkulkarni@gmail.com, lavitha89@gmail.com, kannan@iitb.ac.in, kiran@fossee.in, manasdas17@gmail.com"; + $subject = "New Cloud Comment"; + $message = " + A new comment has been posted. <br> + Type: {$_POST['type']} <br> + Comment: {$_POST['comment']} <br> + Link: http://scilab.in/cloud_comments + "; + $from = "textbook@scilab.in"; + + $headers = "From: " . $from . "\r\n"; + $headers .= "MIME-Version: 1.0\r\n"; + $headers .= "Content-Type: text/html; charset=ISO-8859-1\r\n"; + mail($to,$subject,$message,$headers); + + }else{ echo "<p>Sorry for the inconvience, please try again</p>"; } diff --git a/fancybox/.gitattributes b/fancybox/.gitattributes new file mode 100755 index 0000000..f6bb280 --- /dev/null +++ b/fancybox/.gitattributes @@ -0,0 +1,7 @@ +# Auto detect text files and perform LF normalization +* text=auto + +# Denote all files that are truly binary and should not be modified. +*.png binary +*.jpg binary +*.gif binary
\ No newline at end of file diff --git a/fancybox/CHANGELOG.md b/fancybox/CHANGELOG.md new file mode 100755 index 0000000..b0d847e --- /dev/null +++ b/fancybox/CHANGELOG.md @@ -0,0 +1,125 @@ +fancyBox - Changelog +========= + +### Version 2.1.5 - June 14, 2013 +* Fixed #493 - Broken slideshow +* Fixed #556 - Parent option +* Retina graphics (#564) and retina display support (#420) +* Improved "lock" feature + +### Version 2.1.4 - January 10, 2013 +* Update to be compatible with jQuery v1.9 +* Small changes that should fix usability issues for certain users + +### Version 2.1.3 - October 23, 2012 + +* Fixed #426 - Broken IE7 +* Fixed #423 - Background flickering on iOS +* Fixed #418 - Automatically Grow/Shrink and Center +* Updated the script to work with jQuery 1.6 +* Media helper supports YouTube video series + +### Version 2.1.2 - October 15, 2012 + +* Fixed #414 - Don't allow nextClick if there is only one item +* Fixed #397 - Button helper 'Menu' not visible in IE7 +* Overlay can be opened/closed manually: +* $.fancybox.helpers.overlay.open(); +* $.fancybox.helpers.overlay.open({closeClick : false}); +* $.fancybox.helpers.overlay.close(); +* Optimized for Internet Explorer 10 (Windows 8) + +### Version 2.1.1 - October 01, 2012 + +* Fixed #357 - Converting values like 'auto' in getScalar() +* Fixed #358 - Updated overlay background image +* New "fancybox-href" and "fancybox-title" HTML5 data-attributes (#317) +* Improved helpers: +* - now they can have a property 'defaults' that contains default settings +* - updated vimeo and youtube parsers for media helper +* Content locking now can be turned off + +### Version 2.1.0 - August 20, 2012 + +* Fixed #103 - DOM element re-injection after closing +* Fixed #188 - navigation keys inside editable content +* New animation directions (see https://github.com/fancyapps/fancyBox/issues/233#issuecomment-5512453) +* New option "iframe" - it is now possible to separate scrolling for iframe and wrapping element; choose to preload +* New option "swf" - brings back functionality from fancyBox v1 +* Improved media helper - better support for vimeo and youtube; links are now configurable +* Rewritten overlay helper: +* - new option "showEarly" - toggles if should be open before of after content is loaded +* - Facebook-style (https://github.com/fancyapps/fancyBox/issues/24) and therefore uses image for background +* Option "padding" accepts array (e.g., padding: [15, 50, 10, 5]) +* One of dimensions (width or height) can now be set to "auto" (option "autoSize" needs to be "false") +* Updated callbacks: +* - "beforeClose" is now called only once +* - "afterLoad" receives current and previous object as arguments +* Method "$.fancybox.update();" recalculates content width/height +* Updated to work with jQuery v1.8 + +### Version 2.0.6 - April 16, 2012 + +* Fixed #188 - keystrokes in contenteditable +* Fixed #171 - non-images should not be preloaded +* Fixed #158 - 'closeClick: true' breaks gallery navigation +* New "media" helper - detects and displays various media types +* New option "groupAttr" - name of group selector attribute, default is "data-fancybox-group" +* New feature - selector expressions in URLs, see #170 +* Improved 'overlay' helper to use "position: fixed" +* Improved autoSize, fixed wrong height in some cases +* Improved centering and iframe scrolling for iOS +* Updated markup, new element '.fancybox-skin' is now used for styling + +### Version 2.0.5 - February 21, 2012 + +* Fixed #155 - easing for prev/next animations +* Fixed #153 - overriding "keys" options +* Fixed #147 - IE7 problem with #hash links +* Fixed #130 - changing dynamically data-fancybox-group +* Fixed #126 - obey minWidth/minHeight +* Fixed #118 - placement of loading icon and navigation arrows +* Fixed #101 - "index" option not working +* Fixed #94 - "orig" option not working +* Fixed #80 - does not work on IE6 +* Fixed #72 - can't set overlay opacity to 0 +* Fixed #63 - properly set gallery index +* New option "autoCenter" - toggles centering on window resize or scroll, disabled for mobile devices by default +* New option "autoResize" - toggles responsivity, disabled for mobile devices by default +* New option "preload" - number of images to preload +* New feature to target mobile/desktop browsers using CSS, see #108 +* Changed ajax option defaults to "{ dataType: 'html', headers: { 'X-fancyBox': true } }", see #150 and #128 +* Updated loading icon for IE7, IE8 +* Calculates height of the iframe if 'autoSize' is set to 'true' and the iframe is on the same domain as the main page + +### Version 2.0.4 - December 12, 2011 + +* Fixed #47 - fix overriding properties +* New option "position" to thumbnail and button helpers + + +### Version 2.0.3 - November 29, 2011 + +* Fixed #29 - broken elastic transitions + + +### Version 2.0.2 - November 28, 2011 + +* Fixed slideshow +* Fixed scrollbars issue when displayed a very tall image +* New option "nextClick" - navigate to next gallery item when user clicks the content +* New option "modal" - to disable navigation and closing +* Add 'metadata' plugin support +* Add ability to create groups using 'data-fancybox-group' attribute +* Updated manual usage to match earlier releases + + +### Version 2.0.1 - November 23, 2011 + +* Fixed keyboard events inside form elements +* Fixed manual usage + + +### Version 2.0.0 - November 21, 2011 + +First release - completely rewritten, many new features and updated graphics.
\ No newline at end of file diff --git a/fancybox/README.md b/fancybox/README.md new file mode 100755 index 0000000..9434893 --- /dev/null +++ b/fancybox/README.md @@ -0,0 +1,217 @@ +fancyBox +======== + +fancyBox is a tool that offers a nice and elegant way to add zooming functionality for images, html content and multi-media on your webpages. + +More information and examples: http://www.fancyapps.com/fancybox/ + +License: http://www.fancyapps.com/fancybox/#license + +Copyright (c) 2012 Janis Skarnelis - janis@fancyapps.com + + +How to use +---------- + +To get started, download the plugin, unzip it and copy files to your website/application directory. +Load files in the <head> section of your HTML document. Make sure you also add the jQuery library. + + <head> + <script type="text/javascript" src="http://ajax.googleapis.com/ajax/libs/jquery/1.7/jquery.min.js"></script> + <link rel="stylesheet" href="/fancybox/jquery.fancybox.css" type="text/css" media="screen" /> + <script type="text/javascript" src="/fancybox/jquery.fancybox.pack.js"></script> + </head> + +Create your links with a `title` if you want a title to be shown, and add a class: + + <a href="large_image.jpg" class="fancybox" title="Sample title"><img src="small_image.jpg" /></a> + +If you have a set of related items that you would like to group, +additionally include a group name in the `rel` (or `data-fancybox-group`) attribute: + + <a href="large_1.jpg" class="fancybox" rel="gallery" title="Sample title 1"><img src="small_1.jpg" /></a> + <a href="large_2.jpg" class="fancybox" rel="gallery" title="Sample title 1"><img src="small_2.jpg" /></a> + +Initialise the script like this: + + <script> + $(document).ready(function() { + $('.fancybox').fancybox(); + }); + </script> + +May also be passed an optional options object which will extend the default values. Example: + + <script> + $(document).ready(function() { + $('.fancybox').fancybox({ + padding : 0, + openEffect : 'elastic' + }); + }); + </script> + +Tip: Automatically group and apply fancyBox to all images: + + $("a[href$='.jpg'],a[href$='.jpeg'],a[href$='.png'],a[href$='.gif']").attr('rel', 'gallery').fancybox(); + +Script uses the `href` attribute of the matched elements to obtain the location of the content and to figure out content type you want to display. +You can specify type directly by adding classname (fancybox.image, fancybox.iframe, etc) or `data-fancybox-type` attribute: + + //Ajax: + <a href="/example.html" class="fancybox fancybox.ajax">Example</a> + //or + <a href="/example.html" class="fancybox" data-fancybox-type="ajax">Example</a> + + //Iframe: + <a href="example.html" class="fancybox fancybox.iframe">Example</a> + + //Inline (will display an element with `id="example"`) + <a href="#example" class="fancybox">Example</a> + + //SWF: + <a href="example.swf" class="fancybox">Example</a> + + //Image: + <a href="example.jpg" class="fancybox">Example</a> + +Note, ajax requests are subject to the [same origin policy](http://en.wikipedia.org/wiki/Same_origin_policy). +If fancyBox will not be able to get content type, it will try to guess based on 'href' and will quit silently if would not succeed. +(this is different from previsous versions where 'ajax' was used as default type or an error message was displayed). + +Advanced +-------- + +### Helpers + +Helpers provide a simple mechanism to extend the capabilities of fancyBox. There are two built-in helpers - 'overlay' and 'title'. +You can disable them, set custom options or enable other helpers. Examples: + + //Disable title helper + $(".fancybox").fancybox({ + helpers: { + title: null + } + }); + + //Disable overlay helper + $(".fancybox").fancybox({ + helpers: { + overlay : null + } + }); + + //Change title position and overlay color + $(".fancybox").fancybox({ + helpers: { + title : { + type : 'inside' + }, + overlay : { + css : { + 'background' : 'rgba(255,255,255,0.5)' + } + } + } + }); + + //Enable thumbnail helper and set custom options + $(".fancybox").fancybox({ + helpers: { + thumbs : { + width: 50, + height: 50 + } + } + }); + + +### API + +Also available are event driven callback methods. The `this` keyword refers to the current or upcoming object (depends on callback method). Here is how you can change title: + + $(".fancybox").fancybox({ + beforeLoad : function() { + this.title = 'Image ' + (this.index + 1) + ' of ' + this.group.length + (this.title ? ' - ' + this.title : ''); + + /* + "this.element" refers to current element, so you can, for example, use the "alt" attribute of the image to store the title: + this.title = $(this.element).find('img').attr('alt'); + */ + } + }); + +It`s possible to open fancyBox programmatically in various ways: + + //HTML content: + $.fancybox( '<div><h1>Lorem Lipsum</h1><p>Lorem lipsum</p></div>', { + title : 'Custom Title' + }); + + //DOM element: + $.fancybox( $("#inline"), { + title : 'Custom Title' + }); + + //Custom object: + $.fancybox({ + href: 'example.jpg', + title : 'Custom Title' + }); + + //Array of objects: + $.fancybox([ + { + href: 'example1.jpg', + title : 'Custom Title 1' + }, + { + href: 'example2.jpg', + title : 'Custom Title 2' + } + ], { + padding: 0 + }); + +There are several methods that allow you to interact with and manipulate fancyBox, example: + + //Close fancybox: + $.fancybox.close(); + +There is a simply way to access wrapping elements using JS: + + $.fancybox.wrap + $.fancybox.skin + $.fancybox.outer + $.fancybox.inner + +You can override CSS to customize the look. For example, make navigation arrows always visible, +change width and move them outside of area (use this snippet after including fancybox.css): + + .fancybox-nav span { + visibility: visible; + } + + .fancybox-nav { + width: 80px; + } + + .fancybox-prev { + left: -80px; + } + + .fancybox-next { + right: -80px; + } + +In that case, you might want to increase space around box: + + $(".fancybox").fancybox({ + margin : [20, 60, 20, 60] + }); + + +Bug tracker +----------- + +Have a bug? Please create an issue on GitHub at https://github.com/fancyapps/fancyBox/issues
