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diff --git a/ELECTRIC_MACHINERY/.ipynb_checkpoints/chapter5-checkpoint.ipynb b/ELECTRIC_MACHINERY/.ipynb_checkpoints/chapter5-checkpoint.ipynb new file mode 100755 index 00000000..3f99f735 --- /dev/null +++ b/ELECTRIC_MACHINERY/.ipynb_checkpoints/chapter5-checkpoint.ipynb @@ -0,0 +1,609 @@ +{ + "metadata": { + "name": "" + }, + "nbformat": 3, + "nbformat_minor": 0, + "worksheets": [ + { + "cells": [ + { + "cell_type": "heading", + "level": 1, + "metadata": {}, + "source": [ + "Chapter 5: Synchronous Machines" + ] + }, + { + "cell_type": "heading", + "level": 3, + "metadata": {}, + "source": [ + "Example 5.1, Page number: 254" + ] + }, + { + "cell_type": "code", + "collapsed": false, + "input": [ + "from __future__ import division\n", + "import math\n", + "import cmath\n", + "\n", + "#Varaible Declaration:\n", + "pf=0.95 #Lagging power factor\n", + "Vl=460 #Terminal voltage(V)\n", + "I=120 #Terminal current(A)\n", + "If=47 #Field current(A)\n", + "X=1.68j #Line syncchronous reactance(ohm)\n", + "\n", + "\n", + "#Calculation:\n", + "#Choosing motor reference direction:\n", + "Va=Vl/math.sqrt(3)\n", + "theta=math.acos(0.95)\n", + "Ia=I*cmath.exp(-theta*1j)\n", + "Eaf=Va-X*Ia\n", + "wc=120*math.pi\n", + "Laf=math.sqrt(2)*abs(Eaf)/(wc*If)\n", + "P=3*Va*Ia*pf\n", + "\n", + "#Results:\n", + "print \"Generated emf:\",round(abs(Eaf),1),\"V line to line\"\n", + "print \"Fied to armature mutual inductance:\",round(Laf*1000,1),\"mH\"\n", + "print \"Three phase power:\",round(abs(P/1000),1),\"kW or\",round(abs(P)/746),\"hp\"\n" + ], + "language": "python", + "metadata": {}, + "outputs": [ + { + "output_type": "stream", + "stream": "stdout", + "text": [ + "Generated emf: 278.8 V line to line\n", + "Fied to armature mutual inductance: 22.3 mH\n", + "Three phase power: 90.8 kW or 122.0 hp\n" + ] + } + ], + "prompt_number": 2 + }, + { + "cell_type": "heading", + "level": 3, + "metadata": {}, + "source": [ + "Example 5.2, Page number: 255" + ] + }, + { + "cell_type": "code", + "collapsed": false, + "input": [ + "from __future__ import division\n", + "import cmath \n", + "from math import *\n", + "\n", + "#Variable Declaration:\n", + "Pin=90.6*10**3 #Input power(kW)\n", + "Va=265.6 #Terninal voltage(V)\n", + "X=1.68j #Synchronous reactance(ohm)\n", + "Laf=22.3*10**-3 #Mutual inductance(H)\n", + "wc=120*pi #Angular frequency(rad/sec)\n", + "\n", + "\n", + "#Calculations:\n", + "Ia=Pin/(3*Va)\n", + "Eaf=Va-X*Ia\n", + "delta=degrees(cmath.phase(Eaf))\n", + "I=sqrt(2)*Eaf/(wc*Laf)\n", + "\n", + "\n", + "#Results:\n", + "print\"The phase angle,delta:\",round(delta,1),\"degrees\"\n", + "print\"Required field current:\",round(abs(I),2),\"A\"" + ], + "language": "python", + "metadata": {}, + "outputs": [ + { + "output_type": "stream", + "stream": "stdout", + "text": [ + "The phase angle,delta: -35.7 degrees\n", + "Required field current: 55.04 A\n" + ] + } + ], + "prompt_number": 4 + }, + { + "cell_type": "heading", + "level": 3, + "metadata": {}, + "source": [ + "Example 5.3, Page number: 257" + ] + }, + { + "cell_type": "code", + "collapsed": false, + "input": [ + "from __future__ import division\n", + "from math import *\n", + "\n", + "#Variable declaration:\n", + "Eafl=13.8*10**3 #Open circuit voltage(V)\n", + "If1=318 #Field current(A)\n", + "If2=263 #Field current after extrapolation(A)\n", + "wc=120*pi #Angular frequency(Hz)\n", + "\n", + "#Calculations:\n", + "Eaf=Eafl/sqrt(3)\n", + "La1=sqrt(2)*Eaf/(wc*If1)\n", + "La2=sqrt(2)*Eaf/(wc*If2)\n", + "\n", + "#Results:\n", + "print \"Saturated Laf1:\",round(La1*1000,0),\"mH\" \n", + "print \"Unsaturated Laf1:\",round(La2*1000,0),\"mH\"" + ], + "language": "python", + "metadata": {}, + "outputs": [ + { + "output_type": "stream", + "stream": "stdout", + "text": [ + "Saturated Laf1: 94.0 mH\n", + "Unsaturated Laf1: 114.0 mH\n" + ] + } + ], + "prompt_number": 5 + }, + { + "cell_type": "heading", + "level": 3, + "metadata": {}, + "source": [ + "Example 5.4, Page number: 262" + ] + }, + { + "cell_type": "code", + "collapsed": false, + "input": [ + "from __future__ import division\n", + "from math import *\n", + "\n", + "#Variable declaration:\n", + "Ia=[118, 152] #Armature current from SC Characteristics(A)\n", + "If=[2.20, 2.84] #Field current from SC Characteristics(A)\n", + "Vll=220 #Line-to-line Voltage(V)\n", + "V=202 #Line-to-line air voltage(V) \n", + "P=45*10**3 #Power roted to motor(W) \n", + "Is_sc=1 #per unit rated current(A)\n", + "\n", + "#Calculations:\n", + "Va_ag=V/sqrt(3) #At field current of 2.20A,at air gap,(V)\n", + "Ia_ag=Ia[0]\n", + "Xs_u=Va_ag/Ia_ag\n", + "Ia_rated=P/(sqrt(3)*Vll)\n", + "Xa_g=Va_ag/1\n", + "Xs_u_pu=Va_ag/Is_sc\n", + "Xs=Vll/(Ia[1]*sqrt(3))\n", + "Ia_pu=Ia[1]/Ia[0]\n", + "SCR=If[1]/If[0]\n", + "Xs=1/SCR\n", + "\n", + "\n", + "\n", + "#Results:\n", + "print \"'All quantities are in per unit values'\"\n", + "print\"Unsaturated value of synchronous reactance:\",round(Xs_u,3),\"ohm\"\n", + "print \"Satureted value of synchronous reactance: \",round(Xs,3),\"ohm\"\n", + "print\"Short circuit ratio:\",round(SCR,3)" + ], + "language": "python", + "metadata": {}, + "outputs": [ + { + "output_type": "stream", + "stream": "stdout", + "text": [ + "'All quantities are in per unit values'\n", + "Unsaturated value of synchronous reactance: 0.988 ohm\n", + "Satureted value of synchronous reactance: 0.775 ohm\n", + "Short circuit ratio: 1.291\n" + ] + } + ], + "prompt_number": 6 + }, + { + "cell_type": "heading", + "level": 3, + "metadata": {}, + "source": [ + "Example 5.5, Page number: 265" + ] + }, + { + "cell_type": "code", + "collapsed": false, + "input": [ + "from __future__ import division\n", + "\n", + "#Variable declaration:\n", + "P_rated=45*10**3 #Rated power(KV)\n", + "Pl=1.80*10**3 #Short circuit load loss(W)\n", + "Ia_pu=1 #Per unit armature current\n", + "Ia=118 #rated armature current(A)\n", + "Ra_dc=0.0335 #Dc resistance(ohm/phase)\n", + "\n", + "\n", + "#Calculations:\n", + "Pl_pu=Pl/P_rated \n", + "Ra_eff1=Pl_pu/Ia_pu**2 #in per unit basis\n", + "Ra_eff2=Pl/(3*(Ia)**2)\n", + "\n", + "#Results:\n", + "print \"Armature resistance in per unit:\",round(Ra_eff1,3),\"per unit\" \n", + "print \"Armature resistance