From cfec9c3c60cc20aaa53b51c49978bae379a41960 Mon Sep 17 00:00:00 2001 From: Malte Lenz Date: Wed, 16 Jul 2025 11:29:26 +0200 Subject: [PATCH] Add starting point for figures in Electrical Machines, PowerConverters, QuasiStatic. These originate from figures created for Wolfram System Modeler, and are likely to need cleanup and improvement. --- .../Examples/DCMachines/DCEE_Start.mo | 26 ++++++++- .../Examples/DCMachines/DCPM_Cooling.mo | 19 ++++++- .../Examples/DCMachines/DCPM_QuasiStatic.mo | 26 ++++++++- .../Examples/DCMachines/DCPM_Start.mo | 19 ++++++- .../Examples/DCMachines/DCPM_Temperature.mo | 19 ++++++- .../Examples/DCMachines/DCPM_withLosses.mo | 22 +++++++- .../Examples/DCMachines/DCSE_SinglePhase.mo | 19 ++++++- .../Examples/DCMachines/DCSE_Start.mo | 19 ++++++- .../InductionMachines/IMC_Conveyor.mo | 19 ++++++- .../Examples/InductionMachines/IMC_DOL.mo | 19 ++++++- .../InductionMachines/IMC_Inverter.mo | 19 ++++++- .../InductionMachines/IMC_Transformer.mo | 19 ++++++- .../Examples/InductionMachines/IMC_YD.mo | 19 ++++++- .../InductionMachines/IMC_withLosses.mo | 54 ++++++++++++++++++- .../Examples/InductionMachines/IMS_Start.mo | 19 ++++++- .../SynchronousMachines/SMEE_Generator.mo | 31 ++++++++++- .../SynchronousMachines/SMEE_LoadDump.mo | 19 ++++++- .../SynchronousMachines/SMPM_Inverter.mo | 24 ++++++++- .../SynchronousMachines/SMR_Inverter.mo | 24 ++++++++- .../ACDC/Rectifier1Pulse/Thyristor1Pulse_R.mo | 24 ++++++++- .../Thyristor1Pulse_R_Characteristic.mo | 17 +++++- .../ThyristorBridge2Pulse_R.mo | 24 ++++++++- .../ThyristorBridge2mPulse_R.mo | 24 ++++++++- .../ThyristorCenterTap2Pulse_R.mo | 24 ++++++++- .../ThyristorCenterTap2mPulse_R.mo | 24 ++++++++- .../ThyristorCenterTapmPulse_R.mo | 24 ++++++++- .../PolyphaseTwoLevel/PolyphaseTwoLevel_R.mo | 24 ++++++++- .../PolyphaseTwoLevel/PolyphaseTwoLevel_RL.mo | 24 ++++++++- .../SinglePhaseTwoLevel_R.mo | 24 ++++++++- .../SinglePhaseTwoLevel_RL.mo | 24 ++++++++- .../Examples/DCDC/HBridge/HBridge_DC_Drive.mo | 25 ++++++++- .../Examples/DCDC/HBridge/HBridge_R.mo | 24 ++++++++- .../Examples/DCDC/HBridge/HBridge_RL.mo | 24 ++++++++- .../SinglePhase/Examples/ParallelResonance.mo | 18 ++++++- .../SinglePhase/Examples/Rectifier.mo | 26 ++++++++- .../SinglePhase/Examples/SeriesResonance.mo | 18 ++++++- .../SinglePhase/Examples/Transformer.mo | 17 +++++- 37 files changed, 807 insertions(+), 37 deletions(-) diff --git a/Modelica/Electrical/Machines/Examples/DCMachines/DCEE_Start.mo b/Modelica/Electrical/Machines/Examples/DCMachines/DCEE_Start.mo index a75a1490a6..897ca56e2e 100644 --- a/Modelica/Electrical/Machines/Examples/DCMachines/DCEE_Start.mo +++ b/Modelica/Electrical/Machines/Examples/DCMachines/DCEE_Start.mo @@ -104,5 +104,29 @@ Simulate for 2 seconds and plot (versus time):
  • dcee.ie: excitation current
    • Default machine parameters of model DC_ElectricalExcited are used. -")); +", + figures = { + Figure( + title = "Machine variables", + identifier = "89773", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = dcee.ia, legend = "Armature current"), + Curve(y = dcee.wMechanical, legend = "Motor angular velocity of rotor against stator"), + Curve(y = dcee.tauElectrical, legend = "Motor torque") + }, + x = Axis(min = 0, max = 1.2) + ), + Plot( + curves = { + Curve(y = dcee.ie, legend = "Field excitation current") + }, + x = Axis(min = 0, max = 1.2) + ) + } + ) + } + )); end DCEE_Start; diff --git a/Modelica/Electrical/Machines/Examples/DCMachines/DCPM_Cooling.mo b/Modelica/Electrical/Machines/Examples/DCMachines/DCPM_Cooling.mo index 9a881ae29b..b927b32f16 100644 --- a/Modelica/Electrical/Machines/Examples/DCMachines/DCPM_Cooling.mo +++ b/Modelica/Electrical/Machines/Examples/DCMachines/DCPM_Cooling.mo @@ -196,5 +196,22 @@ Default machine parameters are used, but:
  • Armature reference temperature is set to 80 degC.
  • Nominal armature temperature is set to 80 degC.
    • -")); +", + figures = { + Figure( + title = "Temperatures", + identifier = "01776", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = armature.T, legend = "Armature temperature"), + Curve(y = core.T, legend = "Core temperature"), + Curve(y = cooling.T, legend = "Cooling temperature") + } + ) + } + ) + } + )); end DCPM_Cooling; diff --git a/Modelica/Electrical/Machines/Examples/DCMachines/DCPM_QuasiStatic.mo b/Modelica/Electrical/Machines/Examples/DCMachines/DCPM_QuasiStatic.mo index 002529e1f0..0da9ed4c5c 100644 --- a/Modelica/Electrical/Machines/Examples/DCMachines/DCPM_QuasiStatic.mo +++ b/Modelica/Electrical/Machines/Examples/DCMachines/DCPM_QuasiStatic.mo @@ -112,5 +112,29 @@ Simulate for 2 seconds and plot (versus time):
  • dcpm2.wMechanical: motor's speed of quasi-static model
  • dcpm2.tauElectrical: motor's torque of quasi-static model
    • -")); +", + figures = { + Figure( + title = "Machine variables", + identifier = "bbe59", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = dcpm1.ia, legend = "Armature current of transient model"), + Curve(y = dcpm1.wMechanical, legend = "Motor angular velocity of rotor against stator of transient model"), + Curve(y = dcpm1.tauElectrical, legend = "Motor torque of transient model") + } + ), + Plot( + curves = { + Curve(y = dcpm2.ia, legend = "Armature current of quasistatic model"), + Curve(y = dcpm2.wMechanical, legend = "Motor angular velocity of rotor against stator of quasistatic model"), + Curve(y = dcpm2.tauElectrical, legend = "Motor torque of quasistatic model") + } + ) + } + ) + } + )); end DCPM_QuasiStatic; diff --git a/Modelica/Electrical/Machines/Examples/DCMachines/DCPM_Start.mo b/Modelica/Electrical/Machines/Examples/DCMachines/DCPM_Start.mo index 467eb92fcb..77d20c0fe6 100644 --- a/Modelica/Electrical/Machines/Examples/DCMachines/DCPM_Start.mo +++ b/Modelica/Electrical/Machines/Examples/DCMachines/DCPM_Start.mo @@ -78,5 +78,22 @@ Simulate for 2 seconds and plot (versus time):