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t===!1?st.removeAttr(e,n):Mt&&Ht||!Lt.test(n)?e.setAttribute(!Ht&&st.propFix[n]||n,n):e[st.camelCase("default-"+n)]=e[n]=!0,n}},Mt&&Ht||(st.attrHooks.value={get:function(e,n){var r=e.getAttributeNode(n);return st.nodeName(e,"input")?e.defaultValue:r&&r.specified?r.value:t +},set:function(e,n,r){return st.nodeName(e,"input")?(e.defaultValue=n,t):Ct&&Ct.set(e,n,r)}}),Ht||(Ct=st.valHooks.button={get:function(e,n){var r=e.getAttributeNode(n);return r&&("id"===n||"name"===n||"coords"===n?""!==r.value:r.specified)?r.value:t},set:function(e,n,r){var i=e.getAttributeNode(r);return i||e.setAttributeNode(i=e.ownerDocument.createAttribute(r)),i.value=n+="","value"===r||n===e.getAttribute(r)?n:t}},st.attrHooks.contenteditable={get:Ct.get,set:function(e,t,n){Ct.set(e,""===t?!1:t,n)}},st.each(["width","height"],function(e,n){st.attrHooks[n]=st.extend(st.attrHooks[n],{set:function(e,r){return""===r?(e.setAttribute(n,"auto"),r):t}})})),st.support.hrefNormalized||(st.each(["href","src","width","height"],function(e,n){st.attrHooks[n]=st.extend(st.attrHooks[n],{get:function(e){var r=e.getAttribute(n,2);return null==r?t:r}})}),st.each(["href","src"],function(e,t){st.propHooks[t]={get:function(e){return e.getAttribute(t,4)}}})),st.support.style||(st.attrHooks.style={get:function(e){return e.style.cssText||t},set:function(e,t){return e.style.cssText=t+""}}),st.support.optSelected||(st.propHooks.selected=st.extend(st.propHooks.selected,{get:function(e){var t=e.parentNode;return 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o,a,s,u,l,c,f,p,d,h,g,m=st.hasData(e)&&st._data(e);if(m&&(u=m.events)){for(t=(t||"").match(lt)||[""],l=t.length;l--;)if(s=Bt.exec(t[l])||[],d=g=s[1],h=(s[2]||"").split(".").sort(),d){for(f=st.event.special[d]||{},d=(r?f.delegateType:f.bindType)||d,p=u[d]||[],s=s[2]&&RegExp("(^|\\.)"+h.join("\\.(?:.*\\.|)")+"(\\.|$)"),a=o=p.length;o--;)c=p[o],!i&&g!==c.origType||n&&n.guid!==c.guid||s&&!s.test(c.namespace)||r&&r!==c.selector&&("**"!==r||!c.selector)||(p.splice(o,1),c.selector&&p.delegateCount--,f.remove&&f.remove.call(e,c));a&&!p.length&&(f.teardown&&f.teardown.call(e,h,m.handle)!==!1||st.removeEvent(e,d,m.handle),delete u[d])}else for(d in u)st.event.remove(e,d+t[l],n,r,!0);st.isEmptyObject(u)&&(delete m.handle,st._removeData(e,"events"))}},trigger:function(n,r,i,o){var 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\ No newline at end of file diff --git a/jquery.js b/fancybox/lib/jquery.js index 16ad06c..16ad06c 100755 --- a/jquery.js +++ b/fancybox/lib/jquery.js diff --git a/fancybox/lib/jquery.mousewheel-3.0.6.pack.js b/fancybox/lib/jquery.mousewheel-3.0.6.pack.js new file mode 100755 index 0000000..e39a83a --- /dev/null +++ b/fancybox/lib/jquery.mousewheel-3.0.6.pack.js @@ -0,0 +1,13 @@ +/*! Copyright (c) 2011 Brandon Aaron (http://brandonaaron.net) + * Licensed under the MIT License (LICENSE.txt). + * + * Thanks to: http://adomas.org/javascript-mouse-wheel/ for some pointers. + * Thanks to: Mathias Bank(http://www.mathias-bank.de) for a scope bug fix. + * Thanks to: Seamus Leahy for adding deltaX and deltaY + * + * Version: 3.0.6 + * + * Requires: 1.2.2+ + */ +(function(d){function e(a){var b=a||window.event,c=[].slice.call(arguments,1),f=0,e=0,g=0,a=d.event.fix(b);a.type="mousewheel";b.wheelDelta&&(f=b.wheelDelta/120);b.detail&&(f=-b.detail/3);g=f;b.axis!==void 0&&b.axis===b.HORIZONTAL_AXIS&&(g=0,e=-1*f);b.wheelDeltaY!==void 0&&(g=b.wheelDeltaY/120);b.wheelDeltaX!==void 0&&(e=-1*b.wheelDeltaX/120);c.unshift(a,f,e,g);return(d.event.dispatch||d.event.handle).apply(this,c)}var c=["DOMMouseScroll","mousewheel"];if(d.event.fixHooks)for(var h=c.length;h;)d.event.fixHooks[c[--h]]= +d.event.mouseHooks;d.event.special.mousewheel={setup:function(){if(this.addEventListener)for(var a=c.length;a;)this.addEventListener(c[--a],e,false);else this.onmousewheel=e},teardown:function(){if(this.removeEventListener)for(var a=c.length;a;)this.removeEventListener(c[--a],e,false);else this.onmousewheel=null}};d.fn.extend({mousewheel:function(a){return a?this.bind("mousewheel",a):this.trigger("mousewheel")},unmousewheel:function(a){return this.unbind("mousewheel",a)}})})(jQuery);
\ No newline at end of file diff --git a/fancybox/source/blank.gif b/fancybox/source/blank.gif Binary files differnew file mode 100755 index 0000000..35d42e8 --- /dev/null +++ b/fancybox/source/blank.gif diff --git a/fancybox/source/fancybox_loading.gif b/fancybox/source/fancybox_loading.gif Binary files differnew file mode 100755 index 0000000..a03a40c --- /dev/null +++ b/fancybox/source/fancybox_loading.gif diff --git a/fancybox/source/fancybox_loading@2x.gif b/fancybox/source/fancybox_loading@2x.gif Binary files differnew file mode 100755 index 0000000..9205aeb --- /dev/null +++ b/fancybox/source/fancybox_loading@2x.gif diff --git a/fancybox/source/fancybox_overlay.png b/fancybox/source/fancybox_overlay.png Binary files differnew file mode 100755 index 0000000..a439139 --- /dev/null +++ b/fancybox/source/fancybox_overlay.png diff --git a/fancybox/source/fancybox_sprite.png b/fancybox/source/fancybox_sprite.png Binary files differnew file mode 100755 index 0000000..fd8d5ca --- /dev/null +++ b/fancybox/source/fancybox_sprite.png diff --git a/fancybox/source/fancybox_sprite@2x.png b/fancybox/source/fancybox_sprite@2x.png Binary files differnew file mode 100755 index 0000000..d0e4779 --- /dev/null +++ b/fancybox/source/fancybox_sprite@2x.png diff --git a/fancybox/source/helpers/fancybox_buttons.png b/fancybox/source/helpers/fancybox_buttons.png Binary files differnew file mode 100755 index 0000000..0787207 --- /dev/null +++ b/fancybox/source/helpers/fancybox_buttons.png diff --git a/fancybox/source/helpers/jquery.fancybox-buttons.css b/fancybox/source/helpers/jquery.fancybox-buttons.css new file mode 100755 index 0000000..a26273a --- /dev/null +++ b/fancybox/source/helpers/jquery.fancybox-buttons.css @@ -0,0 +1,97 @@ +#fancybox-buttons { + position: fixed; + left: 0; + width: 100%; + z-index: 8050; +} + +#fancybox-buttons.top { + top: 10px; +} + +#fancybox-buttons.bottom { + bottom: 10px; +} + +#fancybox-buttons ul { + display: block; + width: 166px; + height: 30px; + margin: 0 auto; + padding: 0; + list-style: none; + border: 1px solid #111; + border-radius: 3px; + -webkit-box-shadow: inset 0 0 0 1px rgba(255,255,255,.05); + -moz-box-shadow: inset 0 0 0 1px rgba(255,255,255,.05); + box-shadow: inset 0 0 0 1px rgba(255,255,255,.05); + background: rgb(50,50,50); + background: -moz-linear-gradient(top, rgb(68,68,68) 0%, rgb(52,52,52) 50%, rgb(41,41,41) 50%, rgb(51,51,51) 100%); + background: -webkit-gradient(linear, left top, left bottom, color-stop(0%,rgb(68,68,68)), color-stop(50%,rgb(52,52,52)), color-stop(50%,rgb(41,41,41)), color-stop(100%,rgb(51,51,51))); + background: -webkit-linear-gradient(top, rgb(68,68,68) 0%,rgb(52,52,52) 50%,rgb(41,41,41) 50%,rgb(51,51,51) 100%); + background: -o-linear-gradient(top, rgb(68,68,68) 0%,rgb(52,52,52) 50%,rgb(41,41,41) 50%,rgb(51,51,51) 100%); + background: -ms-linear-gradient(top, rgb(68,68,68) 0%,rgb(52,52,52) 50%,rgb(41,41,41) 50%,rgb(51,51,51) 100%); + background: linear-gradient(top, rgb(68,68,68) 0%,rgb(52,52,52) 50%,rgb(41,41,41) 50%,rgb(51,51,51) 100%); + filter: progid:DXImageTransform.Microsoft.gradient( startColorstr='#444444', endColorstr='#222222',GradientType=0 ); +} + +#fancybox-buttons ul li { + float: left; + margin: 0; + padding: 0; +} + +#fancybox-buttons a { + display: block; + width: 30px; + height: 30px; + text-indent: -9999px; + background-color: transparent; + background-image: url('fancybox_buttons.png'); + background-repeat: no-repeat; + outline: none; + opacity: 0.8; +} + +#fancybox-buttons a:hover { + opacity: 1; +} + +#fancybox-buttons a.btnPrev { + background-position: 5px 0; +} + +#fancybox-buttons a.btnNext { + background-position: -33px 0; + border-right: 1px solid #3e3e3e; +} + +#fancybox-buttons a.btnPlay { + background-position: 0 -30px; +} + +#fancybox-buttons a.btnPlayOn { + background-position: -30px -30px; +} + +#fancybox-buttons a.btnToggle { + background-position: 3px -60px; + border-left: 1px solid #111; + border-right: 1px solid #3e3e3e; + width: 35px +} + +#fancybox-buttons a.btnToggleOn { + background-position: -27px -60px; +} + +#fancybox-buttons a.btnClose { + border-left: 1px solid #111; + width: 35px; + background-position: -56px 0px; +} + +#fancybox-buttons a.btnDisabled { + opacity : 0.4; + cursor: default; +}
\ No newline at end of file diff --git a/fancybox/source/helpers/jquery.fancybox-buttons.js b/fancybox/source/helpers/jquery.fancybox-buttons.js new file mode 100755 index 0000000..fd8b955 --- /dev/null +++ b/fancybox/source/helpers/jquery.fancybox-buttons.js @@ -0,0 +1,122 @@ + /*! + * Buttons helper for fancyBox + * version: 1.0.5 (Mon, 15 Oct 2012) + * @requires fancyBox v2.0 or later + * + * Usage: + * $(".fancybox").fancybox({ + * helpers : { + * buttons: { + * position : 'top' + * } + * } + * }); + * + */ +(function ($) { + //Shortcut for fancyBox object + var F = $.fancybox; + + //Add helper object + F.helpers.buttons = { + defaults : { + skipSingle : false, // disables if gallery contains single image + position : 'top', // 'top' or 'bottom' + tpl : '<div id="fancybox-buttons"><ul><li><a class="btnPrev" title="Previous" href="javascript:;"></a></li><li><a class="btnPlay" title="Start slideshow" href="javascript:;"></a></li><li><a class="btnNext" title="Next" href="javascript:;"></a></li><li><a class="btnToggle" title="Toggle size" href="javascript:;"></a></li><li><a class="btnClose" title="Close" href="javascript:;"></a></li></ul></div>' + }, + + list : null, + buttons: null, + + beforeLoad: function (opts, obj) { + //Remove self if gallery do not have at least two items + + if (opts.skipSingle && obj.group.length < 2) { + obj.helpers.buttons = false; + obj.closeBtn = true; + + return; + } + + //Increase top margin to give space for buttons + obj.margin[ opts.position === 'bottom' ? 2 : 0 ] += 30; + }, + + onPlayStart: function () { + if (this.buttons) { + this.buttons.play.attr('title', 'Pause slideshow').addClass('btnPlayOn'); + } + }, + + onPlayEnd: function () { + if (this.buttons) { + this.buttons.play.attr('title', 'Start slideshow').removeClass('btnPlayOn'); + } + }, + + afterShow: function (opts, obj) { + var buttons = this.buttons; + + if (!buttons) { + this.list = $(opts.tpl).addClass(opts.position).appendTo('body'); + + buttons = { + prev : this.list.find('.btnPrev').click( F.prev ), + next : this.list.find('.btnNext').click( F.next ), + play : this.list.find('.btnPlay').click( F.play ), + toggle : this.list.find('.btnToggle').click( F.toggle ), + close : this.list.find('.btnClose').click( F.close ) + } + } + + //Prev + if (obj.index > 0 || obj.loop) { + buttons.prev.removeClass('btnDisabled'); + } else { + buttons.prev.addClass('btnDisabled'); + } + + //Next / Play + if (obj.loop || obj.index < obj.group.length - 1) { + buttons.next.removeClass('btnDisabled'); + buttons.play.removeClass('btnDisabled'); + + } else { + buttons.next.addClass('btnDisabled'); + buttons.play.addClass('btnDisabled'); + } + + this.buttons = buttons; + + this.onUpdate(opts, obj); + }, + + onUpdate: function (opts, obj) { + var toggle; + + if (!this.buttons) { + return; + } + + toggle = this.buttons.toggle.removeClass('btnDisabled btnToggleOn'); + + //Size toggle button + if (obj.canShrink) { + toggle.addClass('btnToggleOn'); + + } else if (!obj.canExpand) { + toggle.addClass('btnDisabled'); + } + }, + + beforeClose: function () { + if (this.list) { + this.list.remove(); + } + + this.list = null; + this.buttons = null; + } + }; + +}(jQuery)); diff --git a/fancybox/source/helpers/jquery.fancybox-media.js b/fancybox/source/helpers/jquery.fancybox-media.js new file mode 100755 index 0000000..3584c8a --- /dev/null +++ b/fancybox/source/helpers/jquery.fancybox-media.js @@ -0,0 +1,199 @@ +/*! + * Media helper for fancyBox + * version: 1.0.6 (Fri, 14 Jun 2013) + * @requires fancyBox v2.0 or later + * + * Usage: + * $(".fancybox").fancybox({ + * helpers : { + * media: true + * } + * }); + * + * Set custom URL parameters: + * $(".fancybox").fancybox({ + * helpers : { + * media: { + * youtube : { + * params : { + * autoplay : 0 + * } + * } + * } + * } + * }); + * + * Or: + * $(".fancybox").fancybox({, + * helpers : { + * media: true + * }, + * youtube : { + * autoplay: 0 + * } + * }); + * + * Supports: + * + * Youtube + * http://www.youtube.com/watch?v=opj24KnzrWo + * http://www.youtube.com/embed/opj24KnzrWo + * http://youtu.be/opj24KnzrWo + * http://www.youtube-nocookie.com/embed/opj24KnzrWo + * Vimeo + * http://vimeo.com/40648169 + * http://vimeo.com/channels/staffpicks/38843628 + * http://vimeo.com/groups/surrealism/videos/36516384 + * http://player.vimeo.com/video/45074303 + * Metacafe + * http://www.metacafe.com/watch/7635964/dr_seuss_the_lorax_movie_trailer/ + * http://www.metacafe.com/watch/7635964/ + * Dailymotion + * http://www.dailymotion.com/video/xoytqh_dr-seuss-the-lorax-premiere_people + * Twitvid + * http://twitvid.com/QY7MD + * Twitpic + * http://twitpic.com/7p93st + * Instagram + * http://instagr.am/p/IejkuUGxQn/ + * http://instagram.com/p/IejkuUGxQn/ + * Google maps + * http://maps.google.com/maps?q=Eiffel+Tower,+Avenue+Gustave+Eiffel,+Paris,+France&t=h&z=17 + * http://maps.google.com/?ll=48.857995,2.294297&spn=0.007666,0.021136&t=m&z=16 + * http://maps.google.com/?ll=48.859463,2.292626&spn=0.000965,0.002642&t=m&z=19&layer=c&cbll=48.859524,2.292532&panoid=YJ0lq28OOy3VT2IqIuVY0g&cbp=12,151.58,,0,-15.56 + */ +(function ($) { + "use strict"; + + //Shortcut for fancyBox object + var F = $.fancybox, + format = function( url, rez, params ) { + params = params || ''; + + if ( $.type( params ) === "object" ) { + params = $.param(params, true); + } + + $.each(rez, function(key, value) { + url = url.replace( '$' + key, value || '' ); + }); + + if (params.length) { + url += ( url.indexOf('?') > 0 ? '&' : '?' ) + params; + } + + return url; + }; + + //Add helper object + F.helpers.media = { + defaults : { + youtube : { + matcher : /(youtube\.com|youtu\.be|youtube-nocookie\.com)\/(watch\?v=|v\/|u\/|embed\/?)?(videoseries\?list=(.*)|[\w-]{11}|\?listType=(.*)&list=(.*)).*/i, + params : { + autoplay : 1, + autohide : 1, + fs : 1, + rel : 0, + hd : 1, + wmode : 'opaque', + enablejsapi : 1 + }, + type : 'iframe', + url : '//www.youtube.com/embed/$3' + }, + vimeo : { + matcher : /(?:vimeo(?:pro)?.com)\/(?:[^\d]+)?(\d+)(?:.*)/, + params : { + autoplay : 1, + hd : 1, + show_title : 1, + show_byline : 1, + show_portrait : 0, + fullscreen : 1 + }, + type : 'iframe', + url : '//player.vimeo.com/video/$1' + }, + metacafe : { + matcher : /metacafe.com\/(?:watch|fplayer)\/([\w\-]{1,10})/, + params : { + autoPlay : 'yes' + }, + type : 'swf', + url : function( rez, params, obj ) { + obj.swf.flashVars = 'playerVars=' + $.param( params, true ); + + return '//www.metacafe.com/fplayer/' + rez[1] + '/.swf'; + } + }, + dailymotion : { + matcher : /dailymotion.com\/video\/(.*)\/?(.*)/, + params : { + additionalInfos : 0, + autoStart : 1 + }, + type : 'swf', + url : '//www.dailymotion.com/swf/video/$1' + }, + twitvid : { + matcher : /twitvid\.com\/([a-zA-Z0-9_\-\?\=]+)/i, + params : { + autoplay : 0 + }, + type : 'iframe', + url : '//www.twitvid.com/embed.php?guid=$1' + }, + twitpic : { + matcher : /twitpic\.com\/(?!(?:place|photos|events)\/)([a-zA-Z0-9\?\=\-]+)/i, + type : 'image', + url : '//twitpic.com/show/full/$1/' + }, + instagram : { + matcher : /(instagr\.am|instagram\.com)\/p\/([a-zA-Z0-9_\-]+)\/?/i, + type : 'image', + url : '//$1/p/$2/media/?size=l' + }, + google_maps : { + matcher : /maps\.google\.([a-z]{2,3}(\.[a-z]{2})?)\/(\?ll=|maps\?)(.*)/i, + type : 'iframe', + url : function( rez ) { + return '//maps.google.' + rez[1] + '/' + rez[3] + '' + rez[4] + '&output=' + (rez[4].indexOf('layer=c') > 0 ? 'svembed' : 'embed'); + } + } + }, + + beforeLoad : function(opts, obj) { + var url = obj.href || '', + type = false, + what, + item, + rez, + params; + + for (what in opts) { + if (opts.hasOwnProperty(what)) { + item = opts[ what ]; + rez = url.match( item.matcher ); + + if (rez) { + type = item.type; + params = $.extend(true, {}, item.params, obj[ what ] || ($.isPlainObject(opts[ what ]) ? opts[ what ].params : null)); + + url = $.type( item.url ) === "function" ? item.url.call( this, rez, params, obj ) : format( item.url, rez, params ); + + break; + } + } + } + + if (type) { + obj.href = url; + obj.type = type; + + obj.autoHeight = false; + } + } + }; + +}(jQuery));