in ohms/phase:\", round(Ra_eff2,3),\"ohms/phase\"" + ], + "language": "python", + "metadata": {}, + "outputs": [ + { + "output_type": "stream", + "stream": "stdout", + "text": [ + "Armature resistance in per unit: 0.04 per unit\n", + "Armature resistance in ohms/phase: 0.043 ohms/phase\n" + ] + } + ], + "prompt_number": 4 + }, + { + "cell_type": "heading", + "level": 3, + "metadata": {}, + "source": [ + "Example 5.6, Page number: 269" + ] + }, + { + "cell_type": "code", + "collapsed": false, + "input": [ + "from __future__ import division\n", + "%matplotlib inline\n", + "import cmath\n", + "import math\n", + "\n", + "\n", + "#Variable declaration:\n", + "Veq=1.0 #Externalsupply(p.u) \n", + "Eaf=1.0 #Internal voltage(p.u)\n", + "Xeq=0.23 #Eqv.resistance of external system(p.u)\n", + "Xs=1.35 #Saturated synchronous reactance(p.u)\n", + "\n", + "\n", + "#Calculations:\n", + "#for part (a):\n", + "P_max=Eaf*Veq/(Xs+Xeq)\n", + "\n", + "\n", + "#for part (b):\n", + "delta=[0]*500\n", + "Ia=[0]*500\n", + "Va=[0]*500\n", + "degree=[0]*500\n", + "for n in range(1,101,1):\n", + " delta[n-1]=(pi/2)*(n-1)/100\n", + " Ia[n-1] = (Eaf *exp(1j*delta[n-1]) - Veq)/(1j*(Xs + Xeq))\n", + " Va[n-1] = abs(Veq + 1j*Xeq*Ia[n-1])\n", + " degree[n-1]=180*delta[n-1]/pi\n", + "plot(degree,Va,'r.')\n", + "xlabel('Power angle,delta(degrees)')\n", + "ylabel('Terminal voltage(per unit)')\n", + "title('Terminal voltage vs. power angle for part (b)')\n", + "show()\n", + "#for part (c):\n", + "Vterm=1.0\n", + "P=[0]*500\n", + "deltat=[0]*500\n", + "Ia=[0]*500\n", + "Eaf=[0]*500\n", + "\n", + "for n in range(1,101,1):\n", + " P[n-1]=(n-1)/100\n", + " deltat[n-1]=math.asin(P[n-1]*Xeq/(Vterm*Veq))\n", + " Ia[n-1]=(Vterm*exp(1j*deltat[n-1])-Veq)/(1j*Xeq)\n", + " Eaf[n-1]=abs(Vterm+1j*(Xs+Xeq)*Ia[n-1])\n", + "plot(P,Eaf,'r.')\n", + "xlabel('Power [per unit]')\n", + "ylabel('Eaf [per unit]')\n", + "title('Eaf vs. power for part (c)')\n", + "show()\n", + "\n", + "\n", + "\n", + "#Results:\n", + "print \"(a) Maximum power supplied to external system:\",round(P_max,2),\"p.u\"" + ], + "language": "python", + "metadata": {}, + "outputs": [ + { + "output_type": "stream", + "stream": "stdout", + "text": [ + "Populating the interactive namespace from numpy and matplotlib\n" + ] + }, + { + "output_type": "stream", + "stream": "stderr", + "text": [ + "WARNING: pylab import has clobbered these variables: ['prod', 'Circle', 'power', 'diag', 'sinh', 'trunc', 'binomial', 'plot', 'eye', 'det', 'tan', 'product', 'roots', 'vectorize', 'sin', 'plotting', 'zeros', 'cosh', 'conjugate', 'linalg', 'take', 'solve', 'trace', 'beta', 'draw_if_interactive', 'random', 'ones', 'transpose', 'cos', 'interactive', 'diff', 'invert', 'tanh', 'Polygon', 'reshape', 'sqrt', 'floor', 'source', 'add', 'multinomial', 'test', 'poly', 'mod', 'sign', 'fft', 'gamma', 'log', 'var', 'info', 'seterr', 'flatten', 'nan', 'pi', 'exp']\n", + "`%pylab --no-import-all` prevents importing * from pylab and numpy\n" + ] + }, + { + "metadata": {}, + "output_type": "display_data", + "png": 