  • dcpm.tauElectrical: motor's torque
    • Default machine parameters of model DC_PermanentMagnet are used. -")); +", + figures = { + Figure( + title = "Machine variables", + identifier = "9246c", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = dcpm.ia, legend = "Armature current"), + Curve(y = dcpm.wMechanical, legend = "Motor angular velocity of rotor against stator"), + Curve(y = dcpm.tauElectrical, legend = "Motor torque") + } + ) + } + ) + } + )); end DCPM_Start; diff --git a/Modelica/Electrical/Machines/Examples/DCMachines/DCPM_Temperature.mo b/Modelica/Electrical/Machines/Examples/DCMachines/DCPM_Temperature.mo index 214abf885c..5a4cb9f437 100644 --- a/Modelica/Electrical/Machines/Examples/DCMachines/DCPM_Temperature.mo +++ b/Modelica/Electrical/Machines/Examples/DCMachines/DCPM_Temperature.mo @@ -106,5 +106,22 @@ Default machine parameters are used, but: So the machine is at the beginning in cold condition, ending in warm condition (with the same armature resistance as the unmodified machine). -")); +", + figures = { + Figure( + title = "Machine variables", + identifier = "e423c", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = dcpm.ia, legend = "Armature current"), + Curve(y = dcpm.wMechanical, legend = "Motor angular velocity of rotor against stator"), + Curve(y = dcpm.tauElectrical, legend = "Motor torque") + } + ) + } + ) + } + )); end DCPM_Temperature; diff --git a/Modelica/Electrical/Machines/Examples/DCMachines/DCPM_withLosses.mo b/Modelica/Electrical/Machines/Examples/DCMachines/DCPM_withLosses.mo index 635627b70c..61dc97601a 100644 --- a/Modelica/Electrical/Machines/Examples/DCMachines/DCPM_withLosses.mo +++ b/Modelica/Electrical/Machines/Examples/DCMachines/DCPM_withLosses.mo @@ -160,5 +160,25 @@ Anton Haumer, Christian Kral, Hansjörg Kapeller, Thomas Bäuml, Johanne The AdvancedMachines Library: Loss Models for Electric Machines
    Modelica 2009, 7th International Modelica Conference -")); +", + figures = { + Figure( + title = "Machine variables", + identifier = "0c174", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = dcpm1.ia, legend = "Armature current of dcpm1"), + Curve(y = dcpm2.ia, legend = "Armature current of dcpm2"), + Curve(y = dcpm1.wMechanical, legend = "Motor angular velocity of rotor against stator of dcpm1"), + Curve(y = dcpm2.wMechanical, legend = "Motor angular velocity of rotor against stator of dcpm2"), + Curve(y = dcpm1.tauElectrical, legend = "Motor torque of dcpm1"), + Curve(y = dcpm2.tauElectrical, legend = "Motor torque of dcpm2") + } + ) + } + ) + } + )); end DCPM_withLosses; diff --git a/Modelica/Electrical/Machines/Examples/DCMachines/DCSE_SinglePhase.mo b/Modelica/Electrical/Machines/Examples/DCMachines/DCSE_SinglePhase.mo index df70a44c85..00cfbfa53b 100644 --- a/Modelica/Electrical/Machines/Examples/DCMachines/DCSE_SinglePhase.mo +++ b/Modelica/Electrical/Machines/Examples/DCMachines/DCSE_SinglePhase.mo @@ -99,5 +99,22 @@ Default machine parameters of model DC_SeriesExcited are used.
    Note:
    Since both the field and the armature current are sinusoidal, the waveform of the torque is the square of sine. Due to the additional inductive voltage drops, output of the motor is lower, compared to the same motor (DCSE_Start) at DC voltage. -")); +", + figures = { + Figure( + title = "Machine variables", + identifier = "04168", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = dcse.ia, legend = "Armature current"), + Curve(y = dcse.wMechanical, legend = "Motor angular velocity of rotor against stator"), + Curve(y = dcse.tauElectrical, legend = "Motor torque") + } + ) + } + ) + } + )); end DCSE_SinglePhase; diff --git a/Modelica/Electrical/Machines/Examples/DCMachines/DCSE_Start.mo b/Modelica/Electrical/Machines/Examples/DCMachines/DCSE_Start.mo index b668c2a561..36dadf1863 100644 --- a/Modelica/Electrical/Machines/Examples/DCMachines/DCSE_Start.mo +++ b/Modelica/Electrical/Machines/Examples/DCMachines/DCSE_Start.mo @@ -95,5 +95,22 @@ Simulate for 2 seconds and plot (versus time):
  • dcse.tauElectrical: motor's torque
    • Default machine parameters of model DC_SeriesExcited are used. -")); +", + figures = { + Figure( + title = "Machine variables", + identifier = "e556f", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = dcse.ia, legend = "Armature current"), + Curve(y = dcse.wMechanical, legend = "Motor angular velocity of rotor against stator"), + Curve(y = dcse.tauElectrical, legend = "Motor torque") + } + ) + } + ) + } + )); end DCSE_Start; diff --git a/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_Conveyor.mo b/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_Conveyor.mo index 578c81e778..160368262c 100644 --- a/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_Conveyor.mo +++ b/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_Conveyor.mo @@ -122,5 +122,22 @@ The mechanical load is a constant torque like a conveyor (with regularization ar