\ No newline at end of file diff --git a/fancybox/source/helpers/jquery.fancybox-thumbs.css b/fancybox/source/helpers/jquery.fancybox-thumbs.css new file mode 100755 index 0000000..63d2943 --- /dev/null +++ b/fancybox/source/helpers/jquery.fancybox-thumbs.css @@ -0,0 +1,55 @@ +#fancybox-thumbs { + position: fixed; + left: 0; + width: 100%; + overflow: hidden; + z-index: 8050; +} + +#fancybox-thumbs.bottom { + bottom: 2px; +} + +#fancybox-thumbs.top { + top: 2px; +} + +#fancybox-thumbs ul { + position: relative; + list-style: none; + margin: 0; + padding: 0; +} + +#fancybox-thumbs ul li { + float: left; + padding: 1px; + opacity: 0.5; +} + +#fancybox-thumbs ul li.active { + opacity: 0.75; + padding: 0; + border: 1px solid #fff; +} + +#fancybox-thumbs ul li:hover { + opacity: 1; +} + +#fancybox-thumbs ul li a { + display: block; + position: relative; + overflow: hidden; + border: 1px solid #222; + background: #111; + outline: none; +} + +#fancybox-thumbs ul li img { + display: block; + position: relative; + border: 0; + padding: 0; + max-width: none; +}
\ No newline at end of file diff --git a/fancybox/source/helpers/jquery.fancybox-thumbs.js b/fancybox/source/helpers/jquery.fancybox-thumbs.js new file mode 100755 index 0000000..5db3d4a --- /dev/null +++ b/fancybox/source/helpers/jquery.fancybox-thumbs.js @@ -0,0 +1,162 @@ + /*! + * Thumbnail helper for fancyBox + * version: 1.0.7 (Mon, 01 Oct 2012) + * @requires fancyBox v2.0 or later + * + * Usage: + * $(".fancybox").fancybox({ + * helpers : { + * thumbs: { + * width : 50, + * height : 50 + * } + * } + * }); + * + */ +(function ($) { + //Shortcut for fancyBox object + var F = $.fancybox; + + //Add helper object + F.helpers.thumbs = { + defaults : { + width : 50, // thumbnail width + height : 50, // thumbnail height + position : 'bottom', // 'top' or 'bottom' + source : function ( item ) { // function to obtain the URL of the thumbnail image + var href; + + if (item.element) { + href = $(item.element).find('img').attr('src'); + } + + if (!href && item.type === 'image' && item.href) { + href = item.href; + } + + return href; + } + }, + + wrap : null, + list : null, + width : 0, + + init: function (opts, obj) { + var that = this, + list, + thumbWidth = opts.width, + thumbHeight = opts.height, + thumbSource = opts.source; + + //Build list structure + list = ''; + + for (var n = 0; n < obj.group.length; n++) { + list += '<li><a style="width:' + thumbWidth + 'px;height:' + thumbHeight + 'px;" href="javascript:jQuery.fancybox.jumpto(' + n + ');"></a></li>'; + } + + this.wrap = $('<div id="fancybox-thumbs"></div>').addClass(opts.position).appendTo('body'); + this.list = $('<ul>' + list + '</ul>').appendTo(this.wrap); + + //Load each thumbnail + $.each(obj.group, function (i) { + var href = thumbSource( obj.group[ i ] ); + + if (!href) { + return; + } + + $("<img />").load(function () { + var width = this.width, + height = this.height, + widthRatio, heightRatio, parent; + + if (!that.list || !width || !height) { + return; + } + + //Calculate thumbnail width/height and center it + widthRatio = width / thumbWidth; + heightRatio = height / thumbHeight; + + parent = that.list.children().eq(i).find('a'); + + if (widthRatio >= 1 && heightRatio >= 1) { + if (widthRatio > heightRatio) { + width = Math.floor(width / heightRatio); + height = thumbHeight; + + } else { + width = thumbWidth; + height = Math.floor(height / widthRatio); + } + } + + $(this).css({ + width : width, + height : height, + top : Math.floor(thumbHeight / 2 - height / 2), + left : Math.floor(thumbWidth / 2 - width / 2) + }); + + parent.width(thumbWidth).height(thumbHeight); + + $(this).hide().appendTo(parent).fadeIn(300); + + }).attr('src', href); + }); + + //Set initial width + this.width = this.list.children().eq(0).outerWidth(true); + + this.list.width(this.width * (obj.group.length + 1)).css('left', Math.floor($(window).width() * 0.5 - (obj.index * this.width + this.width * 0.5))); + }, + + beforeLoad: function (opts, obj) { + //Remove self if gallery do not have at least two items + if (obj.group.length < 2) { + obj.helpers.thumbs = false; + + return; + } + + //Increase bottom margin to give space for thumbs + obj.margin[ opts.position === 'top' ? 0 : 2 ] += ((opts.height) + 15); + }, + + afterShow: function (opts, obj) { + //Check if exists and create or update list + if (this.list) { + this.onUpdate(opts, obj); + + } else { + this.init(opts, obj); + } + + //Set active element + this.list.children().removeClass('active').eq(obj.index).addClass('active'); + }, + + //Center list + onUpdate: function (opts, obj) { + if (this.list) { + this.list.stop(true).animate({ + 'left': Math.floor($(window).width() * 0.5 - (obj.index * this.width + this.width * 0.5)) + }, 150); + } + }, + + beforeClose: function () { + if (this.wrap) { + this.wrap.remove(); + } + + this.wrap = null; + this.list = null; + this.width = 0; + } + } + +}(jQuery));
\ No newline at end of file diff --git a/fancybox/source/jquery.fancybox.css b/fancybox/source/jquery.fancybox.css new file mode 100755 index 0000000..367890a --- /dev/null +++ b/fancybox/source/jquery.fancybox.css @@ -0,0 +1,274 @@ +/*! fancyBox v2.1.5 fancyapps.com | fancyapps.com/fancybox/#license */ +.fancybox-wrap, +.fancybox-skin, +.fancybox-outer, +.fancybox-inner, +.fancybox-image, +.fancybox-wrap iframe, +.fancybox-wrap object, +.fancybox-nav, +.fancybox-nav span, +.fancybox-tmp +{ + padding: 0; + margin: 0; + border: 0; + outline: none; + vertical-align: top; +} + +.fancybox-wrap { + position: absolute; + top: 0; + left: 0; + z-index: 8020; +} + +.fancybox-skin { + position: relative; + background: #f9f9f9; + color: #444; + text-shadow: none; + -webkit-border-radius: 4px; + -moz-border-radius: 4px; + border-radius: 4px; +} + +.fancybox-opened { + z-index: 8030; +} + +.fancybox-opened .fancybox-skin { + -webkit-box-shadow: 0 10px 25px rgba(0, 0, 0, 0.5); + -moz-box-shadow: 0 10px 25px rgba(0, 0, 0, 0.5); + box-shadow: 0 10px 25px rgba(0, 0, 0, 0.5); +} + +.fancybox-outer, .fancybox-inner { + position: relative; +} + +.fancybox-inner { + overflow: hidden; +} + +.fancybox-type-iframe .fancybox-inner { + -webkit-overflow-scrolling: touch; +} + +.fancybox-error { + color: #444; + font: 14px/20px "Helvetica Neue",Helvetica,Arial,sans-serif; + margin: 0; + padding: 15px; + white-space: nowrap; +} + +.fancybox-image, .fancybox-iframe { + display: block; + width: 100%; + height: 100%; +} + +.fancybox-image { + max-width: 100%; + max-height: 100%; +} + +#fancybox-loading, .fancybox-close, .fancybox-prev span, .fancybox-next span { + background-image: url('fancybox_sprite.png'); +} + +#fancybox-loading { + position: fixed; + top: 50%; + left: 50%; + margin-top: -22px; + margin-left: -22px; + background-position: 0 -108px; + opacity: 0.8; + cursor: pointer; + z-index: 8060; +} + +#fancybox-loading div { + width: 44px; + height: 44px; + background: url('fancybox_loading.gif') center center no-repeat; +} + +.fancybox-close { + position: absolute; + top: -18px; + right: -18px; + width: 36px; + height: 36px; + cursor: pointer; + z-index: 8040; +} + +.fancybox-nav { + position: absolute; + top: 0; + width: 40%; + height: 100%; + cursor: pointer; + text-decoration: none; + background: transparent url('blank.gif'); /* helps IE */ + -webkit-tap-highlight-color: rgba(0,0,0,0); + z-index: 8040; +} + +.fancybox-prev { + left: 0; +} + +.fancybox-next { + right: 0; +} + +.fancybox-nav span { + position: absolute; + top: 50%; + width: 36px; + height: 34px; + margin-top: -18px; + cursor: pointer; + z-index: 8040; + visibility: hidden; +} + +.fancybox-prev span { + left: 10px; + background-position: 0 -36px; +} + +.fancybox-next span { + right: 10px; + background-position: 0 -72px; +} + +.fancybox-nav:hover span { + visibility: visible; +} + +.fancybox-tmp { + position: absolute; + top: -99999px; + left: -99999px; + visibility: hidden; + max-width: 99999px; + max-height: 99999px; + overflow: visible !important; +} + +/* Overlay helper */ + +.fancybox-lock { + overflow: hidden !important; + width: auto; +} + +.fancybox-lock body { + overflow: hidden !important; +} + +.fancybox-lock-test { + overflow-y: hidden !important; +} + +.fancybox-overlay { + position: absolute; + top: 0; + left: 0; + overflow: hidden; + display: none; + z-index: 8010; + background: url('fancybox_overlay.png'); +} + +.fancybox-overlay-fixed { + position: fixed; + bottom: 0; + right: 0; +} + +.fancybox-lock .fancybox-overlay { + overflow: auto; + overflow-y: scroll; +} + +/* Title helper */ + +.fancybox-title { + visibility: hidden; + font: normal 13px/20px "Helvetica Neue",Helvetica,Arial,sans-serif; + position: relative; + text-shadow: none; + z-index: 8050; +} + +.fancybox-opened .fancybox-title { + visibility: visible; +} + +.fancybox-title-float-wrap { + position: absolute; + bottom: 0; + right: 50%; + margin-bottom: -35px; + z-index: 8050; + text-align: center; +} + +.fancybox-title-float-wrap .child { + display: inline-block; + margin-right: -100%; + padding: 2px 20px; + background: transparent; /* Fallback for web browsers that doesn't support RGBa */ + background: rgba(0, 0, 0, 0.8); + -webkit-border-radius: 15px; + -moz-border-radius: 15px; + border-radius: 15px; + text-shadow: 0 1px 2px #222; + color: #FFF; + font-weight: bold; + line-height: 24px; + white-space: nowrap; +} + +.fancybox-title-outside-wrap { + position: relative; + margin-top: 10px; + color: #fff; +} + +.fancybox-title-inside-wrap { + padding-top: 10px; +} + +.fancybox-title-over-wrap { + position: absolute; + bottom: 0; + left: 0; + color: #fff; + padding: 10px; + background: #000; + background: rgba(0, 0, 0, .8); +} + +/*Retina graphics!*/ +@media only screen and (-webkit-min-device-pixel-ratio: 1.5), + only screen and (min--moz-device-pixel-ratio: 1.5), + only screen and (min-device-pixel-ratio: 1.5){ + + #fancybox-loading, .fancybox-close, .fancybox-prev span, .fancybox-next span { + background-image: url('fancybox_sprite@2x.png'); + background-size: 44px 152px; /*The size of the normal image, half the size of the hi-res image*/ + } + + #fancybox-loading div { + background-image: url('fancybox_loading@2x.gif'); + background-size: 24px 24px; /*The size of the normal image, half the size of the hi-res image*/ + } +}
\ No newline at end of file diff --git a/fancybox/source/jquery.fancybox.js b/fancybox/source/jquery.fancybox.js new file mode 100755 index 0000000..e8e1987 --- /dev/null +++ b/fancybox/source/jquery.fancybox.js @@ -0,0 +1,2020 @@ +/*! + * fancyBox - jQuery Plugin + * version: 2.1.5 (Fri, 14 Jun 2013) + * @requires jQuery v1.6 or later + * + * Examples at http://fancyapps.com/fancybox/ + * License: www.fancyapps.com/fancybox/#license + * + * Copyright 2012 Janis Skarnelis - janis@fancyapps.com + * + */ + +(function (window, document, $, undefined) { + "use strict"; + + var H = $("html"), + W = $(window), + D = $(document), + F = $.fancybox = function () { + F.open.apply( this, arguments ); + }, + IE = navigator.userAgent.match(/msie/i), + didUpdate = null, + isTouch = document.createTouch !== undefined, + + isQuery = function(obj) { + return obj && obj.hasOwnProperty && obj instanceof $; + }, + isString = function(str) { + return str && $.type(str) === "string"; + }, + isPercentage = function(str) { + return isString(str) && str.indexOf('%') > 0; + }, + isScrollable = function(el) { + return (el && !(el.style.overflow && el.style.overflow === 'hidden') && ((el.clientWidth && el.scrollWidth > el.clientWidth) || (el.clientHeight && el.scrollHeight > el.clientHeight))); + }, + getScalar = function(orig, dim) { + var value = parseInt(orig, 10) || 0; + + if (dim && isPercentage(orig)) { + value = F.getViewport()[ dim ] / 100 * value; + } + + return Math.ceil(value); + }, + getValue = function(value, dim) { + return getScalar(value, dim) + 'px'; + }; + + $.extend(F, { + // The current version of fancyBox + version: '2.1.5', + + defaults: { + padding : 15, + margin : 20, + + width : 800, + height : 600, + minWidth : 100, + minHeight : 100, + maxWidth : 9999, + maxHeight : 9999, + pixelRatio: 1, // Set to 2 for retina display support + + autoSize : true, + autoHeight : false, + autoWidth : false, + + autoResize : true, + autoCenter : !isTouch, + fitToView : true, + aspectRatio : false, + topRatio : 0.5, + leftRatio : 0.5, + + scrolling : 'auto', // 'auto', 'yes' or 'no' + wrapCSS : '', + + arrows : true, + closeBtn : true, + closeClick : false, + nextClick : false, + mouseWheel : true, + autoPlay : false, + playSpeed : 3000, + preload : 3, + modal : false, + loop : true, + + ajax : { + dataType : 'html', + headers : { 'X-fancyBox': true } + }, + iframe : { + scrolling : 'auto', + preload : true + }, + swf : { + wmode: 'transparent', + allowfullscreen : 'true', + allowscriptaccess : 'always' + }, + + keys : { + next : { + 13 : 'left', // enter + 34 : 'up', // page down + 39 : 'left', // right arrow + 40 : 'up' // down arrow + }, + prev : { + 8 : 'right', // backspace + 33 : 'down', // page up + 37 : 'right', // left arrow + 38 : 'down' // up arrow + }, + close : [27], // escape key + play : [32], // space - start/stop slideshow + toggle : [70] // letter "f" - toggle fullscreen + }, + + direction : { + next : 'left', + prev : 'right' + }, + + scrollOutside : true, + + // Override some properties + index : 0, + type : null, + href : null, + content : null, + title : null, + + // HTML templates + tpl: { + wrap : '<div class="fancybox-wrap" tabIndex="-1"><div class="fancybox-skin"><div class="fancybox-outer"><div class="fancybox-inner"></div></div></div></div>', + image : '<img class="fancybox-image" src="{href}" alt="" />', + iframe : '<iframe id="fancybox-frame{rnd}" name="fancybox-frame{rnd}" class="fancybox-iframe" frameborder="0" vspace="0" hspace="0" webkitAllowFullScreen mozallowfullscreen allowFullScreen' + (IE ? ' allowtransparency="true"' : '') + '></iframe>', + error : '<p class="fancybox-error">The requested content cannot be loaded.