diff options
Diffstat (limited to '866')
-rwxr-xr-x | 866/CH14/EX14.1/14_1.sce | 39 | ||||
-rwxr-xr-x | 866/CH14/EX14.2/14_2.sce | 38 | ||||
-rwxr-xr-x | 866/CH5/EX5.2/5_2.sce | 47 | ||||
-rwxr-xr-x | 866/CH9/EX9.4/9_4.sce | 35 |
4 files changed, 79 insertions, 80 deletions
diff --git a/866/CH14/EX14.1/14_1.sce b/866/CH14/EX14.1/14_1.sce index 7ead5d32e..d92386d33 100755 --- a/866/CH14/EX14.1/14_1.sce +++ b/866/CH14/EX14.1/14_1.sce @@ -1,19 +1,20 @@ -clc
-//initialisation of variables
-d= 2 //m
-t= 20 //mm
-p= 1.5 //N/mm^2
-load= 2500 //KN
-alpha= 60 //degrees
-//CALCULATIONS
-Cs= (p*d*10^3)/(2*t)
-Ls= (p*d*10^3)/(4*t)
-Ds= (load*10^3)/(%pi*d*t*10^3)
-Ts= Ls+Ds
-sigman= (Ts*t*(cosd(90-alpha))^2+Cs*t*(cosd(alpha))^2)/t
-tab= Ts*sind(alpha)*cosd(alpha)-Cs*sind(alpha)*cosd(alpha)
-tmax= (Ts-Cs)/2
-//RESULTS
-printf ('direct stress= %.1f N/mm^2',sigman)
-printf (' \n Shear stress=%.1f N/mm^2',tab)
-printf (' \n maximum Shear stress=%.1f N/mm^2',tmax)
+clc +clear +//initialisation of variables +d= 2 //m +t= 20 //mm +p= 1.5 //N/mm^2 +Load= 2500 //KN +alpha= 60 //degrees +//CALCULATIONS +Cs= (p*d*10^3)/(2*t) +Ls= (p*d*10^3)/(4*t) +Ds= (Load*10^3)/(%pi*d*t*10^3) +Ts= Ls+Ds +sigman= (Ts*t*(cosd(90-alpha))^2+Cs*t*(cosd(alpha))^2)/t +tab= Ts*sind(alpha)*cosd(alpha)-Cs*sind(alpha)*cosd(alpha) +tmax= (Ts-Cs)/2 +//RESULTS +printf ('direct stress= %.1f N/mm^2',sigman) +printf (' \n Shear stress=%.1f N/mm^2',tab) +printf (' \n maximum Shear stress=%.1f N/mm^2',tmax)
\ No newline at end of file diff --git a/866/CH14/EX14.2/14_2.sce b/866/CH14/EX14.2/14_2.sce index 12ff51aff..d32f2d3e2 100755 --- a/866/CH14/EX14.2/14_2.sce +++ b/866/CH14/EX14.2/14_2.sce @@ -1,19 +1,19 @@ -clc
-//initialisation of variables
-load= 50000 //N
-torque= 1200 //Nm
-d= 60//mm
-t= 1.5 //mm
-alpha= 60 //degrees
-//CALCULATIONS
-BM= load*t
-axialload= (load*4)/(%pi*d^2)
-bendingmoment= (BM*d*64)/(%pi*d^4*2)
-Ts= axialload+bendingmoment
-shearstress= (torque*10^3*d*32)/(2*%pi*d^4)
-sigman= -Ts*(cosd(alpha-30))^2+shearstress*cosd(alpha-30)*sind(alpha-30)+shearstress*cosd(alpha-30)*sind(alpha-30)
-T= -Ts*sind(alpha)*cosd(alpha)-shearstress*(sind(alpha))^2+shearstress*(cosd(alpha)^2)
-//RESULTS
-printf ('direct stress= %.1f N/mm^2',sigman)
-printf (' \n Shear stress=%.1f N/mm^2',T)
-
+clc +clear +//initialisation of variables +Load= 50000 //N +torque= 1200 //Nm +d= 60//mm +t= 1.5 //mm +alpha= 60 //degrees +//CALCULATIONS +BM= Load*t +axialLoad= (Load*4)/(%pi*d^2) +bendingmoment= (BM*d*64)/(%pi*d^4*2) +Ts= axialLoad+bendingmoment +shearstress= (torque*10^3*d*32)/(2*%pi*d^4) +sigman= -Ts*(cosd(alpha-30))^2+shearstress*cosd(alpha-30)*sind(alpha-30)+shearstress*cosd(alpha-30)*sind(alpha-30) +T= -Ts*sind(alpha)*cosd(alpha)-shearstress*(sind(alpha))^2+shearstress*(cosd(alpha)^2) +//RESULTS +printf ('direct stress= %.1f N/mm^2',sigman) +printf (' \n Shear stress=%.1f N/mm^2',T)
\ No newline at end of file diff --git a/866/CH5/EX5.2/5_2.sce b/866/CH5/EX5.2/5_2.sce index 736dcf619..962795beb 100755 --- a/866/CH5/EX5.2/5_2.sce +++ b/866/CH5/EX5.2/5_2.sce @@ -1,23 +1,24 @@ -clc
-//initialisation of variables
-Fc= -10.0 //KN
-Fd= -6.0 //KN
-y= 0.5 //m
-x1= 1.5 //m
-x2= 2.0 //m
-x3= 1.8 //m
-//CALCULATIONS
-//The values in the textbook are rounded off. hence, there is a small variation in the result of this code.