    Default machine parameters are used.

    -")); +", + figures = { + Figure( + title = "Machine variables", + identifier = "695b3", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = currentQuasiRMSSensor.I, legend = "Stator current RMS"), + Curve(y = aimc.wMechanical, legend = "Motor angular velocity of rotor against stator"), + Curve(y = aimc.tauElectrical, legend = "Motor torque") + } + ) + } + ) + } + )); end IMC_Conveyor; diff --git a/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_DOL.mo b/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_DOL.mo index 64197dc5a8..34d386c6d6 100644 --- a/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_DOL.mo +++ b/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_DOL.mo @@ -116,5 +116,22 @@ finally reaching nominal speed.

  • aimc.tauElectrical: motor's torque

    • Default machine parameters are used.

    -")); +", + figures = { + Figure( + title = "Machine variables", + identifier = "36dc2", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = currentQuasiRMSSensor.I, legend = "Stator current RMS"), + Curve(y = aimc.wMechanical, legend = "Motor angular velocity of rotor against stator"), + Curve(y = aimc.tauElectrical, legend = "Motor torque") + } + ) + } + ) + } + )); end IMC_DOL; diff --git a/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_Inverter.mo b/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_Inverter.mo index d0d3f489db..874fb14f7a 100644 --- a/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_Inverter.mo +++ b/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_Inverter.mo @@ -118,5 +118,22 @@ and accelerating inertias.
    At time tStep a load step is applied.

    Default machine parameters are used.

    -")); +", + figures = { + Figure( + title = "Machine variables", + identifier = "c51c3", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = currentQuasiRMSSensor.I, legend = "Stator current RMS"), + Curve(y = aimc.wMechanical, legend = "Motor angular velocity of rotor against stator"), + Curve(y = aimc.tauElectrical, legend = "Motor torque") + } + ) + } + ) + } + )); end IMC_Inverter; diff --git a/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_Transformer.mo b/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_Transformer.mo index 3e16bd3e82..9991a9b645 100644 --- a/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_Transformer.mo +++ b/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_Transformer.mo @@ -190,5 +190,22 @@ at start time tStart2 the machine is fed directly from the voltage source, final

    Default machine parameters are used.

    -")); +", + figures = { + Figure( + title = "Machine variables", + identifier = "8efd2", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = currentQuasiRMSSensor.I, legend = "Stator current RMS"), + Curve(y = aimc.wMechanical, legend = "Motor angular velocity of rotor against stator"), + Curve(y = aimc.tauElectrical, legend = "Motor torque") + } + ) + } + ) + } + )); end IMC_Transformer; diff --git a/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_YD.mo b/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_YD.mo index 77ee87ee6e..5c564d913b 100644 --- a/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_YD.mo +++ b/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_YD.mo @@ -122,5 +122,22 @@ load torque quadratic dependent on speed, finally reaching nominal speed.

    Default machine parameters are used.

    -")); +", + figures = { + Figure( + title = "Machine variables", + identifier = "9f2b3", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = currentQuasiRMSSensor.I, legend = "Stator current RMS"), + Curve(y = aimc.wMechanical, legend = "Motor angular velocity of rotor against stator"), + Curve(y = aimc.tauElectrical, legend = "Motor torque") + } + ) + } + ) + } + )); end IMC_YD; diff --git a/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_withLosses.mo b/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_withLosses.mo index 51516b0d45..1c948e33ed 100644 --- a/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_withLosses.mo +++ b/Modelica/Electrical/Machines/Examples/InductionMachines/IMC_withLosses.mo @@ -245,7 +245,59 @@ Anton Haumer, Christian Kral, Hansjörg Kapeller, Thomas Bäuml, Johanne The AdvancedMachines Library: Loss Models for Electric Machines
    Modelica 2009, 7th International Modelica Conference

    -"), +", + figures = { + Figure( + title = "Current", + identifier = "a1d88", + preferred = true, + plots = { + Plot( + curves = { + Curve(x = Pmech, y = I_sim, legend = "Simulated current vs. Mechanical losses"), + Curve(x = Pmech, y = I_meas, legend = "Measured current vs. Mechanical losses") + } + ) + } + ), + Figure( + title = "Speed", + identifier = "996d3", + plots = { + Plot( + curves = { + Curve(x = Pmech, y = w_sim, legend = "Simulated angular velocity vs. Mechanical losses"), + Curve(x = Pmech, y = w_meas, legend = "Measured angular velocity vs. Mechanical losses") + } + ) + } + ), + Figure( + title = "Power factor", + identifier = "2104a", + plots = { + Plot( + curves = { + Curve(x = Pmech, y = pf_sim, legend = "Simulated power factor vs. Mechanical losses"), + Curve(x = Pmech, y = pf_meas, legend = "Measured power factor vs. Mechanical losses") + } + ) + } + ), + Figure( + title = "Efficiency", + identifier = "9e6d4", + plots = { + Plot( + curves = { + Curve(x = Pmech, y = eff_sim, legend = "Simulated efficiency vs. Mechanical losses"), + Curve(x = Pmech, y = eff_meas, legend = "Measured efficiency vs. Mechanical losses") + } + ) + } + ) + } + ), Diagram(coordinateSystem(preserveAspectRatio=false, extent={{-100,-100}, {100,100}}), graphics={Text( extent={{-72,100},{68,80}}, diff --git a/Modelica/Electrical/Machines/Examples/InductionMachines/IMS_Start.mo b/Modelica/Electrical/Machines/Examples/InductionMachines/IMS_Start.mo index 39daed2395..51b152b736 100644 --- a/Modelica/Electrical/Machines/Examples/InductionMachines/IMS_Start.mo +++ b/Modelica/Electrical/Machines/Examples/InductionMachines/IMS_Start.mo @@ -135,5 +135,22 @@ using a starting resistance. At time tStart2 external rotor resistance is shorte

    Default machine parameters are used.