<br/>Please try again later.</p>', + closeBtn : '<a title="Close" class="fancybox-item fancybox-close" href="javascript:;"></a>', + next : '<a title="Next" class="fancybox-nav fancybox-next" href="javascript:;"><span></span></a>', + prev : '<a title="Previous" class="fancybox-nav fancybox-prev" href="javascript:;"><span></span></a>' + }, + + // Properties for each animation type + // Opening fancyBox + openEffect : 'fade', // 'elastic', 'fade' or 'none' + openSpeed : 250, + openEasing : 'swing', + openOpacity : true, + openMethod : 'zoomIn', + + // Closing fancyBox + closeEffect : 'fade', // 'elastic', 'fade' or 'none' + closeSpeed : 250, + closeEasing : 'swing', + closeOpacity : true, + closeMethod : 'zoomOut', + + // Changing next gallery item + nextEffect : 'elastic', // 'elastic', 'fade' or 'none' + nextSpeed : 250, + nextEasing : 'swing', + nextMethod : 'changeIn', + + // Changing previous gallery item + prevEffect : 'elastic', // 'elastic', 'fade' or 'none' + prevSpeed : 250, + prevEasing : 'swing', + prevMethod : 'changeOut', + + // Enable default helpers + helpers : { + overlay : true, + title : true + }, + + // Callbacks + onCancel : $.noop, // If canceling + beforeLoad : $.noop, // Before loading + afterLoad : $.noop, // After loading + beforeShow : $.noop, // Before changing in current item + afterShow : $.noop, // After opening + beforeChange : $.noop, // Before changing gallery item + beforeClose : $.noop, // Before closing + afterClose : $.noop // After closing + }, + + //Current state + group : {}, // Selected group + opts : {}, // Group options + previous : null, // Previous element + coming : null, // Element being loaded + current : null, // Currently loaded element + isActive : false, // Is activated + isOpen : false, // Is currently open + isOpened : false, // Have been fully opened at least once + + wrap : null, + skin : null, + outer : null, + inner : null, + + player : { + timer : null, + isActive : false + }, + + // Loaders + ajaxLoad : null, + imgPreload : null, + + // Some collections + transitions : {}, + helpers : {}, + + /* + * Static methods + */ + + open: function (group, opts) { + if (!group) { + return; + } + + if (!$.isPlainObject(opts)) { + opts = {}; + } + + // Close if already active + if (false === F.close(true)) { + return; + } + + // Normalize group + if (!$.isArray(group)) { + group = isQuery(group) ? $(group).get() : [group]; + } + + // Recheck if the type of each element is `object` and set content type (image, ajax, etc) + $.each(group, function(i, element) { + var obj = {}, + href, + title, + content, + type, + rez, + hrefParts, + selector; + + if ($.type(element) === "object") { + // Check if is DOM element + if (element.nodeType) { + element = $(element); + } + + if (isQuery(element)) { + obj = { + href : element.data('fancybox-href') || element.attr('href'), + title : element.data('fancybox-title') || element.attr('title'), + isDom : true, + element : element + }; + + if ($.metadata) { + $.extend(true, obj, element.metadata()); + } + + } else { + obj = element; + } + } + + href = opts.href || obj.href || (isString(element) ? element : null); + title = opts.title !== undefined ? opts.title : obj.title || ''; + + content = opts.content || obj.content; + type = content ? 'html' : (opts.type || obj.type); + + if (!type && obj.isDom) { + type = element.data('fancybox-type'); + + if (!type) { + rez = element.prop('class').match(/fancybox\.(\w+)/); + type = rez ? rez[1] : null; + } + } + + if (isString(href)) { + // Try to guess the content type + if (!type) { + if (F.isImage(href)) { + type = 'image'; + + } else if (F.isSWF(href)) { + type = 'swf'; + + } else if (href.charAt(0) === '#') { + type = 'inline'; + + } else if (isString(element)) { + type = 'html'; + content = element; + } + } + + // Split url into two pieces with source url and content selector, e.g, + // "/mypage.html #my_id" will load "/mypage.html" and display element having id "my_id" + if (type === 'ajax') { + hrefParts = href.split(/\s+/, 2); + href = hrefParts.shift(); + selector = hrefParts.shift(); + } + } + + if (!content) { + if (type === 'inline') { + if (href) { + content = $( isString(href) ? href.replace(/.*(?=#[^\s]+$)/, '') : href ); //strip for ie7 + + } else if (obj.isDom) { + content = element; + } + + } else if (type === 'html') { + content = href; + + } else if (!type && !href && obj.isDom) { + type = 'inline'; + content = element; + } + } + + $.extend(obj, { + href : href, + type : type, + content : content, + title : title, + selector : selector + }); + + group[ i ] = obj; + }); + + // Extend the defaults + F.opts = $.extend(true, {}, F.defaults, opts); + + // All options are merged recursive except keys + if (opts.keys !== undefined) { + F.opts.keys = opts.keys ? $.extend({}, F.defaults.keys, opts.keys) : false; + } + + F.group = group; + + return F._start(F.opts.index); + }, + + // Cancel image loading or abort ajax request + cancel: function () { + var coming = F.coming; + + if (!coming || false === F.trigger('onCancel')) { + return; + } + + F.hideLoading(); + + if (F.ajaxLoad) { + F.ajaxLoad.abort(); + } + + F.ajaxLoad = null; + + if (F.imgPreload) { + F.imgPreload.onload = F.imgPreload.onerror = null; + } + + if (coming.wrap) { + coming.wrap.stop(true, true).trigger('onReset').remove(); + } + + F.coming = null; + + // If the first item has been canceled, then clear everything + if (!F.current) { + F._afterZoomOut( coming ); + } + }, + + // Start closing animation if is open; remove immediately if opening/closing + close: function (event) { + F.cancel(); + + if (false === F.trigger('beforeClose')) { + return; + } + + F.unbindEvents(); + + if (!F.isActive) { + return; + } + + if (!F.isOpen || event === true) { + $('.fancybox-wrap').stop(true).trigger('onReset').remove(); + + F._afterZoomOut(); + + } else { + F.isOpen = F.isOpened = false; + F.isClosing = true; + + $('.fancybox-item, .fancybox-nav').remove(); + + F.wrap.stop(true, true).removeClass('fancybox-opened'); + + F.transitions[ F.current.closeMethod ](); + } + }, + + // Manage slideshow: + // $.fancybox.play(); - toggle slideshow + // $.fancybox.play( true ); - start + // $.fancybox.play( false ); - stop + play: function ( action ) { + var clear = function () { + clearTimeout(F.player.timer); + }, + set = function () { + clear(); + + if (F.current && F.player.isActive) { + F.player.timer = setTimeout(F.next, F.current.playSpeed); + } + }, + stop = function () { + clear(); + + D.unbind('.player'); + + F.player.isActive = false; + + F.trigger('onPlayEnd'); + }, + start = function () { + if (F.current && (F.current.loop || F.current.index < F.group.length - 1)) { + F.player.isActive = true; + + D.bind({ + 'onCancel.player beforeClose.player' : stop, + 'onUpdate.player' : set, + 'beforeLoad.player' : clear + }); + + set(); + + F.trigger('onPlayStart'); + } + }; + + if (action === true || (!F.player.isActive && action !== false)) { + start(); + } else { + stop(); + } + }, + + // Navigate to next gallery item + next: function ( direction ) { + var current = F.current; + + if (current) { + if (!isString(direction)) { + direction = current.direction.next; + } + + F.jumpto(current.index + 1, direction, 'next'); + } + }, + + // Navigate to previous gallery item + prev: function ( direction ) { + var current = F.current; + + if (current) { + if (!isString(direction)) { + direction = current.direction.prev; + } + + F.jumpto(current.index - 1, direction, 'prev'); + } + }, + + // Navigate to gallery item by index + jumpto: function ( index, direction, router ) { + var current = F.current; + + if (!current) { + return; + } + + index = getScalar(index); + + F.direction = direction || current.direction[ (index >= current.index ? 'next' : 'prev') ]; + F.router = router || 'jumpto'; + + if (current.loop) { + if (index < 0) { + index = current.group.length + (index % current.group.length); + } + + index = index % current.group.length; + } + + if (current.group[ index ] !== undefined) { + F.cancel(); + + F._start(index); + } + }, + + // Center inside viewport and toggle position type to fixed or absolute if needed + reposition: function (e, onlyAbsolute) { + var current = F.current, + wrap = current ? current.wrap : null, + pos; + + if (wrap) { + pos = F._getPosition(onlyAbsolute); + + if (e && e.type === 'scroll') { + delete pos.position; + + wrap.stop(true, true).animate(pos, 200); + + } else { + wrap.css(pos); + + current.pos = $.extend({}, current.dim, pos); + } + } + }, + + update: function (e) { + var type = (e && e.type), + anyway = !type || type === 'orientationchange'; + + if (anyway) { + clearTimeout(didUpdate); + + didUpdate = null; + } + + if (!F.isOpen || didUpdate) { + return; + } + + didUpdate = setTimeout(function() { + var current = F.current; + + if (!current || F.isClosing) { + return; + } + + F.wrap.removeClass('fancybox-tmp'); + + if (anyway || type === 'load' || (type === 'resize' && current.autoResize)) { + F._setDimension(); + } + + if (!(type === 'scroll' && current.canShrink)) { + F.reposition(e); + } + + F.trigger('onUpdate'); + + didUpdate = null; + + }, (anyway && !isTouch ? 0 : 300)); + }, + + // Shrink content to fit inside viewport or restore if resized + toggle: function ( action ) { + if (F.isOpen) { + F.current.fitToView = $.type(action) === "boolean" ? action : !F.current.fitToView; + + // Help browser to restore document dimensions + if (isTouch) { + F.wrap.removeAttr('style').addClass('fancybox-tmp'); + + F.trigger('onUpdate'); + } + + F.update(); + } + }, + + hideLoading: function () { + D.unbind('.loading'); + + $('#fancybox-loading').remove(); + }, + + showLoading: function () { + var el, viewport; + + F.hideLoading(); + + el = $('<div id="fancybox-loading"><div></div></div>').click(F.cancel).appendTo('body'); + + // If user will press the escape-button, the request will be canceled + D.bind('keydown.loading', function(e) { + if ((e.which || e.keyCode) === 27) { + e.preventDefault(); + + F.cancel(); + } + }); + + if (!F.defaults.fixed) { + viewport = F.getViewport(); + + el.css({ + position : 'absolute', + top : (viewport.h * 0.5) + viewport.y, + left : (viewport.w * 0.5) + viewport.x + }); + } + }, + + getViewport: function () { + var locked = (F.current && F.current.locked) || false, + rez = { + x: W.scrollLeft(), + y: W.scrollTop() + }; + + if (locked) { + rez.w = locked[0].clientWidth; + rez.h = locked[0].clientHeight; + + } else { + // See http://bugs.jquery.com/ticket/6724 + rez.w = isTouch && window.innerWidth ? window.innerWidth : W.width(); + rez.h = isTouch && window.innerHeight ? window.innerHeight : W.height(); + } + + return rez; + }, + + // Unbind the keyboard / clicking actions + unbindEvents: function () { + if (F.wrap && isQuery(F.wrap)) { + F.wrap.unbind('.fb'); + } + + D.unbind('.fb'); + W.unbind('.fb'); + }, + + bindEvents: function () { + var current = F.current, + keys; + + if (!current) { + return; + } + + // Changing document height on iOS devices triggers a 'resize' event, + // that can change document height... repeating infinitely + W.bind('orientationchange.fb' + (isTouch ? '' : ' resize.fb') + (current.autoCenter && !current.locked ? ' scroll.fb' : ''), F.update); + + keys = current.keys; + + if (keys) { + D.bind('keydown.fb', function (e) { + var code = e.which || e.keyCode, + target = e.target || e.srcElement; + + // Skip esc key if loading, because showLoading will cancel preloading + if (code === 27 && F.coming) { + return false; + } + + // Ignore key combinations and key events within form elements + if (!e.ctrlKey && !e.altKey && !e.shiftKey && !e.metaKey && !(target && (target.type || $(target).is('[contenteditable]')))) { + $.each(keys, function(i, val) { + if (current.group.length > 1 && val[ code ] !== undefined) { + F[ i ]( val[ code ] ); + + e.preventDefault(); + return false; + } + + if ($.inArray(code, val) > -1) { + F[ i ] (); + + e.preventDefault(); + return false; + } + }); + } + }); + } + + if ($.fn.mousewheel && current.mouseWheel) { + F.wrap.bind('mousewheel.fb', function (e, delta, deltaX, deltaY) { + var target = e.target || null, + parent = $(target), + canScroll = false; + + while (parent.length) { + if (canScroll || parent.is('.fancybox-skin') || parent.is('.fancybox-wrap')) { + break; + } + + canScroll = isScrollable( parent[0] ); + parent = $(parent).parent(); + } + + if (delta !== 0 && !canScroll) { + if (F.group.length > 1 && !current.canShrink) { + if (deltaY > 0 || deltaX > 0) { + F.prev( deltaY > 0 ? 'down' : 'left' ); + + } else if (deltaY < 0 || deltaX < 0) { + F.next( deltaY < 0 ? 'up' : 'right' ); + } + + e.preventDefault(); + } + } + }); + } + }, + + trigger: function (event, o) { + var ret, obj = o || F.coming || F.current; + + if (!obj) { + return; + } + + if ($.isFunction( obj[event] )) { + ret = obj[event].apply(obj, Array.prototype.slice.call(arguments, 1)); + } + + if (ret === false) { + return false; + } + + if (obj.helpers) { + $.each(obj.helpers, function (helper, opts) { + if (opts && F.helpers[helper] && $.isFunction(F.helpers[helper][event])) { + F.helpers[helper][event]($.extend(true, {}, F.helpers[helper].defaults, opts), obj); + } + }); + } + + D.trigger(event); + }, + + isImage: function (str) { + return isString(str) && str.match(/(^data:image\/.*,)|(\.(jp(e|g|eg)|gif|png|bmp|webp|svg)((\?|#).*)?$)/i); + }, + + isSWF: function (str) { + return isString(str) && str.match(/\.(swf)((\?|#).*)?