Changeset 513

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Timestamp:
06/25/2007 10:19:50 AM (19 months ago)
Author:
AHaumer
Message:

corrected some typos in documentation

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1 modified

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  • Modelica/trunk/Modelica/Electrical/Machines.mo

    r506 r513  
    22  extends Modelica.Icons.Library2; 
    33  annotation ( 
    4   version="1.8.3", versionDate="2007-06-08", 
     4  version="1.8.4", versionDate="2007-06-25", 
    55  Settings(NewStateSelection=true, Evaluate=true), 
    66  preferedView="info", Documentation(info="<HTML> 
     
    113113  <li> v1.8.3 2007/06/08 Anton Haumer<br> 
    114114       documentation update</li> 
     115  <li> v1.8.4 2007/06/25 Anton Haumer<br> 
     116       corrected some typos in documentation</li> 
    115117  </ul> 
    116118</HTML>"), 
     
    210212          doublePrecision=true), 
    211213        Documentation(info="<HTML> 
    212 <b>1st Test example: Asynchronous induction Machine with squirrel cage - direct on line starting</b><br> 
     214<b>1st Test example: Asynchronous induction machine with squirrel cage - direct on line starting</b><br> 
    213215At start time tStart three phase voltage is supplied to the asynchronous induction machine with squirrel cage; 
    214216the machine starts from standstill, accelerating inertias against load torque quadratic dependent on speed, finally reaching nominal speed.<br> 
     
    256258                                                        style(color=3)); 
    257259      connect(SineVoltage1.plug_p, IdealCloser1.plug_p)  
    258         annotation (points=[6.12303e-016,50; 0,48; 1.22461e-015,46; 
     260        annotation (points=[6.12303e-016,50; 0,48; 1.22461e-015,46;  
    259261            6.12303e-016,46; 6.12303e-016,40], style(color=3)); 
    260262      connect(AIMC1.flange_a, LoadInertia.flange_a)  annotation (points=[0,-40; 
     
    316318          doublePrecision=true), 
    317319        Documentation(info="<HTML> 
    318 <b>2nd Test example: Asynchronous induction Machine with squirrel cage - Y-D starting</b><br> 
     320<b>2nd Test example: Asynchronous induction machine with squirrel cage - Y-D starting</b><br> 
    319321At start time tStart three phase voltage is supplied to the asynchronous induction machine with squirrel cage, first star-connected, then delta-connetced; the machine starts from standstill, accelerating inertias against load torque quadratic dependent on speed, finally reaching nominal speed.<br> 
    320322Simulate for 2.5 seconds and plot (versus time): 
     
    363365                                                        style(color=3)); 
    364366      connect(SineVoltage1.plug_p, IdealCloser1.plug_p)  
    365         annotation (points=[6.12303e-016,50; 0,48; 1.22461e-015,46; 
     367        annotation (points=[6.12303e-016,50; 0,48; 1.22461e-015,46;  
    366368            6.12303e-016,46; 6.12303e-016,40], style(color=3)); 
    367369      connect(SwitchYD1.plug_NS, AIMC1.plug_sn)  annotation (points=[-20,-30; 
     
    420422          doublePrecision=true), 
    421423        Documentation(info="<HTML> 
    422 <b>3rd Test example: Asynchronous induction Machine with slipring rotor - resistance starting</b><br> 
     424<b>3rd Test example: Asynchronous induction machine with slipring rotor - resistance starting</b><br> 
    423425At start time tStart1 three phase voltage is supplied to the asynchronous induction machine with sliprings; 
    424426the machine starts from standstill, accelerating inertias against load torque quadratic dependent on speed, 
    425 using a starting resistance. At time tStart2 tStart2 is shortened, finally reaching nominal speed.<br> 
     427using a starting resistance. At time tStart2 external rotor resistance is shortened, finally reaching nominal speed.<br> 
    426428Simulate for 1.5 seconds and plot (versus time): 
    427429<ul> 
     