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PYffu3Wjbtq1y5M/x48cxadKk2ldIRET1ktZAePXVVxEfHw8HBwcAQKdOnbB/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\n11RvA2H37t0aRyktXrxY5s2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+s2+K7OxsBAcHIzAwEOvXr2+zjFarxfjx4xEaGoopU6Z0+AsQEZF5KbaCW11d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\nqfiEENJ6EF5eXgbX1XVxcWn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+ "text": [ + "<matplotlib.figure.Figure at 0x3965f10>" + ] + }, + { + "output_type": "stream", + "stream": "stdout", + "text": [ + "(a) Maximum power supplied to external system: 0.63 p.u\n" + ] + } + ], + "prompt_number": 2 + }, + { + "cell_type": "heading", + "level": 3, + "metadata": {}, + "source": [ + "Example 5.7, Page number: 272" + ] + }, + { + "cell_type": "code", + "collapsed": false, + "input": [ + "from __future__ import division\n", + "from math import *\n", + "\n", + "#Variable declaration:\n", + "P_rated=2000*746/3 #per phase rated power of motor(W)\n", + "Xsm=1.95 #Synchronous reactance(ohm)\n", + "Vl=2300 #Line to line voltage(V)\n", + "f=60 #Angular frequency(Hz)\n", + "p=30 #No. of poles\n", + "Xsg=2.65 #Synchronous reactance of generator(ohm)\n", + "\n", + "\n", + "#Calculations:\n", + "#for part (a):\n", + "Vp=2300/sqrt(3)\n", + "Ip=P_rated/Vp\n", + "Eafm=sqrt(Vp**2+(Ip*Xsm)**2)\n", + "Pm=3*Vp*Eafm/Xsm #Max power delivered to motor(W)\n", + "ws=2*2*pi*f/p\n", + "Tmax=Pm/ws #MAx torque of motor(Nm)\n", + "\n", + "\n", + "#for part (b):\n", + "Eafg=sqrt(Vp**2+(Ip*Xsg)**2)\n", + "Pm2=3*Eafm*Eafg/(Xsg+Xsm) #Max power delivered to motor(W)\n", + "Tmax2=Pm2/ws #Max torque(Nm)\n", + "\n", + "\n", + "\n", + "#Results:\n", + "print\"(a) Max power :\",round(Pm/1000,0),\"kW,3-ph\"\n", + "print\" Max torque :\",round(Tmax/1000,1),\"kNm\"\n", + "print \"(b) Max power :\", round(Pm2/1000,0),\"kW,3-ph\"\n", + "print \" Max torque:\", round(Tmax2/1000,1),\"Nm\"" + ], + "language": "python", + "metadata": {}, + "outputs": [ + { + "output_type": "stream", + "stream": "stdout", + "text": [ + "(a) Max power : 3096.0 kW,3-ph\n", + " Max torque : 123.2 kNm\n", + "(b) Max power : 1639.0 kW,3-ph\n", + " Max torque: 65.2 Nm\n" + ] + } + ], + "prompt_number": 8 + }, + { + "cell_type": "heading", + "level": 3, + "metadata": {}, + "source": [ + "Example 5.8, Page number: 279" + ] + }, + { + "cell_type": "code", + "collapsed": false, + "input": [ + "from __future__ import division\n", + "from math import *\n", + "\n", + "\n", + "#Variable declaration:\n", + "P=45 #Power rated(KVA)\n", + "Va=220 #Terminal voltage(V)\n", + "Pin=45 #Power input to the armature(KVA)\n", + "If=5.50 #field current(A)\n", + "Rf=35.5 #Field winding resistance(ohm)\n", + "Ra=0.0399 #Armature dc resistance(ohm/phase)\n", + "Xal=0.215 #Leakage reactance of motor(ohm)\n", + "pf=0.80 #Lagging power factor \n", + "Pc=1.8 #Core loss(kW)\n", + "Pw=0.91 #Friction & windage losses(kW)\n", + "Ps=0.37 #Stray load loss(kW)\n", + "\n", + "\n", + "#Calculations:\n", + "Ia=P*10**3/(sqrt(3)*Va)\n", + "P1=If**2*Rf/10**3 #Loss in field winding(kW)\n", + "P2=3*Ia**2*Ra/10**3 #Loss in armature(kW)\n", + "Pl=(Pc+Pw+Ps+P1+P2)\n", + "Pi=Pin*pf+P1\n", + "Po=Pi-Pl\n", + "eff=(Po/Pi)*100\n", + "\n", + "#Results:\n", + "print \"Efficiency of the synchronous machine:\",round(eff,1),\"%\"" + ], + "language": "python", + "metadata": {}, + "outputs": [ + { + "output_type": "stream", + "stream": "stdout", + "text": [ + "Efficiency of the synchronous machine: 84.3 %\n" + ] + } + ], + "prompt_number": 9 + }, + { + "cell_type": "heading", + "level": 3, + "metadata": {}, + "source": [ + "Example 5.9, Page number: 287" + ] + }, + { + "cell_type": "code", + "collapsed": false, + "input": [ + "from __future__ import division\n", + "import math\n", + "import cmath\n", + "\n", + "#Variable declaration:\n", + "Xd=1 #Direct axis synchronus reactance(p.u)\n", + "Xq=0.60 #Quadrature axis synchronous reactance(p.u)\n", + "Va=1 #Terminal voltage(p.u)\n", + "pf=0.8 #Lagging power factor\n", + "Ia=0.8-1j*math.sin(math.acos(0.8)) #Line current(p.u)\n", + "\n", + "\n", + "#Calculations:\n", + "phy=-math.acos(pf)\n", + "E=Va+1j*Xq*Ia\n", + "delta=cmath.phase(E)\n", + "Id=abs(Ia)*math.sin(delta-phy)*cmath.exp(1j*(-pi/2+delta))\n", + "Iq=abs(Ia)*math.cos(delta-phy)*cmath.exp(1j*delta)\n", + "Eaf=Va+Xd*Id*1j+Xq*Iq*1j\n", + "\n", + "\n", + "#Results:\n", + "print \"Generated voltage:\",round(abs(Eaf),2),\"p.u Volt\"" + ], + "language": "python", + "metadata": {}, + "outputs": [ + { + "output_type": "stream", + "stream": "stdout", + "text": [ + "Generated voltage: 1.78 p.u Volt\n" + ] + } + ], + "prompt_number": 12 + }, + { + "cell_type": "heading", + "level": 3, + "metadata": {}, + "source": [ + "Example 5.11, Page number: 291" + ] + }, + { + "cell_type": "code", + "collapsed": false, + "input": [ + "from pylab import *\n", + "import cmath\n", + "from sympy import *\n", + "\n", + "#Variable declaration:\n", + "P_rated=2000*746 #Rated power of motor(W)\n", + "Xs=1.95 #Synchronous reactance(ohm/phase)\n", + "Xd=1.95 #Direct axis synchronous reactance(ohm/ph)\n", + "Xq=1.40 #Quadrature axis synchronous reactance(ohm/ph)\n", + "pf=1 #Power factor of the machine\n", + "Vl=2300 #Line to line voltage(V)\n", + "\n", + "#Calculatons:\n", + "Va=float(Vl/sqrt(3)) #volt\n", + "Ia=float(P_rated/(Va*3)) #ampere\n", + "E1=Va-1j*Ia*Xq #From phasor diagram\n", + "delta=cmath.phase(E1) #power angle\n", + "Id=Ia*sin(abs(delta)) #direct axis current(A)\n", + "Eaf=abs(E1)+Id*(Xd-Xq)\n", + "r=symbols('r')\n", + "def P(r): #Process for finding maximum power\n", + " return Eaf*Va*sin(r)/Xd + Va**2*(Xd-Xq)*sin(2*r)/(2*Xd*Xq)\n", + "P1=diff(P(r),r)\n", + "#On differentiation,\n", + "#P1 = 1023732.58489791*cos(r) + 355250.305250306*(2*(cos(r))**2-1)\n", + "l = solve(1023732.58489791*cos(r) + 355250.305250306*(2*(cos(r))**2-1),r)\n", + "P_max = (P(round(l[0],5)))\n", + "\n", + "\n", + "#Results:\n", + "print \"Maximum mechanical power:\",math.ceil(3*P_max/10**3),\"kW,3-phase\"" + ], + "language": "python", + "metadata": {}, + "outputs": [ + { + "output_type": "stream", + "stream": "stdout", + "text": [ + "Maximum mechanical power: 3236.0 kW,3-phase\n" + ] + } + ], + "prompt_number": 1 + } + ], + "metadata": {} + } + ] +}
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