$/i); + }, + + _start: function (index) { + var coming = {}, + obj, + href, + type, + margin, + padding; + + index = getScalar( index ); + obj = F.group[ index ] || null; + + if (!obj) { + return false; + } + + coming = $.extend(true, {}, F.opts, obj); + + // Convert margin and padding properties to array - top, right, bottom, left + margin = coming.margin; + padding = coming.padding; + + if ($.type(margin) === 'number') { + coming.margin = [margin, margin, margin, margin]; + } + + if ($.type(padding) === 'number') { + coming.padding = [padding, padding, padding, padding]; + } + + // 'modal' propery is just a shortcut + if (coming.modal) { + $.extend(true, coming, { + closeBtn : false, + closeClick : false, + nextClick : false, + arrows : false, + mouseWheel : false, + keys : null, + helpers: { + overlay : { + closeClick : false + } + } + }); + } + + // 'autoSize' property is a shortcut, too + if (coming.autoSize) { + coming.autoWidth = coming.autoHeight = true; + } + + if (coming.width === 'auto') { + coming.autoWidth = true; + } + + if (coming.height === 'auto') { + coming.autoHeight = true; + } + + /* + * Add reference to the group, so it`s possible to access from callbacks, example: + * afterLoad : function() { + * this.title = 'Image ' + (this.index + 1) + ' of ' + this.group.length + (this.title ? ' - ' + this.title : ''); + * } + */ + + coming.group = F.group; + coming.index = index; + + // Give a chance for callback or helpers to update coming item (type, title, etc) + F.coming = coming; + + if (false === F.trigger('beforeLoad')) { + F.coming = null; + + return; + } + + type = coming.type; + href = coming.href; + + if (!type) { + F.coming = null; + + //If we can not determine content type then drop silently or display next/prev item if looping through gallery + if (F.current && F.router && F.router !== 'jumpto') { + F.current.index = index; + + return F[ F.router ]( F.direction ); + } + + return false; + } + + F.isActive = true; + + if (type === 'image' || type === 'swf') { + coming.autoHeight = coming.autoWidth = false; + coming.scrolling = 'visible'; + } + + if (type === 'image') { + coming.aspectRatio = true; + } + + if (type === 'iframe' && isTouch) { + coming.scrolling = 'scroll'; + } + + // Build the neccessary markup + coming.wrap = $(coming.tpl.wrap).addClass('fancybox-' + (isTouch ? 'mobile' : 'desktop') + ' fancybox-type-' + type + ' fancybox-tmp ' + coming.wrapCSS).appendTo( coming.parent || 'body' ); + + $.extend(coming, { + skin : $('.fancybox-skin', coming.wrap), + outer : $('.fancybox-outer', coming.wrap), + inner : $('.fancybox-inner', coming.wrap) + }); + + $.each(["Top", "Right", "Bottom", "Left"], function(i, v) { + coming.skin.css('padding' + v, getValue(coming.padding[ i ])); + }); + + F.trigger('onReady'); + + // Check before try to load; 'inline' and 'html' types need content, others - href + if (type === 'inline' || type === 'html') { + if (!coming.content || !coming.content.length) { + return F._error( 'content' ); + } + + } else if (!href) { + return F._error( 'href' ); + } + + if (type === 'image') { + F._loadImage(); + + } else if (type === 'ajax') { + F._loadAjax(); + + } else if (type === 'iframe') { + F._loadIframe(); + + } else { + F._afterLoad(); + } + }, + + _error: function ( type ) { + $.extend(F.coming, { + type : 'html', + autoWidth : true, + autoHeight : true, + minWidth : 0, + minHeight : 0, + scrolling : 'no', + hasError : type, + content : F.coming.tpl.error + }); + + F._afterLoad(); + }, + + _loadImage: function () { + // Reset preload image so it is later possible to check "complete" property + var img = F.imgPreload = new Image(); + + img.onload = function () { + this.onload = this.onerror = null; + + F.coming.width = this.width / F.opts.pixelRatio; + F.coming.height = this.height / F.opts.pixelRatio; + + F._afterLoad(); + }; + + img.onerror = function () { + this.onload = this.onerror = null; + + F._error( 'image' ); + }; + + img.src = F.coming.href; + + if (img.complete !== true) { + F.showLoading(); + } + }, + + _loadAjax: function () { + var coming = F.coming; + + F.showLoading(); + + F.ajaxLoad = $.ajax($.extend({}, coming.ajax, { + url: coming.href, + error: function (jqXHR, textStatus) { + if (F.coming && textStatus !== 'abort') { + F._error( 'ajax', jqXHR ); + + } else { + F.hideLoading(); + } + }, + success: function (data, textStatus) { + if (textStatus === 'success') { + coming.content = data; + + F._afterLoad(); + } + } + })); + }, + + _loadIframe: function() { + var coming = F.coming, + iframe = $(coming.tpl.iframe.replace(/\{rnd\}/g, new Date().getTime())) + .attr('scrolling', isTouch ? 'auto' : coming.iframe.scrolling) + .attr('src', coming.href); + + // This helps IE + $(coming.wrap).bind('onReset', function () { + try { + $(this).find('iframe').hide().attr('src', '//about:blank').end().empty(); + } catch (e) {} + }); + + if (coming.iframe.preload) { + F.showLoading(); + + iframe.one('load', function() { + $(this).data('ready', 1); + + // iOS will lose scrolling if we resize + if (!isTouch) { + $(this).bind('load.fb', F.update); + } + + // Without this trick: + // - iframe won't scroll on iOS devices + // - IE7 sometimes displays empty iframe + $(this).parents('.fancybox-wrap').width('100%').removeClass('fancybox-tmp').show(); + + F._afterLoad(); + }); + } + + coming.content = iframe.appendTo( coming.inner ); + + if (!coming.iframe.preload) { + F._afterLoad(); + } + }, + + _preloadImages: function() { + var group = F.group, + current = F.current, + len = group.length, + cnt = current.preload ? Math.min(current.preload, len - 1) : 0, + item, + i; + + for (i = 1; i <= cnt; i += 1) { + item = group[ (current.index + i ) % len ]; + + if (item.type === 'image' && item.href) { + new Image().src = item.href; + } + } + }, + + _afterLoad: function () { + var coming = F.coming, + previous = F.current, + placeholder = 'fancybox-placeholder', + current, + content, + type, + scrolling, + href, + embed; + + F.hideLoading(); + + if (!coming || F.isActive === false) { + return; + } + + if (false === F.trigger('afterLoad', coming, previous)) { + coming.wrap.stop(true).trigger('onReset').remove(); + + F.coming = null; + + return; + } + + if (previous) { + F.trigger('beforeChange', previous); + + previous.wrap.stop(true).removeClass('fancybox-opened') + .find('.fancybox-item, .fancybox-nav') + .remove(); + } + + F.unbindEvents(); + + current = coming; + content = coming.content; + type = coming.type; + scrolling = coming.scrolling; + + $.extend(F, { + wrap : current.wrap, + skin : current.skin, + outer : current.outer, + inner : current.inner, + current : current, + previous : previous + }); + + href = current.href; + + switch (type) { + case 'inline': + case 'ajax': + case 'html': + if (current.selector) { + content = $('<div>').html(content).find(current.selector); + + } else if (isQuery(content)) { + if (!content.data(placeholder)) { + content.data(placeholder, $('<div class="' + placeholder + '"></div>').insertAfter( content ).hide() ); + } + + content = content.show().detach(); + + current.wrap.bind('onReset', function () { + if ($(this).find(content).length) { + content.hide().replaceAll( content.data(placeholder) ).data(placeholder, false); + } + }); + } + break; + + case 'image': + content = current.tpl.image.replace('{href}', href); + break; + + case 'swf': + content = '<object id="fancybox-swf" classid="clsid:D27CDB6E-AE6D-11cf-96B8-444553540000" width="100%" height="100%"><param name="movie" value="' + href + '"></param>'; + embed = ''; + + $.each(current.swf, function(name, val) { + content += '<param name="' + name + '" value="' + val + '"></param>'; + embed += ' ' + name + '="' + val + '"'; + }); + + content += '<embed src="' + href + '" type="application/x-shockwave-flash" width="100%" height="100%"' + embed + '></embed></object>'; + break; + } + + if (!(isQuery(content) && content.parent().is(current.inner))) { + current.inner.append( content ); + } + + // Give a chance for helpers or callbacks to update elements + F.trigger('beforeShow'); + + // Set scrolling before calculating dimensions + current.inner.css('overflow', scrolling === 'yes' ? 'scroll' : (scrolling === 'no' ? 'hidden' : scrolling)); + + // Set initial dimensions and start position + F._setDimension(); + + F.reposition(); + + F.isOpen = false; + F.coming = null; + + F.bindEvents(); + + if (!F.isOpened) { + $('.fancybox-wrap').not( current.wrap ).stop(true).trigger('onReset').remove(); + + } else if (previous.prevMethod) { + F.transitions[ previous.prevMethod ](); + } + + F.transitions[ F.isOpened ? current.nextMethod : current.openMethod ](); + + F._preloadImages(); + }, + + _setDimension: function () { + var viewport = F.getViewport(), + steps = 0, + canShrink = false, + canExpand = false, + wrap = F.wrap, + skin = F.skin, + inner = F.inner, + current = F.current, + width = current.width, + height = current.height, + minWidth = current.minWidth, + minHeight = current.minHeight, + maxWidth = current.maxWidth, + maxHeight = current.maxHeight, + scrolling = current.scrolling, + scrollOut = current.scrollOutside ? current.scrollbarWidth : 0, + margin = current.margin, + wMargin = getScalar(margin[1] + margin[3]), + hMargin = getScalar(margin[0] + margin[2]), + wPadding, + hPadding, + wSpace, + hSpace, + origWidth, + origHeight, + origMaxWidth, + origMaxHeight, + ratio, + width_, + height_, + maxWidth_, + maxHeight_, + iframe, + body; + + // Reset dimensions so we could re-check actual size + wrap.add(skin).add(inner).width('auto').height('auto').removeClass('fancybox-tmp'); + + wPadding = getScalar(skin.outerWidth(true) - skin.width()); + hPadding = getScalar(skin.outerHeight(true) - skin.height()); + + // Any space between content and viewport (margin, padding, border, title) + wSpace = wMargin + wPadding; + hSpace = hMargin + hPadding; + + origWidth = isPercentage(width) ? (viewport.w - wSpace) * getScalar(width) / 100 : width; + origHeight = isPercentage(height) ? (viewport.h - hSpace) * getScalar(height) / 100 : height; + + if (current.type === 'iframe') { + iframe = current.content; + + if (current.autoHeight && iframe.data('ready') === 1) { + try { + if (iframe[0].contentWindow.document.location) { + inner.width( origWidth ).height(9999); + + body = iframe.contents().find('body'); + + if (scrollOut) { + body.css('overflow-x', 'hidden'); + } + + origHeight = body.outerHeight(true); + } + + } catch (e) {} + } + + } else if (current.autoWidth || current.autoHeight) { + inner.addClass( 'fancybox-tmp' ); + + // Set width or height in case we need to calculate only one dimension + if (!current.autoWidth) { + inner.width( origWidth ); + } + + if (!current.autoHeight) { + inner.height( origHeight ); + } + + if (current.autoWidth) { + origWidth = inner.width(); + } + + if (current.autoHeight) { + origHeight = inner.height(); + } + + inner.removeClass( 'fancybox-tmp' ); + } + + width = getScalar( origWidth ); + height = getScalar( origHeight ); + + ratio = origWidth / origHeight; + + // Calculations for the content + minWidth = getScalar(isPercentage(minWidth) ? getScalar(minWidth, 'w') - wSpace : minWidth); + maxWidth = getScalar(isPercentage(maxWidth) ? getScalar(maxWidth, 'w') - wSpace : maxWidth); + + minHeight = getScalar(isPercentage(minHeight) ? getScalar(minHeight, 'h') - hSpace : minHeight); + maxHeight = getScalar(isPercentage(maxHeight) ? getScalar(maxHeight, 'h') - hSpace : maxHeight); + + // These will be used to determine if wrap can fit in the viewport + origMaxWidth = maxWidth; + origMaxHeight = maxHeight; + + if (current.fitToView) { + maxWidth = Math.min(viewport.w - wSpace, maxWidth); + maxHeight = Math.min(viewport.h - hSpace, maxHeight); + } + + maxWidth_ = viewport.w - wMargin; + maxHeight_ = viewport.h - hMargin; + + if (current.aspectRatio) { + if (width > maxWidth) { + width = maxWidth; + height = getScalar(width / ratio); + } + + if (height > maxHeight) { + height = maxHeight; + width = getScalar(height * ratio); + } + + if (width < minWidth) { + width = minWidth; + height = getScalar(width / ratio); + } + + if (height < minHeight) { + height = minHeight; + width = getScalar(height * ratio); + } + + } else { + width = Math.max(minWidth, Math.min(width, maxWidth)); + + if (current.autoHeight && current.type !== 'iframe') { + inner.width( width ); + + height = inner.height(); + } + + height = Math.max(minHeight, Math.min(height, maxHeight)); + } + + // Try to fit inside viewport (including the title) + if (current.fitToView) { + inner.width( width ).height( height ); + + wrap.width( width + wPadding ); + + // Real wrap dimensions + width_ = wrap.width(); + height_ = wrap.height(); + + if (current.aspectRatio) { + while ((width_ > maxWidth_ || height_ > maxHeight_) && width > minWidth && height > minHeight) { + if (steps++ > 19) { + break; + } + + height = Math.max(minHeight, Math.min(maxHeight, height - 10)); + width = getScalar(height * ratio); + + if (width < minWidth) { + width = minWidth; + height = getScalar(width / ratio); + } + + if (width > maxWidth) { + width = maxWidth; + height = getScalar(width / ratio); + } + + inner.width( width ).height( height ); + + wrap.width( width + wPadding ); + + width_ = wrap.width(); + height_ = wrap.height(); + } + + } else { + width = Math.max(minWidth, Math.min(width, width - (width_ - maxWidth_))); + height = Math.max(minHeight, Math.min(height, height - (height_ - maxHeight_))); + } + } + + if (scrollOut && scrolling === 'auto' && height < origHeight && (width + wPadding + scrollOut) < maxWidth_) { + width += scrollOut; + } + + inner.width( width ).height( height ); + + wrap.width( width + wPadding ); + + width_ = wrap.width(); + height_ = wrap.height(); + + canShrink = (width_ > maxWidth_ || height_ > maxHeight_) && width > minWidth && height > minHeight; + canExpand = current.aspectRatio ? (width < origMaxWidth && height < origMaxHeight && width < origWidth && height < origHeight) : ((width < origMaxWidth || height < origMaxHeight) && (width < origWidth || height < origHeight)); + + $.extend(current, { + dim : { + width : getValue( width_ ), + height : getValue( height_ ) + }, + origWidth : origWidth, + origHeight : origHeight, + canShrink : canShrink, + canExpand : canExpand, + wPadding : wPadding, + hPadding : hPadding, + wrapSpace : height_ - skin.outerHeight(true), + skinSpace : skin.height() - height + }); + + if (!iframe && current.autoHeight && height > minHeight && height < maxHeight && !canExpand) { + inner.height('auto'); + } + }, + + _getPosition: function (onlyAbsolute) { + var current = F.current, + viewport = F.getViewport(), + margin = current.margin, + width = F.wrap.width() + margin[1] + margin[3], + height = F.wrap.height() + margin[0] + margin[2], + rez = { + position: 'absolute', + top : margin[0], + left : margin[3] + }; + + if (current.autoCenter && current.fixed && !onlyAbsolute && height <= viewport.h && width <= viewport.w) { + rez.position = 'fixed'; + + } else if (!current.locked) { + rez.top += viewport.y; + rez.left += viewport.x; + } + + rez.top = getValue(Math.max(rez.top, rez.top + ((viewport.h - height) * current.topRatio))); + rez.left = getValue(Math.max(rez.left, rez.left + ((viewport.w - width) * current.leftRatio))); + + return rez; + }, + + _afterZoomIn: function () { + var current = F.current; + + if (!current) { + return; + } + + F.isOpen = F.isOpened = true; + + F.wrap.css('overflow', 'visible').addClass('fancybox-opened'); + + F.update(); + + // Assign a click event + if ( current.closeClick || (current.nextClick && F.group.length > 1) ) { + F.inner.css('cursor', 'pointer').bind('click.fb', function(e) { + if (!