    479481                                                        style(color=3)); 
    480482      connect(SineVoltage1.plug_p, IdealCloser1.plug_p)  
    481         annotation (points=[6.12303e-016,50; 0,48; 1.22461e-015,46; 
     483        annotation (points=[6.12303e-016,50; 0,48; 1.22461e-015,46;  
    482484            6.12303e-016,46; 6.12303e-016,40], style(color=3)); 
    483485      connect(Star3.pin_n, Ground3.p)  
     
    566568          doublePrecision=true), 
    567569        Documentation(info="<HTML> 
    568 <b>4th Test example: Asynchronous induction Machine with squirrel cage fed by an ideal inverter</b><br> 
     570<b>4th Test example: Asynchronous induction machine with squirrel cage fed by an ideal inverter</b><br> 
    569571An ideal frequency inverter is modeled by using a VfController and a threephase SignalVoltage.<br> 
    570572Frequency is raised by a ramp, causing the asynchronous induction machine with squirrel cage to start,  
     
    615617        annotation (points=[70,-40; 60,-40], style(color=0, rgbcolor={0,0,0})); 
    616618      connect(SignalVoltage1.plug_p, CurrentRMSsensor1.plug_p) annotation (points=[ 
    617             6.12303e-016,50; 6.12303e-016,40; 6.12303e-016,40; 6.12303e-016,30; 
     619            6.12303e-016,50; 6.12303e-016,40; 6.12303e-016,40; 6.12303e-016,30;  
    618620            6.12303e-016,10; 6.12303e-016,10],   style(color=3, rgbcolor={0,0, 
    619621              255})); 
     
    660662          doublePrecision=true), 
    661663        Documentation(info="<HTML> 
    662 <b>5th Test example: Synchronous Induction Machine with Reluctance rotor fed by an ideal inverter</b><br> 
     664<b>5th Test example: Synchronous induction machine with reluctance rotor fed by an ideal inverter</b><br> 
    663665An ideal frequency inverter is modeled by using a VfController and a threephase SignalVoltage.<br> 
    664666Frequency is raised by a ramp, causing the reluctance machine to start,  
     
    713715        annotation (points=[60,-40; 70,-40], style(color=0, rgbcolor={0,0,0})); 
    714716      connect(CurrentRMSsensor1.plug_p, SignalVoltage1.plug_p) annotation ( 
    715           points=[6.12303e-016,40; 6.12303e-016,42.5; 6.12303e-016,42.5; 
     717          points=[6.12303e-016,40; 6.12303e-016,42.5; 6.12303e-016,42.5;  
    716718            6.12303e-016,45; 6.12303e-016,50; 6.12303e-016,50], style(color=3, 
    717719            rgbcolor={0,0,255})); 
     
    764766          doublePrecision=true), 
    765767        Documentation(info="<HTML> 
    766 <b>6th Test example: Permanent Magnet Synchronous Induction Machine fed by an ideal inverter</b><br> 
     768<b>6th Test example: Permanent magnet synchronous induction machine fed by an ideal inverter</b><br> 
    767769An ideal frequency inverter is modeled by using a VfController and a threephase SignalVoltage.<br> 
    768770Frequency is raised by a ramp, causing the permanent magnet synchronous induction machine to start,  
     
    873875        experimentSetupOutput(doublePrecision=true), 
    874876        Documentation(info="<HTML> 
    875 <b>7th Test example: Electrical Excited Synchronous Induction Machine as generator</b><br> 
     877<b>7th Test example: Electrical excited synchronous induction machine as generator</b><br> 
    876878An electrically excited synchronous generator is connected to the grid and driven with constant speed.  
    877879Since speed is slightly smaller than synchronous speed corresponding to mains frequency,  
     
    933935            -40,90], style(color=3, rgbcolor={0,0,255})); 
    934936      connect(ElectricalPowerSensor1.plug_ni, CurrentRMSsensor1.plug_p)  
    935         annotation (points=[6.12303e-016,50; 1.76911e-022,46; 6.12303e-016,46; 
     937        annotation (points=[6.12303e-016,50; 1.76911e-022,46; 6.12303e-016,46;  
    936938            6.12303e-016,40], style(color=3, rgbcolor={0,0,255})); 
    937939      connect(SMEE1.flange_a, MechanicalPowerSensor1.flange_a)  
     