    -")); +", + figures = { + Figure( + title = "Machine variables", + identifier = "d52d0", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = currentQuasiRMSSensor.I, legend = "Stator current RMS"), + Curve(y = aims.wMechanical, legend = "Motor angular velocity of rotor against stator"), + Curve(y = aims.tauElectrical, legend = "Motor torque") + } + ) + } + ) + } + )); end IMS_Start; diff --git a/Modelica/Electrical/Machines/Examples/SynchronousMachines/SMEE_Generator.mo b/Modelica/Electrical/Machines/Examples/SynchronousMachines/SMEE_Generator.mo index 3fba52c584..dd84bc72ed 100644 --- a/Modelica/Electrical/Machines/Examples/SynchronousMachines/SMEE_Generator.mo +++ b/Modelica/Electrical/Machines/Examples/SynchronousMachines/SMEE_Generator.mo @@ -173,5 +173,34 @@ rotor angle is very slowly increased. This allows to see several characteristics

    Default machine parameters are used.

    -")); +", + figures = { + Figure( + title = "Power vs. rotor displacement angle", + identifier = "48c9a", + preferred = true, + plots = { + Plot( + curves = { + Curve(x = rotorDisplacementAngle.rotorDisplacementAngle, y = electricalPowerSensor.P, legend = "Electric power sensor P vs. rotor displacement angle"), + Curve(x = rotorDisplacementAngle.rotorDisplacementAngle, y = electricalPowerSensor.Q, legend = "Electric power sensor Q vs. rotor displacement angle"), + Curve(x = rotorDisplacementAngle.rotorDisplacementAngle, y = mechanicalPowerSensor.P, legend = "Mechanical power sensor P vs. rotor displacement angle") + } + ) + } + ), + Figure( + title = "Current and torque vs. rotor displacement angle", + identifier = "c3184", + plots = { + Plot( + curves = { + Curve(x = rotorDisplacementAngle.rotorDisplacementAngle, y = smee.tauElectrical, legend = "Motor torque vs. rotor displacement angle"), + Curve(x = rotorDisplacementAngle.rotorDisplacementAngle, y = currentQuasiRMSSensor.I, legend = "Stator current RMS vs. rotor displacement angle") + } + ) + } + ) + } + )); end SMEE_Generator; diff --git a/Modelica/Electrical/Machines/Examples/SynchronousMachines/SMEE_LoadDump.mo b/Modelica/Electrical/Machines/Examples/SynchronousMachines/SMEE_LoadDump.mo index e3205571cd..6449fa556f 100644 --- a/Modelica/Electrical/Machines/Examples/SynchronousMachines/SMEE_LoadDump.mo +++ b/Modelica/Electrical/Machines/Examples/SynchronousMachines/SMEE_LoadDump.mo @@ -237,5 +237,22 @@ Voltage is controlled, the set point depends on speed. After start-up the genera

    Default machine parameters are used.

    One could try to optimize the controller parameters.

    -")); +", + figures = { + Figure( + title = "Machine variables", + identifier = "6c1f4", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = voltageQuasiRMSSensor.V, legend = "Stator current RMS"), + Curve(y = smee.tauElectrical, legend = "Motor torque"), + Curve(y = smee.ie, legend = "Motor excitation current") + } + ) + } + ) + } + )); end SMEE_LoadDump; diff --git a/Modelica/Electrical/Machines/Examples/SynchronousMachines/SMPM_Inverter.mo b/Modelica/Electrical/Machines/Examples/SynchronousMachines/SMPM_Inverter.mo index d9664b5f27..5742051a63 100644 --- a/Modelica/Electrical/Machines/Examples/SynchronousMachines/SMPM_Inverter.mo +++ b/Modelica/Electrical/Machines/Examples/SynchronousMachines/SMPM_Inverter.mo @@ -138,5 +138,27 @@ and accelerating inertias. At time tStep a load step is applied.

    In practice it is nearly impossible to drive a PMSMD without current controller.

    -")); +", + figures = { + Figure( + title = "Machine variables", + identifier = "e5cc1", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = currentQuasiRMSSensor.I, legend = "Stator current RMS"), + Curve(y = smpm.wMechanical, legend = "Motor angular velocity of rotor against stator"), + Curve(y = smpm.tauElectrical, legend = "Motor torque") + } + ), + Plot( + curves = { + Curve(y = rotorDisplacementAngle.rotorDisplacementAngle, legend = "Rotor displacement angle") + } + ) + } + ) + } + )); end SMPM_Inverter; diff --git a/Modelica/Electrical/Machines/Examples/SynchronousMachines/SMR_Inverter.mo b/Modelica/Electrical/Machines/Examples/SynchronousMachines/SMR_Inverter.mo index 4b97c74542..eb96fb509e 100644 --- a/Modelica/Electrical/Machines/Examples/SynchronousMachines/SMR_Inverter.mo +++ b/Modelica/Electrical/Machines/Examples/SynchronousMachines/SMR_Inverter.mo @@ -131,5 +131,27 @@ and accelerating inertias. At time tStep a load step is applied.

    Default machine parameters are used.

    -")); +", + figures = { + Figure( + title = "Machine variables", + identifier = "ca13f", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = currentQuasiRMSSensor.I, legend = "Stator current RMS"), + Curve(y = smr.wMechanical, legend = "Motor angular velocity of rotor against stator"), + Curve(y = smr.tauElectrical, legend = "Motor torque") + } + ), + Plot( + curves = { + Curve(y = rotorDisplacementAngle.rotorDisplacementAngle, legend = "Rotor displacement angle") + } + ) + } + ) + } + )); end SMR_Inverter; diff --git a/Modelica/Electrical/PowerConverters/Examples/ACDC/Rectifier1Pulse/Thyristor1Pulse_R.mo b/Modelica/Electrical/PowerConverters/Examples/ACDC/Rectifier1Pulse/Thyristor1Pulse_R.mo index 0267e0cdf5..8bda5d5490 100644 --- a/Modelica/Electrical/PowerConverters/Examples/ACDC/Rectifier1Pulse/Thyristor1Pulse_R.mo +++ b/Modelica/Electrical/PowerConverters/Examples/ACDC/Rectifier1Pulse/Thyristor1Pulse_R.mo @@ -28,5 +28,27 @@ equation Documentation(info="

    This example demonstrates the operational behavior of a single-phase controlled rectifier with constant firing angle and resistive load.