$(e.target).is('a') && !$(e.target).parent().is('a')) { + e.preventDefault(); + + F[ current.closeClick ? 'close' : 'next' ](); + } + }); + } + + // Create a close button + if (current.closeBtn) { + $(current.tpl.closeBtn).appendTo(F.skin).bind('click.fb', function(e) { + e.preventDefault(); + + F.close(); + }); + } + + // Create navigation arrows + if (current.arrows && F.group.length > 1) { + if (current.loop || current.index > 0) { + $(current.tpl.prev).appendTo(F.outer).bind('click.fb', F.prev); + } + + if (current.loop || current.index < F.group.length - 1) { + $(current.tpl.next).appendTo(F.outer).bind('click.fb', F.next); + } + } + + F.trigger('afterShow'); + + // Stop the slideshow if this is the last item + if (!current.loop && current.index === current.group.length - 1) { + F.play( false ); + + } else if (F.opts.autoPlay && !F.player.isActive) { + F.opts.autoPlay = false; + + F.play(); + } + }, + + _afterZoomOut: function ( obj ) { + obj = obj || F.current; + + $('.fancybox-wrap').trigger('onReset').remove(); + + $.extend(F, { + group : {}, + opts : {}, + router : false, + current : null, + isActive : false, + isOpened : false, + isOpen : false, + isClosing : false, + wrap : null, + skin : null, + outer : null, + inner : null + }); + + F.trigger('afterClose', obj); + } + }); + + /* + * Default transitions + */ + + F.transitions = { + getOrigPosition: function () { + var current = F.current, + element = current.element, + orig = current.orig, + pos = {}, + width = 50, + height = 50, + hPadding = current.hPadding, + wPadding = current.wPadding, + viewport = F.getViewport(); + + if (!orig && current.isDom && element.is(':visible')) { + orig = element.find('img:first'); + + if (!orig.length) { + orig = element; + } + } + + if (isQuery(orig)) { + pos = orig.offset(); + + if (orig.is('img')) { + width = orig.outerWidth(); + height = orig.outerHeight(); + } + + } else { + pos.top = viewport.y + (viewport.h - height) * current.topRatio; + pos.left = viewport.x + (viewport.w - width) * current.leftRatio; + } + + if (F.wrap.css('position') === 'fixed' || current.locked) { + pos.top -= viewport.y; + pos.left -= viewport.x; + } + + pos = { + top : getValue(pos.top - hPadding * current.topRatio), + left : getValue(pos.left - wPadding * current.leftRatio), + width : getValue(width + wPadding), + height : getValue(height + hPadding) + }; + + return pos; + }, + + step: function (now, fx) { + var ratio, + padding, + value, + prop = fx.prop, + current = F.current, + wrapSpace = current.wrapSpace, + skinSpace = current.skinSpace; + + if (prop === 'width' || prop === 'height') { + ratio = fx.end === fx.start ? 1 : (now - fx.start) / (fx.end - fx.start); + + if (F.isClosing) { + ratio = 1 - ratio; + } + + padding = prop === 'width' ? current.wPadding : current.hPadding; + value = now - padding; + + F.skin[ prop ]( getScalar( prop === 'width' ? value : value - (wrapSpace * ratio) ) ); + F.inner[ prop ]( getScalar( prop === 'width' ? value : value - (wrapSpace * ratio) - (skinSpace * ratio) ) ); + } + }, + + zoomIn: function () { + var current = F.current, + startPos = current.pos, + effect = current.openEffect, + elastic = effect === 'elastic', + endPos = $.extend({opacity : 1}, startPos); + + // Remove "position" property that breaks older IE + delete endPos.position; + + if (elastic) { + startPos = this.getOrigPosition(); + + if (current.openOpacity) { + startPos.opacity = 0.1; + } + + } else if (effect === 'fade') { + startPos.opacity = 0.1; + } + + F.wrap.css(startPos).animate(endPos, { + duration : effect === 'none' ? 0 : current.openSpeed, + easing : current.openEasing, + step : elastic ? this.step : null, + complete : F._afterZoomIn + }); + }, + + zoomOut: function () { + var current = F.current, + effect = current.closeEffect, + elastic = effect === 'elastic', + endPos = {opacity : 0.1}; + + if (elastic) { + endPos = this.getOrigPosition(); + + if (current.closeOpacity) { + endPos.opacity = 0.1; + } + } + + F.wrap.animate(endPos, { + duration : effect === 'none' ? 0 : current.closeSpeed, + easing : current.closeEasing, + step : elastic ? this.step : null, + complete : F._afterZoomOut + }); + }, + + changeIn: function () { + var current = F.current, + effect = current.nextEffect, + startPos = current.pos, + endPos = { opacity : 1 }, + direction = F.direction, + distance = 200, + field; + + startPos.opacity = 0.1; + + if (effect === 'elastic') { + field = direction === 'down' || direction === 'up' ? 'top' : 'left'; + + if (direction === 'down' || direction === 'right') { + startPos[ field ] = getValue(getScalar(startPos[ field ]) - distance); + endPos[ field ] = '+=' + distance + 'px'; + + } else { + startPos[ field ] = getValue(getScalar(startPos[ field ]) + distance); + endPos[ field ] = '-=' + distance + 'px'; + } + } + + // Workaround for http://bugs.jquery.com/ticket/12273 + if (effect === 'none') { + F._afterZoomIn(); + + } else { + F.wrap.css(startPos).animate(endPos, { + duration : current.nextSpeed, + easing : current.nextEasing, + complete : F._afterZoomIn + }); + } + }, + + changeOut: function () { + var previous = F.previous, + effect = previous.prevEffect, + endPos = { opacity : 0.1 }, + direction = F.direction, + distance = 200; + + if (effect === 'elastic') { + endPos[ direction === 'down' || direction === 'up' ? 'top' : 'left' ] = ( direction === 'up' || direction === 'left' ? '-' : '+' ) + '=' + distance + 'px'; + } + + previous.wrap.animate(endPos, { + duration : effect === 'none' ? 0 : previous.prevSpeed, + easing : previous.prevEasing, + complete : function () { + $(this).trigger('onReset').remove(); + } + }); + } + }; + + /* + * Overlay helper + */ + + F.helpers.overlay = { + defaults : { + closeClick : true, // if true, fancyBox will be closed when user clicks on the overlay + speedOut : 200, // duration of fadeOut animation + showEarly : true, // indicates if should be opened immediately or wait until the content is ready + css : {}, // custom CSS properties + locked : !isTouch, // if true, the content will be locked into overlay + fixed : true // if false, the overlay CSS position property will not be set to "fixed" + }, + + overlay : null, // current handle + fixed : false, // indicates if the overlay has position "fixed" + el : $('html'), // element that contains "the lock" + + // Public methods + create : function(opts) { + opts = $.extend({}, this.defaults, opts); + + if (this.overlay) { + this.close(); + } + + this.overlay = $('<div class="fancybox-overlay"></div>').appendTo( F.coming ? F.coming.parent : opts.parent ); + this.fixed = false; + + if (opts.fixed && F.defaults.fixed) { + this.overlay.addClass('fancybox-overlay-fixed'); + + this.fixed = true; + } + }, + + open : function(opts) { + var that = this; + + opts = $.extend({}, this.defaults, opts); + + if (this.overlay) { + this.overlay.unbind('.overlay').width('auto').height('auto'); + + } else { + this.create(opts); + } + + if (!this.fixed) { + W.bind('resize.overlay', $.proxy( this.update, this) ); + + this.update(); + } + + if (opts.closeClick) { + this.overlay.bind('click.overlay', function(e) { + if ($(e.target).hasClass('fancybox-overlay')) { + if (F.isActive) { + F.close(); + } else { + that.close(); + } + + return false; + } + }); + } + + this.overlay.css( opts.css ).show(); + }, + + close : function() { + var scrollV, scrollH; + + W.unbind('resize.overlay'); + + if (this.el.hasClass('fancybox-lock')) { + $('.fancybox-margin').removeClass('fancybox-margin'); + + scrollV = W.scrollTop(); + scrollH = W.scrollLeft(); + + this.el.removeClass('fancybox-lock'); + + W.scrollTop( scrollV ).scrollLeft( scrollH ); + } + + $('.fancybox-overlay').remove().hide(); + + $.extend(this, { + overlay : null, + fixed : false + }); + }, + + // Private, callbacks + + update : function () { + var width = '100%', offsetWidth; + + // Reset width/height so it will not mess + this.overlay.width(width).height('100%'); + + // jQuery does not return reliable result for IE + if (IE) { + offsetWidth = Math.max(document.documentElement.offsetWidth, document.body.offsetWidth); + + if (D.width() > offsetWidth) { + width = D.width(); + } + + } else if (D.width() > W.width()) { + width = D.width(); + } + + this.overlay.width(width).height(D.height()); + }, + + // This is where we can manipulate DOM, because later it would cause iframes to reload + onReady : function (opts, obj) { + var overlay = this.overlay; + + $('.fancybox-overlay').stop(true, true); + + if (!overlay) { + this.create(opts); + } + + if (opts.locked && this.fixed && obj.fixed) { + if (!overlay) { + this.margin = D.height() > W.height() ? $('html').css('margin-right').replace("px", "") : false; + } + + obj.locked = this.overlay.append( obj.wrap ); + obj.fixed = false; + } + + if (opts.showEarly === true) { + this.beforeShow.apply(this, arguments); + } + }, + + beforeShow : function(opts, obj) { + var scrollV, scrollH; + + if (obj.locked) { + if (this.margin !== false) { + $('*').filter(function(){ + return ($(this).css('position') === 'fixed' && !$(this).hasClass("fancybox-overlay") && !$(this).hasClass("fancybox-wrap") ); + }).addClass('fancybox-margin'); + + this.el.addClass('fancybox-margin'); + } + + scrollV = W.scrollTop(); + scrollH = W.scrollLeft(); + + this.el.addClass('fancybox-lock'); + + W.scrollTop( scrollV ).scrollLeft( scrollH ); + } + + this.open(opts); + }, + + onUpdate : function() { + if (!this.fixed) { + this.update(); + } + }, + + afterClose: function (opts) { + // Remove overlay if exists and fancyBox is not opening + // (e.g., it is not being open using afterClose callback) + //if (this.overlay && !F.isActive) { + if (this.overlay && !F.coming) { + this.overlay.fadeOut(opts.speedOut, $.proxy( this.close, this )); + } + } + }; + + /* + * Title helper + */ + + F.helpers.title = { + defaults : { + type : 'float', // 'float', 'inside', 'outside' or 'over', + position : 'bottom' // 'top' or 'bottom' + }, + + beforeShow: function (opts) { + var current = F.current, + text = current.title, + type = opts.type, + title, + target; + + if ($.isFunction(text)) { + text = text.call(current.element, current); + } + + if (!isString(text) || $.trim(text) === '') { + return; + } + + title = $('<div class="fancybox-title fancybox-title-' + type + '-wrap">' + text + '</div>'); + + switch (type) { + case 'inside': + target = F.skin; + break; + + case 'outside': + target = F.wrap; + break; + + case 'over': + target = F.inner; + break; + + default: // 'float' + target = F.skin; + + title.appendTo('body'); + + if (IE) { + title.width( title.width() ); + } + + title.wrapInner('<span class="child"></span>'); + + //Increase bottom margin so this title will also fit into viewport + F.current.margin[2] += Math.abs( getScalar(title.css('margin-bottom')) ); + break; + } + + title[ (opts.position === 'top' ? 'prependTo' : 'appendTo') ](target); + } + }; + + // jQuery plugin initialization + $.fn.fancybox = function (options) { + var index, + that = $(this), + selector = this.selector || '', + run = function(e) { + var what = $(this).blur(), idx = index, relType, relVal; + + if (!(e.ctrlKey || e.altKey || e.shiftKey || e.metaKey) && !what.is('.fancybox-wrap')) { + relType = options.groupAttr || 'data-fancybox-group'; + relVal = what.attr(relType); + + if (!relVal) { + relType = 'rel'; + relVal = what.get(0)[ relType ]; + } + + if (relVal && relVal !== '' && relVal !== 'nofollow') { + what = selector.length ? $(selector) : that; + what = what.filter('[' + relType + '="' + relVal + '"]'); + idx = what.index(this); + } + + options.index = idx; + + // Stop an event from bubbling if everything is fine + if (F.open(what, options) !== false) { + e.preventDefault(); + } + } + }; + + options = options || {}; + index = options.index || 0; + + if (!selector || options.live === false) { + that.unbind('click.fb-start').bind('click.fb-start', run); + + } else { + D.undelegate(selector, 'click.fb-start').delegate(selector + ":not('.fancybox-item, .fancybox-nav')", 'click.fb-start', run); + } + + this.filter('[data-fancybox-start=1]').trigger('click'); + + return this; + }; + + // Tests that need a body at doc ready + D.ready(function() { + var w1, w2; + + if ( $.scrollbarWidth === undefined ) { + // http://benalman.com/projects/jquery-misc-plugins/#scrollbarwidth + $.scrollbarWidth = function() { + var parent = $('<div style="width:50px;height:50px;overflow:auto"><div/></div>').appendTo('body'), + child = parent.children(), + width = child.innerWidth() - child.height( 99 ).innerWidth(); + + parent.remove(); + + return width; + }; + } + + if ( $.support.fixedPosition === undefined ) { + $.support.fixedPosition = (function() { + var elem = $('<div style="position:fixed;top:20px;"></div>').appendTo('body'), + fixed = ( elem[0].offsetTop === 20 || elem[0].offsetTop === 15 ); + + elem.remove(); + + return fixed; + }()); + } + + $.extend(F.defaults, { + scrollbarWidth : $.scrollbarWidth(), + fixed : $.support.fixedPosition, + parent : $('body') + }); + + //Get real width of page scroll-bar + w1 = $(window).width(); + + H.addClass('fancybox-lock-test'); + + w2 = $(window).width(); + + H.removeClass('fancybox-lock-test'); + + $("<style type='text/css'>.fancybox-margin{margin-right:" + (w2 - w1) + "px;}</style>").appendTo("head"); + }); + +}(window, document, jQuery));