    988990          doublePrecision=true), 
    989991        Documentation(info="<HTML> 
    990 <b>8th Test example: Permanent magnet DC Machine started with an armature voltage ramp</b><br> 
     992<b>8th Test example: Permanent magnet DC machine started with an armature voltage ramp</b><br> 
    991993A voltage ramp is applied to the armature, causing the DC machine to start,  
    992994and accelerating inertias.<br>At time tStep a load step is applied.<br> 
     
    10441046          doublePrecision=true), 
    10451047        Documentation(info="<HTML> 
    1046 <b>9th Test example: Electrically separate excited DC Machine started with an armature voltage ramp</b><br> 
     1048<b>9th Test example: Electrically separate excited DC machine started with an armature voltage ramp</b><br> 
    10471049A voltage ramp is applied to the armature, causing the DC machine to start,  
    10481050and accelerating inertias.<br>At time tStep a load step is applied.<br> 
     
    11121114          doublePrecision=true), 
    11131115        Documentation(info="<HTML> 
    1114 <b>10th Test example: Series excited DC Machine started with an armature voltage ramp</b><br> 
     1116<b>10th Test example: Series excited DC machine started with an armature voltage ramp</b><br> 
    11151117A voltage ramp is applied to the armature, causing the DC machine to start,  
    11161118and accelerating inertiasagainst load torque quadratic dependent on speed, finally reaching nominal speed.<br> 
     
    13981400          doublePrecision=true), 
    13991401        Documentation(info="<HTML> 
    1400 <b>Asynchronous induction Machine with squirrel cage - Steinmetz-connection</b><br> 
     1402<b>Asynchronous induction machine with squirrel cage - Steinmetz-connection</b><br> 
    14011403At start time tStart single phase voltage is supplied to the asynchronous induction machine with squirrel cage; 
    14021404the machine starts from standstill, accelerating inertias against load torque quadratic dependent on speed, finally reaching nominal speed.<br> 
     
    15611563          Documentation(info="<HTML> 
    15621564Simple Voltage-Frequency-Controller.<br> 
    1563 Amplitude of voltage is linear dependent (VNominal/fNominal) on Frequency (input signal \"u\"), but limited by VNominal (nominal RMS voltage per phase).<br> 
     1565Amplitude of voltage is linear dependent (VNominal/fNominal) on frequency (input signal \"u\"), but limited by VNominal (nominal RMS voltage per phase).<br> 
    15641566m sine-waves with amplitudes as described above are provided as output signal \"y\".<br> 
    15651567The sine-waves are intended to feed a m-phase SignalVoltage.<br> 
     
    28592861</HTML>")); 
    28602862      equation  
    2861         assert(VaNominal > Ra*IaNominal, "VaNominal has to be > (Ra+Re)*IaNominal"); 
     2863        assert(VaNominal > Ra*IaNominal, "VaNominal has to be > Ra*IaNominal"); 
    28622864        connect(eGround.p, ie.p)  
    28632865          annotation (points=[-10,-50; 10,-50], style(color=3, rgbcolor={0,0,255})); 
     
    29762978</HTML>")); 
    29772979      equation  
    2978         assert(VaNominal > Ra*IaNominal, "VaNominal has to be > (Ra+Re)*IaNominal"); 
     2980        assert(VaNominal > Ra*IaNominal, "VaNominal has to be > Ra*IaNominal"); 
    29792981        connect(re.p, pin_ep) annotation (points=[-60,-40; -80,-40; -80,60; -100,60], 
    29802982            style(color=3, rgbcolor={0,0,255})); 
     
    47154717            rgbfillColor={95,95,95}, 
    47164718            fillPattern=1)); 
    4717         connect(spacePhasorS.ground,spacePhasorS. zero) annotation (points=[-10,20;  
     4719        connect(spacePhasorS.ground,spacePhasorS. zero) annotation (points=[-10,20; 
    47184720              -10,14; -6.12303e-016,14; -6.12303e-016,20],     style( 
    47194721            color=3,