    Plot current currentSensor.i, average current meanCurrent.y, voltage voltageSensor.v and average voltage meanVoltage.v.

    -")); +", + figures = { + Figure( + title = "Voltage and current", + identifier = "4d927", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = currentSensor.i, legend = "Measured current value"), + Curve(y = meanCurrent.y, legend = "Mean value of current") + } + ), + Plot( + curves = { + Curve(y = voltagesensor.v, legend = "Measured voltage value"), + Curve(y = meanVoltage.y, legend = "Mean value of voltage") + } + ) + } + ) + } + )); end Thyristor1Pulse_R; diff --git a/Modelica/Electrical/PowerConverters/Examples/ACDC/Rectifier1Pulse/Thyristor1Pulse_R_Characteristic.mo b/Modelica/Electrical/PowerConverters/Examples/ACDC/Rectifier1Pulse/Thyristor1Pulse_R_Characteristic.mo index d654add920..0b61564254 100644 --- a/Modelica/Electrical/PowerConverters/Examples/ACDC/Rectifier1Pulse/Thyristor1Pulse_R_Characteristic.mo +++ b/Modelica/Electrical/PowerConverters/Examples/ACDC/Rectifier1Pulse/Thyristor1Pulse_R_Characteristic.mo @@ -31,5 +31,20 @@ equation Documentation(info="

    This example demonstrates the operational behavior of a single-phase controlled rectifier with variable firing angle and resistive load. The average load voltage can be controlled by means of the firing angle.


    Plot average voltage meanVoltage.v versus firingAngle pulse2.firingAngle to see control characteristic of this type of rectifier with resistive load.

    -")); +", + figures = { + Figure( + title = "Average voltage vs. firing angle", + identifier = "670e6", + preferred = true, + plots = { + Plot( + curves = { + Curve(x = pulse2.firingAngle, y = meanVoltage.y, legend = "Average voltage vs. firing angle") + } + ) + } + ) + } + )); end Thyristor1Pulse_R_Characteristic; diff --git a/Modelica/Electrical/PowerConverters/Examples/ACDC/RectifierBridge2Pulse/ThyristorBridge2Pulse_R.mo b/Modelica/Electrical/PowerConverters/Examples/ACDC/RectifierBridge2Pulse/ThyristorBridge2Pulse_R.mo index 7d71514ce3..9fc472957a 100644 --- a/Modelica/Electrical/PowerConverters/Examples/ACDC/RectifierBridge2Pulse/ThyristorBridge2Pulse_R.mo +++ b/Modelica/Electrical/PowerConverters/Examples/ACDC/RectifierBridge2Pulse/ThyristorBridge2Pulse_R.mo @@ -28,5 +28,27 @@ equation half controlled bridge.

    Plot current currentSensor.i, average current meanCurrent.y, voltage voltageSensor.v and average voltage meanVoltage.v.

    -")); +", + figures = { + Figure( + title = "Voltage and current", + identifier = "c1417", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = currentSensor.i, legend = "Measured current value"), + Curve(y = meanCurrent.y, legend = "Mean value of current") + } + ), + Plot( + curves = { + Curve(y = voltagesensor.v, legend = "Measured voltage value"), + Curve(y = meanVoltage.y, legend = "Mean value of voltage") + } + ) + } + ) + } + )); end ThyristorBridge2Pulse_R; diff --git a/Modelica/Electrical/PowerConverters/Examples/ACDC/RectifierBridge2mPulse/ThyristorBridge2mPulse_R.mo b/Modelica/Electrical/PowerConverters/Examples/ACDC/RectifierBridge2mPulse/ThyristorBridge2mPulse_R.mo index 8930b1b6de..0ddc0e3daf 100644 --- a/Modelica/Electrical/PowerConverters/Examples/ACDC/RectifierBridge2mPulse/ThyristorBridge2mPulse_R.mo +++ b/Modelica/Electrical/PowerConverters/Examples/ACDC/RectifierBridge2mPulse/ThyristorBridge2mPulse_R.mo @@ -28,5 +28,27 @@ equation half controlled bridge.

    Plot current currentSensor.i, average current meanCurrent.y, voltage voltageSensor.v and average voltage meanVoltage.v.

    -")); +", + figures = { + Figure( + title = "Voltage and current", + identifier = "391aa", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = currentSensor.i, legend = "Measured value of current"), + Curve(y = meanCurrent.y, legend = "Mean value of current") + } + ), + Plot( + curves = { + Curve(y = voltagesensor.v, legend = "Measured value of voltage"), + Curve(y = meanVoltage.y, legend = "Mean value of voltage") + } + ) + } + ) + } + )); end ThyristorBridge2mPulse_R; diff --git a/Modelica/Electrical/PowerConverters/Examples/ACDC/RectifierCenterTap2Pulse/ThyristorCenterTap2Pulse_R.mo b/Modelica/Electrical/PowerConverters/Examples/ACDC/RectifierCenterTap2Pulse/ThyristorCenterTap2Pulse_R.mo index 8f1f8a88ee..82ad3093fd 100644 --- a/Modelica/Electrical/PowerConverters/Examples/ACDC/RectifierCenterTap2Pulse/ThyristorCenterTap2Pulse_R.mo +++ b/Modelica/Electrical/PowerConverters/Examples/ACDC/RectifierCenterTap2Pulse/ThyristorCenterTap2Pulse_R.mo @@ -27,5 +27,27 @@ equation

    This example shows a controlled center tap two pulse rectifier with resistive load.

    Plot current currentSensor.i, average current meanCurrent.y, voltage voltageSensor.v and average voltage meanVoltage.v.