\ No newline at end of file diff --git a/fancybox/source/jquery.fancybox.pack.js b/fancybox/source/jquery.fancybox.pack.js new file mode 100755 index 0000000..73f7578 --- /dev/null +++ b/fancybox/source/jquery.fancybox.pack.js @@ -0,0 +1,46 @@ +/*! fancyBox v2.1.5 fancyapps.com | fancyapps.com/fancybox/#license */ +(function(r,G,f,v){var J=f("html"),n=f(r),p=f(G),b=f.fancybox=function(){b.open.apply(this,arguments)},I=navigator.userAgent.match(/msie/i),B=null,s=G.createTouch!==v,t=function(a){return a&&a.hasOwnProperty&&a instanceof f},q=function(a){return a&&"string"===f.type(a)},E=function(a){return q(a)&&0<a.indexOf("%")},l=function(a,d){var e=parseInt(a,10)||0;d&&E(a)&&(e*=b.getViewport()[d]/100);return Math.ceil(e)},w=function(a,b){return l(a,b)+"px"};f.extend(b,{version:"2.1.5",defaults:{padding:15,margin:20, +width:800,height:600,minWidth:100,minHeight:100,maxWidth:9999,maxHeight:9999,pixelRatio:1,autoSize:!0,autoHeight:!1,autoWidth:!1,autoResize:!0,autoCenter:!s,fitToView:!0,aspectRatio:!1,topRatio:0.5,leftRatio:0.5,scrolling:"auto",wrapCSS:"",arrows:!0,closeBtn:!0,closeClick:!1,nextClick:!1,mouseWheel:!0,autoPlay:!1,playSpeed:3E3,preload:3,modal:!1,loop:!0,ajax:{dataType:"html",headers:{"X-fancyBox":!0}},iframe:{scrolling:"auto",preload:!0},swf:{wmode:"transparent",allowfullscreen:"true",allowscriptaccess:"always"}, +keys:{next:{13:"left",34:"up",39:"left",40:"up"},prev:{8:"right",33:"down",37:"right",38:"down"},close:[27],play:[32],toggle:[70]},direction:{next:"left",prev:"right"},scrollOutside:!0,index:0,type:null,href:null,content:null,title:null,tpl:{wrap:'<div class="fancybox-wrap" tabIndex="-1"><div class="fancybox-skin"><div class="fancybox-outer"><div class="fancybox-inner"></div></div></div></div>',image:'<img class="fancybox-image" src="{href}" alt="" />',iframe:'<iframe 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\ No newline at end of file diff --git a/fancybox/sprite.psd b/fancybox/sprite.psd Binary files differnew file mode 100755 index 0000000..6f2032d --- /dev/null +++ b/fancybox/sprite.psd diff --git a/fix_books.php b/fix_books.php new file mode 100755 index 0000000..cdff070 --- /dev/null +++ b/fix_books.php @@ -0,0 +1,28 @@ +<?php + require_once('db-connect.php'); + + $query = "select id from textbook_companion_chapter where cloud_chapter_err_status=0 and preference_id in (select id from textbook_companion_preference where approval_status=1 and proposal_id in (select id from textbook_companion_proposal where proposal_status=3))"; + $result = mysql_query($query); + while($row = mysql_fetch_object($result)) { + $query = "select count(id) as cid from textbook_companion_example where chapter_id=".$row->id." and cloud_err_status=0"; + $res = mysql_query($query); + $rec = mysql_fetch_object($res); + $cid = (int)($rec->cid); + if($cid == 0) { + $query = "update textbook_companion_chapter set cloud_chapter_err_status=1 where id=".$row->id; + mysql_query($query); + } + } + $query = "select id from textbook_companion_preference where approval_status=1 and proposal_id in (select id from textbook_companion_proposal where proposal_status=3)"; + $result = mysql_query($query); + while($row = mysql_fetch_object($result)) { + $query = "select count(id) as cid from textbook_companion_chapter where cloud_chapter_err_status=0 and preference_id=".$row->id; + $res = mysql_query($query); + $rec = mysql_fetch_object($res); + $cid = (int)($rec->cid); + if($cid == 0) { + $query = "update textbook_companion_preference set cloud_pref_err_status=1 where id=".$row->id; + mysql_query($query); + } + } +?> diff --git a/get_chapters.php b/get_chapters.php new file mode 100755 index 0000000..bbec9ca --- /dev/null +++ b/get_chapters.php @@ -0,0 +1,31 @@ +<?php +$ch = curl_init(); +$id= $_GET['id']; +$fields = array ( + "id" => urlencode($id), + "api_user" => urlencode("scilab"), + "api_key" => urlencode("zdFmTjX98.") + ); +$fields_string=''; +foreach($fields as $key=>$value) { $fields_string .= $key.'='.$value.'&'; } +rtrim($fields_string, '&'); +$url="http://scilab-test.garudaindia.in/cloud/get_chapters"; +//set the url, number of POST vars, POST data +curl_setopt($ch, CURLOPT_RETURNTRANSFER, true); +curl_setopt($ch,CURLOPT_URL, $url); +curl_setopt($ch,CURLOPT_POST, count($fields)); +curl_setopt($ch,CURLOPT_POSTFIELDS, $fields_string); +//execute post +$result = curl_exec($ch); +$json_d = json_decode($result)->{"response"}->{"data"}; +echo "<select name='chapter' id='chapter'><option value=''>Select Chapter</option>"; +//print_r($json_d[0]); +for($i=0;$i<sizeof($json_d);$i++) { // +echo "<option value='".$json_d[$i]->{"value"}."'>".$json_d[$i]->{"name"}."</option>"; +//echo $i; + } +echo "</select>"; + + +?> + diff --git a/get_code.php b/get_code.php new file mode 100755 index 0000000..52641f3 --- /dev/null +++ b/get_code.php @@ -0,0 +1,31 @@ +<?php +$ch = curl_init(); +$id= $_GET['id']; +$folder = $_GET['folder']; +$fields = array ( + "example" => urlencode($id), + "folder" => urlencode($folder), + "api_user" => urlencode("scilab"), + "api_key" => urlencode("zdFmTjX98.") + ); +$fields_string=''; +foreach($fields as $key=>$value) { $fields_string .= $key.'='.$value.'&'; } +rtrim($fields_string, '&'); +$url="http://scilab-test.garudaindia.in/cloud/get_code"; +//set the url, number of POST vars, POST data +curl_setopt($ch, CURLOPT_RETURNTRANSFER, true); +curl_setopt($ch,CURLOPT_URL, $url); +curl_setopt($ch,CURLOPT_POST, count($fields)); +curl_setopt($ch,CURLOPT_POSTFIELDS, $fields_string); +//execute post +$result = curl_exec($ch); +$json_d = json_decode($result); +//print_r($json_d); +echo $json_d->{'response'}->{'data'}; +//echo "<select name='chapter'>"; +//foreach($json_d as $key=>$value) { echo "<option value='$key'>".$value.'</option>'; } +//echo "</select>"; + + +?> + diff --git a/get_examples.php b/get_examples.php new file mode 100755 index 0000000..88729a8 --- /dev/null +++ b/get_examples.php @@ -0,0 +1,33 @@ +<?php +$ch = curl_init(); +$id= $_GET['id']; +$fields = array ( + "id" => urlencode($id), + "api_user" => urlencode("scilab"), + "api_key" => urlencode("zdFmTjX98.") + ); +$fields_string=''; +foreach($fields as $key=>$value) { $fields_string .= $key.'='.$value.'&'; } +rtrim($fields_string, '&'); +$url="http://scilab-test.garudaindia.in/cloud/get_examples"; +//set the url, number of POST vars, POST data +curl_setopt($ch, CURLOPT_RETURNTRANSFER, true); +curl_setopt($ch,CURLOPT_URL, $url); +curl_setopt($ch,CURLOPT_POST, count($fields)); +curl_setopt($ch,CURLOPT_POSTFIELDS, $fields_string); +//execute post +$result = curl_exec($ch); +$json_d = json_decode($result)->{'response'}->{'data'}; +//echo($fieldss); +echo "<select name='example' id='example'><option value=''>Select an Example</option>"; +echo($fields); +for($i=0;$i<sizeof($json_d);$i++) { // +echo "<option value='".$json_d[$i]->{"value"}."'>".$json_d[$i]->{"name"}."</option>"; +//echo $i; + } + +//foreach($fields as $key=>$value) {echo "<option value='$key'>".$value.'</option>'; } +echo "</select>"; + +?> + diff --git a/getdata.php b/getdata.php index ba09bb3..5492f89 100755 --- a/getdata.php +++ b/getdata.php @@ -19,6 +19,7 @@ $counter++; } $data .= '</select>'; + $data .= '<span id="book-download"> <a href="#">Download Book</a></span>'; echo $data; exit; }elseif(isset($_POST['bid'])) { @@ -30,6 +31,7 @@ $data .= '<option value="' . $row->id . '">' . $row->number . ' - ' . $row->name . '</option>'; } $data .= '</select>'; + $data .= '<span id="chapter-download"> <a href="#">Download Chapter</a></span>'; echo json_encode($data); exit; }elseif(isset($_POST['cid'])) { @@ -41,6 +43,7 @@ $data .= '<option value="' . $row->id . '">' . $row->number . ' - ' . $row->caption . '</option>'; } $data .= '</select>'; + $data .= '<span id="example-download"> <a href="#">Download Example</a></span>'; echo json_encode($data); exit; } diff --git a/images/bevel_300.png b/images/bevel_300.png Binary files differdeleted file mode 100755 index f00954c..0000000 --- a/images/bevel_300.png +++ /dev/null diff --git a/images/close.png b/images/close.png Binary files differdeleted file mode 100755 index 79ea081..0000000 --- a/images/close.png +++ /dev/null diff --git a/images/old-scilab-logo.png b/images/old-scilab-logo.png Binary files differdeleted file mode 100755 index f1e0bd0..0000000 --- a/images/old-scilab-logo.png +++ /dev/null diff --git a/images/scilab_logo.png b/images/scilab_logo.png Binary files differnew file mode 100755 index 0000000..a6801db --- /dev/null +++ b/images/scilab_logo.png @@ -1,14 +1,21 @@ +<?php + /*if(!$_GET['v']) + echo '<script type="text/javascript"> window.location="under-maintenance.html"; </script>';*/ +?> <html> <head> <title>Home | Scilab cloud</title> - <script src="jquery.js" type="text/javascript"></script> - <script src="jquery.lightbox_me.js"></script> + <link href="cloud.css" rel="stylesheet"> + <link href="fancybox/source/jquery.fancybox.css" rel="stylesheet"> + <script src="fancybox/lib/jquery.js" type="text/javascript"></script> + <script src="fancybox/source/jquery.fancybox.js"></script> <script> $(document).ready(function(){ var webroot = "http://cloud.scilab.in/"; - var imgdata = '<img src="/images/ajax-loader.gif">'; - $("a#single_image").fancybox(); + var imgdata = '<img src="images/ajax-loader.gif">'; + $("#single_image").fancybox(); + $('.fancymenu').fancybox({title: ""}); //$("a#comment").fancybox(); $("#graph-dwnld").hide(); @@ -23,6 +30,7 @@ $('#e').html(''); $('#input').val(''); $('#output').val(''); + }else { $.ajax({ type: "POST", @@ -173,134 +181,131 @@ $('#input').removeClass('loading-cls'); $('#output').removeClass('loading-cls'); $("#output").val(msg["output"].replace(/^\s+|\s+$/g, '')); - if (msg["graph"]!=""){ - $("#single_image").attr("href","http://scilab-test.garudaindia.in/cloud/graphs/"+msg["user_id"]+"/"+msg["graph"]+".png"); + if (msg["graph_exists"]=="1") { $("#image").attr("src","http://scilab-test.garudaindia.in/cloud/graphs/"+msg["user_id"]+"/"+msg["graph"]+".png"); - $("#download").attr("href","http://scilab-test.garudaindia.in/cloud/download/"+msg["graph"]); - $("#graph-dwnld").show(); + $("#sdwn").attr("href","http://scilab-test.garudaindia.in/cloud/graphs/"+msg["user_id"]+"/"+msg["graph"]+".png"); $("#single_image").trigger("click"); } } }); }); + }); + </script> + <script type="text/javascript"> + //Ajax form submission + function commentSubmit() { + //fetching all form values + error_type = document.comment_form.error_type.value; + comment = document.comment_form.comment.value; + email = document.comment_form.email.value; + + //retrive the precise details + category = document.getElementById("categories").value; + books = document.getElementById("books"); + if(books) { + books = books.value; + }else { + books = "null"; + } - // collect book details + chapter = document.getElementById("chapter"); + if(chapter) { + chapter = chapter.value; + }else { + chapter = "null"; + } - }); + example = document.getElementById("example"); + if(example) { + example = example.value; + }else { + example = "null"; + } + + var xmlhttp; + if (window.XMLHttpRequest) { + // code for IE7+, Firefox, Chrome, Opera, Safari + xmlhttp=new XMLHttpRequest(); + }else { + // code for IE6, IE5 + xmlhttp=new ActiveXObject("Microsoft.XMLHTTP"); + } + xmlhttp.onreadystatechange=function() { + if (xmlhttp.readyState==4 && xmlhttp.status==200) { + document.getElementById("comment_form").style.display="none"; + document.getElementById("myDiv").innerHTML="Thanks for your comment."; + } + } + request_string = "type="+error_type+"&comment="+comment+"&email="+email+"&category="+category+"&books="+books+"&chapter="+chapter+"&example="+example; + xmlhttp.open("POST","http://cloud.scilab.in/comment.php",true); + xmlhttp.setRequestHeader("Content-type","application/x-www-form-urlencoded"); + xmlhttp.send(request_string); + } + + function showEmail() { + checkbox = document.comment_form.notify; + emailDiv = document.getElementById("email-notify"); + if(checkbox.checked){ + emailDiv.style.display = "block"; + } + else{ + emailDiv.style.display = "none"; + } + } </script> - <script src="fancybox.js"></script> - <link href="fancybox.css" rel="stylesheet"> - <style type="text/css"> - div.lalg { - float: left; - width: 100px; - font-weight: bold; - } - #input { - width: 100%; - height: 320px; - resize: none; - background-color: #fffcfc; - color: black; - font-family: courier; - -moz-border-radius: 5px; - border-radius: 5px; - border: 0px; - } - #output { - width: 100%; - height: 320px; - resize: none; - font-family: courier; - background-color: #fffcfc; - color: blue; - -moz-border-radius: 5px; - border-radius: 5px; - border: 0px; - } - .bclr { - background: #7f7f7f; - } - .banner { - margin-bottom: 10px; - height: 45px; - width: 100%; - background-color: #4E3419; - border-bottom: 0 solid #2E2E2E; - border-top: 0 solid #2E2E2E; - box-shadow: 0 0 5px 0 rgba(0, 0, 0, 0.7); - } - .logo { - height: 31px; - margin: 8px 0 0 10px; - float: left; - } - .site-name { - width: auto; - font: 32px Arial; - color: white; - padding: 6px 0 0 60px; - } - .footer { - margin-top: 10px; - width: 100%; - background-color: #4E3419; - border-bottom: 0 solid #2E2E2E; - border-top: 0 solid #2E2E2E; - box-shadow: 0 0 5px 0 rgba(0, 0, 0, 0.7); - text-align: center; - padding-top: 12px; - padding-bottom: 12px; - } - .white-text { - color: white; - font: 14px Arial; - font-weight: bold; - } - #commentBtn { - background: #efefef; - text-decoration: none; - /*font-weight: bold;*/ - color: black; - padding: 4px; - float: right; - border: 2px solid; - margin-right: 5px; - } - .execute-button { - background: #efefef; - text-decoration: none; - /*font-weight: bold;*/ - color: black; - padding: 4px; - border: 2px solid; - margin-left: 5px; - } - #lightbox-form{ - background: #FFFFFF; - padding: 15px; - -moz-border-radius: 5px; - -webkit-border-radius: 5px; - -o-border-radius: 5px; - border-radius: 5px; - position: relative; - } - #lightbox-close{ - position: absolute; - top: -12; - right: -12 ; - } - .loading-cls{ - cursor:wait; - } - </style> </head> <body background="images/body-bg.png" class="cls-body"> <div class="banner"> - <a href="http://scilab.in" class="home-link" title="scilab.in"><img src="images/scilab-logo.png" class="logo" alt="Home"></a> + <a href="http://cloud.scilab.in" class="home-link" title="Home-Scilab on Cloud"><img src="images/scilab-logo.png" class="logo" alt="Home"></a> + <div class="site-name">Scilab on Cloud</div> + + <div id="banner-tabs"> + <a class="fancymenu" title="Scilab on GARUDA Cloud" href="#abuot1" >About</a> + + <div id="abuot1" style="width:400px; display: none; padding: 5px; font-size: 0.8em; color: black;"> + <b>About Scilab on GARUDA Cloud.