-alpha= atand(y/x1)
-Rav= (-Fd*x3-Fc*(x2+x3))/(x1+x2+x3)
-Rah= Rav*x1/y
-Tca= sqrt(Rah^2+Rav^2)
-tanbeta= ((-Fc-Tca*sind(alpha)))/(Tca*cosd(alpha))
-Tcd= Tca*cosd(alpha)/cosd(beta)
-gama= atand((-Fd+Tcd*sind(beta)))/(Tcd*cosd(beta))
-Tdb= (Tcd*cosd(beta))/cosd(gama)
-//RESULTS
-printf ('Tca= %.1f KN',Tca)
-printf (' \n Tcd=%.1f KN',Tcd)
-printf (' \n Tdb=%.2f KN',Tdb)
-
+clc +clear +//initialisation of variables +Fc= -10.0 //KN +Fd= -6.0 //KN +y= 0.5 //m +x1= 1.5 //m +x2= 2.0 //m +x3= 1.8 //m +//CALCULATIONS +//The values in the textbook are rounded off. hence, there is a small variation in the result of this code. +alpha= atand(y/x1) +Rav= (-Fd*x3-Fc*(x2+x3))/(x1+x2+x3) +Rah= Rav*x1/y +Tca= sqrt(Rah^2+Rav^2) +tanbeta= ((-Fc-Tca*sind(alpha)))/(Tca*cosd(alpha)) +Beta = atand(tanbeta); +Tcd= Tca*cosd(alpha)/cosd(Beta) +gama= atand((-Fd+Tcd*sind(Beta)))/(Tcd*cosd(Beta)) +Tdb= (Tcd*cosd(Beta))/cosd(gama) +//RESULTS +printf ('Tca= %.1f KN',Tca) +printf (' \n Tcd=%.1f KN',Tcd) +printf (' \n Tdb=%.2f KN',Tdb)
\ No newline at end of file diff --git a/866/CH9/EX9.4/9_4.sce b/866/CH9/EX9.4/9_4.sce index c3e7e2746..7899cb205 100755 --- a/866/CH9/EX9.4/9_4.sce +++ b/866/CH9/EX9.4/9_4.sce @@ -1,19 +1,16 @@ -clc
-//initialisation of variables
-BeamB= 300 //mm
-BeamL= 200 //mm
-BeamT= 25 //mm
-BeamT2= 20 //mm
-alpha= 30 //degrees
-Mz= 100*10^6*cosd(alpha)//Nmm
-My= 100*10^6*sind(alpha)//Nmm
-//CALCULATIONS
-Iz= ((BeamL*BeamB^3)/12)-((BeamL-BeamT)*(BeamB-2*BeamT2)^3)/12
-Iy= (2*BeamT2*BeamL^3/12)+((BeamB-2*BeamT2)*BeamT^3/12)
-sigmaxtl= (+Mz/Iz)*(BeamB/2)+(My/Iy)*(BeamH/2)
-sigmaxtr= (+Mz/Iz)*(BeamB/2)+(My/Iy)*(-BeamH/2)
-inclination= atand((My*Iz)/(Mz*Iy))
-//RESULTS
-printf ('Stress at top left of the beam= %.2fN/mm^2(Tension)',sigmaxtl)
-printf ('\n Stress at top right of the beam= %.2fN/mm^2(compression)',sigmaxtr)
-printf ('\n Incination= %.2fdegrees',inclination)
+clc +clear +//initialisation of variables +M= 100*10^6 //Nmm +BeamB= 300 //mm +BeamL= 200 //mm +BeamT= 25 //mm +BeamT2= 20 //mm +//CALCULATIONS +Iz= ((BeamL*BeamB^3)/12)-((BeamL-BeamT)*(BeamB-2*BeamT2)^3)/12 +sigmaxbyY= -M/Iz +SB= sigmaxbyY*(BeamB/2) +ST= sigmaxbyY*(-BeamB/2) +//RESULTS +printf ('Stress at top of the beam= %.2fN/mm^2(Tension)',ST) +printf ('\n Stress at bottom of the beam= %.2fN/mm^2(compression)',SB)
\ No newline at end of file |