    -")); +", + figures = { + Figure( + title = "Voltage and current", + identifier = "97a8e", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = currentSensor.i, legend = "Measured current value"), + Curve(y = meanCurrent.y, legend = "Mean value of current") + } + ), + Plot( + curves = { + Curve(y = voltagesensor.v, legend = "Measured voltage value"), + Curve(y = meanVoltage.y, legend = "Mean value of votlage") + } + ) + } + ) + } + )); end ThyristorCenterTap2Pulse_R; diff --git a/Modelica/Electrical/PowerConverters/Examples/ACDC/RectifierCenterTap2mPulse/ThyristorCenterTap2mPulse_R.mo b/Modelica/Electrical/PowerConverters/Examples/ACDC/RectifierCenterTap2mPulse/ThyristorCenterTap2mPulse_R.mo index 667dadbb28..bcbe6b265e 100644 --- a/Modelica/Electrical/PowerConverters/Examples/ACDC/RectifierCenterTap2mPulse/ThyristorCenterTap2mPulse_R.mo +++ b/Modelica/Electrical/PowerConverters/Examples/ACDC/RectifierCenterTap2mPulse/ThyristorCenterTap2mPulse_R.mo @@ -27,5 +27,27 @@ equation

    This example shows a controlled 2*m pulse center tap rectifier with resistive load, where m is the number of phases.

    Plot current currentSensor.i, average current meanCurrent.y, voltage voltageSensor.v and average voltage meanVoltage.v.

    -")); +", + figures = { + Figure( + title = "Voltage and current", + identifier = "940bc", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = currentSensor.i, legend = "Measured value of current"), + Curve(y = meanCurrent.y, legend = "Mean value of current") + } + ), + Plot( + curves = { + Curve(y = voltagesensor.v, legend = "Measured value of voltage"), + Curve(y = meanVoltage.y, legend = "Mean value of voltage") + } + ) + } + ) + } + )); end ThyristorCenterTap2mPulse_R; diff --git a/Modelica/Electrical/PowerConverters/Examples/ACDC/RectifierCenterTapmPulse/ThyristorCenterTapmPulse_R.mo b/Modelica/Electrical/PowerConverters/Examples/ACDC/RectifierCenterTapmPulse/ThyristorCenterTapmPulse_R.mo index afd38df87c..480959d24c 100644 --- a/Modelica/Electrical/PowerConverters/Examples/ACDC/RectifierCenterTapmPulse/ThyristorCenterTapmPulse_R.mo +++ b/Modelica/Electrical/PowerConverters/Examples/ACDC/RectifierCenterTapmPulse/ThyristorCenterTapmPulse_R.mo @@ -27,5 +27,27 @@ equation

    This example shows a controlled m pulse center tap rectifier with resistive load, where m is the number of phases.

    Plot current currentSensor.i, average current meanCurrent.y, voltage voltageSensor.v and average voltage meanVoltage.v.

    -")); +", + figures = { + Figure( + title = "Voltage and current", + identifier = "7ba5e", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = currentSensor.i, legend = "Measured current value"), + Curve(y = meanCurrent.y, legend = "Mean value of current") + } + ), + Plot( + curves = { + Curve(y = voltagesensor.v, legend = "Measured value of voltage"), + Curve(y = meanVoltage.y, legend = "Mean value of voltage") + } + ) + } + ) + } + )); end ThyristorCenterTapmPulse_R; diff --git a/Modelica/Electrical/PowerConverters/Examples/DCAC/PolyphaseTwoLevel/PolyphaseTwoLevel_R.mo b/Modelica/Electrical/PowerConverters/Examples/DCAC/PolyphaseTwoLevel/PolyphaseTwoLevel_R.mo index aeac93db9c..5c50111644 100644 --- a/Modelica/Electrical/PowerConverters/Examples/DCAC/PolyphaseTwoLevel/PolyphaseTwoLevel_R.mo +++ b/Modelica/Electrical/PowerConverters/Examples/DCAC/PolyphaseTwoLevel/PolyphaseTwoLevel_R.mo @@ -106,5 +106,27 @@ equation Interval=0.00002), Documentation(info="

    Plot current currentSensor.i[:], harmonic current magnitude fundamentalWaveCurrent[:].y_RMS, harmonic voltage magnitude fundamentalWaveVoltage[:].y_RMS. The instantaneous voltages voltageSensor.i[:] and currents currentSensor.i[:] directly show the switching pattern of the inverter. There is not smoothing effect due to an inductance in this example; see PolyphaseTwoLevel_RL.

    -")); +", + figures = { + Figure( + title = "Voltage and current", + identifier = "16d44", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = currentSensor.i[1], legend = "Measure value of current[1]"), + Curve(y = fundamentalWaveCurrent[1].y_rms, legend = "Root mean square of current[1] in fundamentalWaveCurrent[1]") + } + ), + Plot( + curves = { + Curve(y = voltageSensor.v[1], legend = "Measure value of voltage[1]"), + Curve(y = fundamentalWaveVoltage[1].y_rms, legend = "Root mean square of voltage in fundamentalWaveVoltage[1]") + } + ) + } + ) + } + )); end PolyphaseTwoLevel_R; diff --git a/Modelica/Electrical/PowerConverters/Examples/DCAC/PolyphaseTwoLevel/PolyphaseTwoLevel_RL.mo b/Modelica/Electrical/PowerConverters/Examples/DCAC/PolyphaseTwoLevel/PolyphaseTwoLevel_RL.mo index 34ef47e03a..044b2e7439 100644 --- a/Modelica/Electrical/PowerConverters/Examples/DCAC/PolyphaseTwoLevel/PolyphaseTwoLevel_RL.mo +++ b/Modelica/Electrical/PowerConverters/Examples/DCAC/PolyphaseTwoLevel/PolyphaseTwoLevel_RL.mo @@ -118,5 +118,27 @@ equation Interval=0.00002), Documentation(info="

    Plot current currentSensor.i[:], harmonic current magnitude fundamentalWaveCurrent[:].y_RMS, harmonic voltage magnitude fundamentalWaveVoltage[:].y_RMS. The instantaneous voltages voltageSensor.i[:] directly show the switching pattern of the inverter.