</b> + + <p style="text-align: justify; ">Scilab on Cloud facilitates execution of the codes for particular example(s) online. The results can then be verified with the solved example(s) from the textbook. It is also possible to change the values of the variables and in fact, the code itself, and execute it. In addition to the given examples, one can also copy and paste (or) write a new code in the input box provided and execute the same. <a href="http://scilab.in/scilab-on-cloud">Read more.. </a> + </p> + </div> + + <a id="invitation" class="fancymenu" title="Textbook Companion Project" href="#invitation1">Invitation</a> + + <div id="invitation1" style="width:400px; display: none; padding: 5px; font-size: 0.8em; color: black;"> + <b>Contribute to Scilab Textbook Companion Project / Scilab on GARUDA Cloud. </b> + + <p style="text-align: justify; ">The FOSSEE team has created a submission portal that allows the code for each example to be uploaded individually. The Textbook Companion Project aims to port solved examples from standard textbooks using an open source software system, such as Scilab. <a href="http://scilab.in/Textbook_Companion_Project">Read more..</a> + </p> + </div> + + <a id="contact-us" class="fancymenu" title="Contact Scilab on Cloud" href="#contact-us1">Contact us</a> + + <div id="contact-us1" style="width:400px; display: none; padding: 5px; font-size: 0.8em; color: black;"> + <b>Send us your valuable suggestions and feedback that shall enable us to enhance our work.</b> + + <p style="text-align: justify; ">If you wish to contribute to our activities such as <b>Lab Migration, Textbook Companion, SciLinks, Scilab on Cloud, Scilab on Aakash,</b> please write to <a href="mailto: contact@scilab.in">contact@scilab.in</a>. For feedback on Lab Migration (or) Textbook Companion, <a href="http://scilab.in/feedbacks">click here</a>. + </p> + </div> + </div> + + <a href="http://scilab.in" title="Scilab.in"><img id="scilab-logo" src="images/scilab_logo.png" /></a> + </div> + + <a id="single_image" href="#simage" style="display: none;">test</a> + + <div id="simage" style="display: none; width 50%"> + <img id="image" href="" style="width:100%; height:75%;" /><br><b style="font-size:23px;">↓</b> + <a id="sdwn" href="" target="_blank" download="result.png">Download</a> + </div> + + <div id="abuot1" style="width:400px; display: none; padding: 5px; font-size: 0.8em; color: black;"> + <b>About Scilab on GARUDA Cloud.</b> + + <p style="text-align: justify; ">Scilab on Cloud facilitates execution of the codes for particular example(s) online. The results can then be verified with the solved example(s) from the textbook. It is also possible to change the values of the variables and in fact, the code itself, and execute it. In addition to the given examples, one can also copy and paste (or) write a new code in the input box provided and execute the same. <a href="http://scilab.in/scilab-on-cloud">Read more.. </a> + </p> </div> - <div id ="image" style="display:none"><a id="single_image" href=""><img id="image" src=""></a></div> + <table align="center" cellpadding="6" cellspacing="0" width="100%"> <tr> <td colspan="2"> @@ -321,6 +326,7 @@ <option value="4">Thermodynamics</option> <option value="13">Others</option> </select> + <span id="contrib"> <a class="fancymenu" href="#acknowledge">+ Contributor</a></span> </td> </tr> @@ -351,118 +357,85 @@ </tr> <tr class="bclr"> - <td><textarea name="code" id="input" rows="20" cols="40">Write a new code or select existing from above category...</textarea></td> + <td> + <textarea name="code" id="input" rows="20" cols="40" placeholder="Write a new code or select existing from above category..."><?php + if(isset($_GET['eid']) && $_GET['eid'] != '') { + require_once('db-connect.php'); + $extensions = array('sce', 'sci'); + $data = ""; + $query = "select filepath from textbook_companion_dependency_files where id in (select dependency_id from textbook_companion_example_dependency where example_id=".$_REQUEST['eid'].")"; + $result = mysql_query($query); + if($result) { + while($row = mysql_fetch_array($result)) { + if(in_array(end(explode('.', $row['filepath'])), $extensions)) { + $file = file_get_contents('../scilab_in/uploads/'.$row['filepath'], true); + $data .= $file; + } + } + $query = "select filepath from textbook_companion_example_files where example_id=".$_REQUEST['eid']; + $result = mysql_query($query); + while($row = mysql_fetch_array($result)) { + if(in_array(end(explode('.', $row['filepath'])), $extensions)) { + $file = file_get_contents('../scilab_in/uploads/'.$row['filepath'], true); + $data .= $file; + } + } + echo $data; + } + } + ?></textarea> + </td> + <td><textarea name="code" id="output" rows="20" cols="40" readonly="readonly"></textarea></td> </tr> + <tr class="bclr"> <td> - <!-- <input type="button" id="submit" name="submit" value="Execute"> --> <a href="#" id="submit" class="execute-button">Execute</a> - <!-- <input type="checkbox" id="graphicsmode" ><span class="white-text"> Enable Graphics</span> --> </td> + <td> - <a id="commentBtn" href="#" onclick="tester();"> Comment</a> - </td> - </tr> - </table> - <div class="footer white-text"><p class="test-footer" style="font-size: 10px;color: lightgoldenrodyellow;text-align: center;margin: 0px 0px 0px 0px;">Disclaimer: Scilab is a trademark of <a href="http://www.inria.fr/en/" target="_blank" class="ext" style="color:#FFFFFF;">Inria</a><span class="ext"></span> (registered at the INPI for France and the rest of the World) and <a href="http://www.scilab-enterprises.com/" target="_blank" class="ext" style="color:#FFFFFF;">Scilab Enterprises</a><span class="ext"></span> is granted exclusive rights for Scilab Trademark.</p> -<h3 style="margin:3px 0px 0px 0px;">Copyright © IIT Bombay</h3></div> + <a id="commentBtn" class="fancymenu" href="#lightbox-form"> Report bug / Give feedback</a> + + <div id="lightbox-form" style="display:none"> + <div id="myDiv"></div> - <!-- lightbox form --> - <div id="lightbox-form" style="display:none"> - <a href="#" id="lightbox-close" onclick='$("#lightbox-form").trigger("close");'><img src="images/close.png" width="30px"></a> - <div id="myDiv"></div> - <form name="comment_form" id="comment_form"> + <form name="comment_form" id="comment_form"> <p>Please fill the details.</p> + <select name="error_type"> <option>-- Select Type of issue --</option> <option value=1> Blank Code / Incorrect code</option> <option value=2>Output error</option> - <option value=3>Executed but Incorrect output</option> + <option value=3>Execution error</option> <option value=4>Missing example(s)</option> <option value=6>Blank output</option> <option value=7>Any other</option> - </select> <br><br> - + </select> + <br><br> + <label>Description:</label><br> <textarea name="comment" rows="6" cols="50" placeholder="Please tell us more..."></textarea> <br><br> - <label>Email (optional):</label><br> - <input type="text" name='email'> <br><br> - - <input id="submitButtonId" type="button" value="Submit" onclick="commentSubmit();"> - </form> + <input name="notify" type="checkbox" onclick="showEmail();"> I want to be notified. <br> <br> + + <div id="email-notify"> + <label>Email (optional):</label><br> + <input type="text" name='email'> <br><br> + </div> + + <input id="submitButtonId" type="button" value="Submit" onclick="commentSubmit();"> + </form> + </div> + </td> + </tr> + </table> + <div id="acknowledge" style="display:none;"></div> + <div class="footer white-text"> + <p class="test-footer" style="font-size: 10px;color: lightgoldenrodyellow;text-align: center;margin: 0px 0px 0px 0px;">Disclaimer: Scilab is a trademark of <a href="http://www.inria.fr/en/" target="_blank" class="ext" style="color:#FFFFFF;">Inria</a><span class="ext"></span> (registered at the INPI for France and the rest of the World) and <a href="http://www.scilab-enterprises.com/" target="_blank" class="ext" style="color:#FFFFFF;">Scilab Enterprises</a><span class="ext"></span> is granted exclusive rights for Scilab Trademark. + </p> + <h3 style="margin:3px 0px 0px 0px;">Copyright © IIT Bombay</h3> + </div> - </div> <!-- / lightbox-form --> - <script type="text/javascript"> - // LightBox - $('#commentBtn').click(function(e) { - document.getElementById("comment_form").style.display = "block"; - document.getElementById("myDiv").innerHTML=""; - $('#lightbox-form').lightbox_me({ - centered: true, - onLoad: function() { - $('#lightbox-form').find('input:first').focus() - } - }); - e.preventDefault(); - }); - - //Ajax form submission - function commentSubmit() - { - //fetching all form values - error_type = document.comment_form.error_type.value; - comment = document.comment_form.comment.value; - email = document.comment_form.email.value; - - - //retrive the precise details - category = document.getElementById("categories").value; - books = document.getElementById("books"); - if(books){ - books = books.value; - } - else{ - books = "null"; - } - - chapter = document.getElementById("chapter"); - if(chapter){ - chapter = chapter.value; - } - else{ - chapter = "null"; - } - - example = document.getElementById("example"); - if(example){ - example = example.value; - }else{ - example = "null"; - } - - var xmlhttp; - if (window.XMLHttpRequest) - {// code for IE7+, Firefox, Chrome, Opera, Safari - xmlhttp=new XMLHttpRequest(); - } - else - {// code for IE6, IE5 - xmlhttp=new ActiveXObject("Microsoft.XMLHTTP"); - } - xmlhttp.onreadystatechange=function() - { - if (xmlhttp.readyState==4 && xmlhttp.status==200) - { - document.getElementById("comment_form").style.display="none"; - document.getElementById("myDiv").innerHTML="Thanks for your comment."; - } - } - request_string = "type="+error_type+"&comment="+comment+"&email="+email+"&category="+category+"&books="+books+"&chapter="+chapter+"&example="+example; - xmlhttp.open("POST","http://cloud.scilab.in/comment.php",true); - xmlhttp.setRequestHeader("Content-type","application/x-www-form-urlencoded"); - xmlhttp.send(request_string); - } - </script> + <script src="acknowledge.js"></script> </body> </html> diff --git a/store_feedback.php b/store_feedback.php index b0c4dfb..68a6586 100755 --- a/store_feedback.php +++ b/store_feedback.php @@ -4,8 +4,8 @@ if($_POST['type'] && $_POST['comment']){ $query = "insert into scilab_cloud_comment (type, comment, email) values(".$_POST['type'].", '".$_POST['comment']."', '".$_POST['email']."')"; if(mysql_query($query)){ - echo "<p>Thank you for your valuable feedback.</p>"; - }else{ + echo "<p>Thank you for your valuable feedback.</p>"; + }else{ echo "<p>Sorry for the inconvience, please try again</p>"; } }else{ diff --git a/test.php b/test.php new file mode 100755 index 0000000..c6cdac5 --- /dev/null +++ b/test.php @@ -0,0 +1,12 @@ +<?php +$to = "rush2jrp@gmail.com, rush2jrp@gmail.com"; +$subject = "New Cloud Comment"; +$message = "A new comment has been posted. <br> http://scilab.in/cloud_comments"; +$from = "textbook@scilab.in"; + +$headers = "From: " . $from . "\r\n"; +$headers .= "MIME-Version: 1.0\r\n"; +$headers .= "Content-Type: text/html; charset=ISO-8859-1\r\n"; +mail($to,$subject,$message,$headers); +echo "Mail Sent."; +?> diff --git a/track-comments.php b/track-comments.php new file mode 100755 index 0000000..f2c51e1 --- /dev/null +++ b/track-comments.php @@ -0,0 +1,96 @@ +<html> +<head> + <title>Comments | Scilab on Cloud</title> + <style> + h3{ color: #4E3519; } + body{ + background: url("http://scilab.in/sites/all/themes/scilab/images/content_line.png"); + } + #comments-wrapper{ + padding: 25px 100px; + background: #ffffff; + max-width: 800px; + margin: 0 auto; + -moz-box-shadow: 1px 1px 10px #cccccc; + -webkit-box-shadow: 1px 1px 10px #cccccc; + -o-box-shadow: 1px 1px 10px #cccccc; + box-shadow: 1px 1px 10px #cccccc; + } + .comment{ + margin: 25px 0; + padding: 25px; + background: #f5f5f5; + border-left: 3px solid #4E3519; + } + .from, .type, .book, .chapter, .example, .category{ + display: block; + } + .from{ + font-weight: bolder; + color: #424242; + } + .type{ + color: #4E3519; + } + .comment p{ + text-align: justify; + } + .comment p b{ + color: #4E3519; + } + </style> +</head> +<body> +<div id="comments-wrapper"> +<h3 align="center"><u>Scilab on Cloud - Comments</u></h3> +<?php + require_once('db-connect.php'); + $query = "select * from scilab_cloud_comment"; + $result = mysql_query($query); + $types = array( + "None", + "Blank Code / Incorrect code", + "Output error", + "Execution error", + "Missing example(s)", + "None", + "Blank output", + "Any other" + ); + $categories = array( + "Others", + "Fluid Mechanics", + "Control Theory & Control Systems", + "Chemical Engineering", + "Thermodynamics", + "Mechanical Engineering", + "Signal Processing", + "Digital Communications", + "Electrical Technology", + "Mathematics & Pure Science", + "Analog Electronics", + "Digital Electronics", + "Computer Programming", + "Others" + ); + while($row = mysql_fetch_array($result)){ + echo '<div class="comment">'; + echo '<span class="from">From: ' . $row["email"] . '</span>'; + echo '<span class="type">Issue type: ' . $types[$row["type"]] . '</span>'; + $book = mysql_result(mysql_query("select book from textbook_companion_preference where id=".$row["books"]), 0); + echo '<span class="book">Book: ' . $book . '</span>'; + echo '<span class="category"> Category: ' . $categories[$row["category"]] . '</span>'; + $chapter = mysql_result(mysql_query("select name from textbook_companion_chapter where id=".$row["chapter"]), 0); + echo '<span class="chapter"> Chapter: ' . $chapter . '</span>'; + $example = mysql_result(mysql_query("select caption from textbook_companion_example where id=".$row["example"]), 0); + echo '<span class="example"> Example: <a href="http://cloud.scilab.in/index.php?eid=' . $row["example"] . '" target="_blank">' . $example . '</a>' . '</span>'; + echo '<p><b>Comment:</b> <br>' . $row["comment"] . '</p>'; + echo '<a class="reply" href="#">Reply</a>'; + echo '</div> <!-- /comment -->'; + } + + +?> +</div> <!-- /comments-wrapper --> +</body> +</html> |