    -")); +", + figures = { + Figure( + title = "Voltage and current", + identifier = "5144d", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = currentSensor.i[1], legend = "Measured value of current[1]"), + Curve(y = fundamentalWaveCurrent[1].y_rms, legend = "Root mean square of current[1] in fundamentalWaveCurrent[1]") + } + ), + Plot( + curves = { + Curve(y = voltageSensor.v[1], legend = "Measured value of voltage[1]"), + Curve(y = fundamentalWaveVoltage[1].y_rms, legend = "Root mean square of voltage in fundamentalWaveVoltage[1]") + } + ) + } + ) + } + )); end PolyphaseTwoLevel_RL; diff --git a/Modelica/Electrical/PowerConverters/Examples/DCAC/SinglePhaseTwoLevel/SinglePhaseTwoLevel_R.mo b/Modelica/Electrical/PowerConverters/Examples/DCAC/SinglePhaseTwoLevel/SinglePhaseTwoLevel_R.mo index b9126a0bc2..0111da1883 100644 --- a/Modelica/Electrical/PowerConverters/Examples/DCAC/SinglePhaseTwoLevel/SinglePhaseTwoLevel_R.mo +++ b/Modelica/Electrical/PowerConverters/Examples/DCAC/SinglePhaseTwoLevel/SinglePhaseTwoLevel_R.mo @@ -26,5 +26,27 @@ equation Interval=0.0002), Documentation(info="

    Plot current currentSensor.i, average current meanCurrent.y, voltage voltageSensor.v and average voltage meanVoltage.v. The instantaneous voltage and current directly show the switch pattern of the inverter. The average voltage and average current reveal the fundamental wave of the voltage and current, each of them being basically in phase with the command sine.y.

    -")); +", + figures = { + Figure( + title = "Voltage and current", + identifier = "03aa4", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = currentSensor.i, legend = "Measured value of current"), + Curve(y = fundamentalWaveCurrent.y_rms, legend = "Root mean square of current in fundamentalWaveCurrent") + } + ), + Plot( + curves = { + Curve(y = voltageSensor.v, legend = "Measure value of voltage"), + Curve(y = fundamentalWaveVoltage.y_rms, legend = "Root mean square of voltage in fundamentalWaveVoltage") + } + ) + } + ) + } + )); end SinglePhaseTwoLevel_R; diff --git a/Modelica/Electrical/PowerConverters/Examples/DCAC/SinglePhaseTwoLevel/SinglePhaseTwoLevel_RL.mo b/Modelica/Electrical/PowerConverters/Examples/DCAC/SinglePhaseTwoLevel/SinglePhaseTwoLevel_RL.mo index 6a975c004d..e920b1f233 100644 --- a/Modelica/Electrical/PowerConverters/Examples/DCAC/SinglePhaseTwoLevel/SinglePhaseTwoLevel_RL.mo +++ b/Modelica/Electrical/PowerConverters/Examples/DCAC/SinglePhaseTwoLevel/SinglePhaseTwoLevel_RL.mo @@ -34,5 +34,27 @@ equation Interval=0.0002), Documentation(info="

    Plot current currentSensor.i, average current meanCurrent.y, voltage voltageSensor.v and average voltage meanVoltage.v. The instantaneous voltage directly show the switch pattern of the inverter. The current shows a particular ripple determined by the input voltage and the switching frequency. The average voltage is basically in phase with the command sine.y. The average current has a phase shift due to the R-L load.

    -")); +", + figures = { + Figure( + title = "Voltage and current", + identifier = "3d04b", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = currentSensor.i, legend = "Measure value of current"), + Curve(y = fundamentalWaveCurrent.y_rms, legend = "Root mean square of current in fundamentalWaveCurrent") + } + ), + Plot( + curves = { + Curve(y = voltageSensor.v, legend = "Measure value of voltage"), + Curve(y = fundamentalWaveVoltage.y_rms, legend = "Root mean square of voltage in fundamentalWaveVoltage") + } + ) + } + ) + } + )); end SinglePhaseTwoLevel_RL; diff --git a/Modelica/Electrical/PowerConverters/Examples/DCDC/HBridge/HBridge_DC_Drive.mo b/Modelica/Electrical/PowerConverters/Examples/DCDC/HBridge/HBridge_DC_Drive.mo index f3840188b1..86f7159f46 100644 --- a/Modelica/Electrical/PowerConverters/Examples/DCDC/HBridge/HBridge_DC_Drive.mo +++ b/Modelica/Electrical/PowerConverters/Examples/DCDC/HBridge/HBridge_DC_Drive.mo @@ -109,5 +109,28 @@ The DC output voltage is equal to 2 * (dutyCycle - 0.5) times the i

    Plot machine current dcpm.ia, averaged current meanCurrent.y, machine speed dcpm.wMechanical, averaged machine speed dcpm.va and torque dcpm.tauElectrical.

    -")); +", + figures = { + Figure( + title = "Voltage, current and machine variables", + identifier = "31ac3", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = dcpm.ia, legend = "Machine current"), + Curve(y = meanCurrent.y, legend = "Mean value of current"), + Curve(y = dcpm.tauElectrical, legend = "Machine torque") + } + ), + Plot( + curves = { + Curve(y = dcpm.va, legend = "Armature voltage in machine"), + Curve(y = dcpm.wMechanical, legend = "Machine speed") + } + ) + } + ) + } + )); end HBridge_DC_Drive; diff --git a/Modelica/Electrical/PowerConverters/Examples/DCDC/HBridge/HBridge_R.mo b/Modelica/Electrical/PowerConverters/Examples/DCDC/HBridge/HBridge_R.mo index 4399a1af99..cedd9823fd 100644 --- a/Modelica/Electrical/PowerConverters/Examples/DCDC/HBridge/HBridge_R.mo +++ b/Modelica/Electrical/PowerConverters/Examples/DCDC/HBridge/HBridge_R.mo @@ -22,5 +22,27 @@ equation

    This example demonstrates the switching on of a resistive load operated by an H bridge. DC output voltage is equal to 2 * (dutyCycle - 0.5) times the input voltage. Plot current currentSensor.i, averaged current meanCurrent.y, total voltage voltageSensor.v and voltage meanVoltage.v.

    -")); +", + figures = { + Figure( + title = "Voltage and current", + identifier = "78018", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = currentSensor.i, legend = "Measured value of current"), + Curve(y = meanCurrent.y, legend = "Mean value of current") + } + ), + Plot( + curves = { + Curve(y = voltageSensor.v, legend = "Measured value of voltage"), + Curve(y = meanVoltage.y, legend = "Mean value of voltage") + } + ) + } + ) + } + )); end HBridge_R; diff --git a/Modelica/Electrical/PowerConverters/Examples/DCDC/HBridge/HBridge_RL.mo b/Modelica/Electrical/PowerConverters/Examples/DCDC/HBridge/HBridge_RL.mo index 36f9189209..ce78b066f5 100644 --- a/Modelica/Electrical/PowerConverters/Examples/DCDC/HBridge/HBridge_RL.mo +++ b/Modelica/Electrical/PowerConverters/Examples/DCDC/HBridge/HBridge_RL.mo @@ -26,7 +26,29 @@ equation

    This example demonstrates the switching on of an R-L load operated by an H bridge. DC output voltage is equal to 2 * (dutyCycle - 0.5) times the input voltage. Plot current currentSensor.i, averaged current meanCurrent.y, total voltage voltageSensor.v and voltage meanVoltage.v. The waveform the average current is determined by the time constant L/R of the load.

    -"), +", + figures = { + Figure( + title = "Voltage and current", + identifier = "b15df", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = currentSensor.i, legend = "Measured value of current"), + Curve(y = meanCurrent.y, legend = "Mean value of current") + } + ), + Plot( + curves = { + Curve(y = voltageSensor.v, legend = "Measured value of voltage"), + Curve(y = meanVoltage.y, legend = "Mean value of voltage") + } + ) + } + ) + } + ), experiment( StopTime=0.1, Interval=0.0002, diff --git a/Modelica/Electrical/QuasiStatic/SinglePhase/Examples/ParallelResonance.mo b/Modelica/Electrical/QuasiStatic/SinglePhase/Examples/ParallelResonance.mo index 31adfe67d1..be86b60cd0 100644 --- a/Modelica/Electrical/QuasiStatic/SinglePhase/Examples/ParallelResonance.mo +++ b/Modelica/Electrical/QuasiStatic/SinglePhase/Examples/ParallelResonance.mo @@ -86,6 +86,22 @@ equation The frequency of the current source is varied by a ramp. Plot length and angle of the voltage phasor, i.e., complexToPolar.len and .phi, versus time resp. frequency.

    -"), +", + figures = { + Figure( + title = "Phasor length and angle vs. frequency", + identifier = "2f33b", + preferred = true, + plots = { + Plot( + curves = { + Curve(x = currentSource.f, y = complexToPolar.phi, legend = "Complex angle phi vs. frequency of currentSource"), + Curve(x = currentSource.f, y = complexToPolar.len, legend = "Complex length len vs. frequency of currentSource") + } + ) + } + ) + } + ), experiment(StopTime=1.0, Interval=0.001)); end ParallelResonance; diff --git a/Modelica/Electrical/QuasiStatic/SinglePhase/Examples/Rectifier.mo b/Modelica/Electrical/QuasiStatic/SinglePhase/Examples/Rectifier.mo index 5557368cbf..e216cab0d8 100644 --- a/Modelica/Electrical/QuasiStatic/SinglePhase/Examples/Rectifier.mo +++ b/Modelica/Electrical/QuasiStatic/SinglePhase/Examples/Rectifier.mo @@ -138,6 +138,30 @@ It can be seen that at the DC side the current is represented by its averaged va The quasi-static model needs a grounding at the QS side as well as the DC side, whereas the transient model may have only one ground since AC side and DC side are connected via the diodes.

    -"), +", + figures = { + Figure( + title = "Rectifier values", + identifier = "f6602", + preferred = true, + plots = { + Plot( + curves = { + Curve(y = iQS.len, legend = "AC rms current"), + Curve(y = iAC.u, legend = "AC instantaneous current"), + Curve(y = iAC.y_rms, legend = "AC rms current") + } + ), + Plot( + curves = { + Curve(y = iDC1.i, legend = "DC current"), + Curve(y = iDC2.u, legend = "DC instantaneous current"), + Curve(y = iDC2.y, legend = "DC rms current") + } + ) + } + ) + } + ), experiment(StopTime=1.0, Interval=0.0001)); end Rectifier; diff --git a/Modelica/Electrical/QuasiStatic/SinglePhase/Examples/SeriesResonance.mo b/Modelica/Electrical/QuasiStatic/SinglePhase/Examples/SeriesResonance.mo index 8402152041..87097bb470 100644 --- a/Modelica/Electrical/QuasiStatic/SinglePhase/Examples/SeriesResonance.mo +++ b/Modelica/Electrical/QuasiStatic/SinglePhase/Examples/SeriesResonance.mo @@ -71,6 +71,22 @@ equation The frequency of the voltage source is varied by a ramp. Plot length and angle of the current phasor, i.e., complexToPolar.len and .phi, versus time resp. frequency.

    -"), +", + figures = { + Figure( + title = "Phasor length and angle vs. frequency", + identifier = "4dbcf", + preferred = true, + plots = { + Plot( + curves = { + Curve(x = voltageSource.f, y = complexToPolar.phi, legend = "Complex angle phi of current vs. frequency of voltageSource"), + Curve(x = voltageSource.f, y = complexToPolar.len, legend = "Complex length len of current vs. frequency of voltageSource") + } + ) + } + ) + } + ), experiment(StopTime=1.0, Interval=0.001)); end SeriesResonance; diff --git a/Modelica/Electrical/QuasiStatic/SinglePhase/Examples/Transformer.mo b/Modelica/Electrical/QuasiStatic/SinglePhase/Examples/Transformer.mo index 8a0c7d38fb..4d7b15ff59 100644 --- a/Modelica/Electrical/QuasiStatic/SinglePhase/Examples/Transformer.mo +++ b/Modelica/Electrical/QuasiStatic/SinglePhase/Examples/Transformer.mo @@ -96,5 +96,20 @@ circuit impedance"),

    Plot the real part of the secondary voltage idealTransformer.v2.re on the x axis and idealTransformer.v2.im on the y axis. The locus of this complex voltage v2 is a circle. The center of the circle is the primary supply voltage divided by the transformation ratio of n=5. Since in this experiment the load current magnitude is constant, the voltage drop across the short circuit impedance of the transformer is constant, as well. The radius of the circle is equal to the constant magnitude of the voltage drop across the short circuit impedance.

    -")); +", + figures = { + Figure( + title = "Ideal transformer values", + identifier = "9a6ad", + preferred = true, + plots = { + Plot( + curves = { + Curve(x = idealTransformer.v2.re, y = idealTransformer.v2.im, legend = "Imaginary vs Real part of the idealTransformer.v2") + } + ) + } + ) + } + )); end Transformer;