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asmaFlow.mos
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asmaFlow.mos
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// name: asmaFlow.mos [BUG: #2429]
// keywords: remove simple equation bug testing
// status: correct
// teardown_command: rm -rf asmaFlow_* asmaFlow asmaFlow.exe
setCommandLineOptions({"+d=dumprepl,dumpindxdae"}); getErrorString();
loadModel(Modelica, {"3.2.1"}); getErrorString();
loadFile("asmaFlow.mo"); getErrorString();
simulate(asmaFlow); getErrorString();
val(aimc.flange.tau, 0);
val(aimc.inertiaRotor.flange_b.tau, 0);
// Result:
// {true}
// ""
// true
// ""
// true
// ""
//
// Unreplaceable Crefs: (0)
// ========================================
//
//
// Replacements: (321)
// ========================================
// const.y -> const.k
// torque.tau -> const.k
// torque.flange.tau -> -const.k
// aimc.flange.phi -> speedSensor.flange.phi
// torque.flange.phi -> speedSensor.flange.phi
// aimc.strayLoad.flange.phi -> speedSensor.flange.phi
// aimc.inertiaRotor.flange_b.phi -> speedSensor.flange.phi
// aimc.inertiaRotor.phi -> speedSensor.flange.phi
// aimc.inertiaRotor.flange_a.phi -> speedSensor.flange.phi
// aimc.airGapS.flange.phi -> speedSensor.flange.phi
// aimc.friction.flange.phi -> speedSensor.flange.phi
// ground.p.v -> 0.0
// star.pin_n.v -> 0.0
// star.plug_p.pin[3].v -> 0.0
// sinevoltage1.plug_p.pin[3].v -> 0.0
// sinevoltage1.sineVoltage[3].p.v -> 0.0
// star.plug_p.pin[2].v -> 0.0
// sinevoltage1.plug_p.pin[2].v -> 0.0
// sinevoltage1.sineVoltage[2].p.v -> 0.0
// star.plug_p.pin[1].v -> 0.0
// sinevoltage1.plug_p.pin[1].v -> 0.0
// sinevoltage1.sineVoltage[1].p.v -> 0.0
// terminalBox.plug_sp.pin[3].v -> -sinevoltage1.v[3]
// terminalBox.plugSupply.pin[3].v -> -sinevoltage1.v[3]
// sinevoltage1.plug_n.pin[3].v -> -sinevoltage1.v[3]
// sinevoltage1.sineVoltage[3].n.v -> -sinevoltage1.v[3]
// aimc.strayLoad.plug_p.pin[3].v -> -sinevoltage1.v[3]
// terminalBox.plug_sp.pin[2].v -> -sinevoltage1.v[2]
// terminalBox.plugSupply.pin[2].v -> -sinevoltage1.v[2]
// sinevoltage1.plug_n.pin[2].v -> -sinevoltage1.v[2]
// sinevoltage1.sineVoltage[2].n.v -> -sinevoltage1.v[2]
// aimc.strayLoad.plug_p.pin[2].v -> -sinevoltage1.v[2]
// terminalBox.plug_sp.pin[1].v -> -sinevoltage1.v[1]
// terminalBox.plugSupply.pin[1].v -> -sinevoltage1.v[1]
// sinevoltage1.plug_n.pin[1].v -> -sinevoltage1.v[1]
// sinevoltage1.sineVoltage[1].n.v -> -sinevoltage1.v[1]
// aimc.strayLoad.plug_p.pin[1].v -> -sinevoltage1.v[1]
// terminalBox.plug_sn.pin[3].v -> aimc.plug_sn.pin[3].v
// terminalBox.star.plug_p.pin[3].v -> aimc.plug_sn.pin[3].v
// terminalBox.star.pin_n.v -> aimc.plug_sn.pin[3].v
// terminalBox.starpoint.v -> aimc.plug_sn.pin[3].v
// terminalBox.star.plug_p.pin[2].v -> aimc.plug_sn.pin[3].v
// terminalBox.plug_sn.pin[2].v -> aimc.plug_sn.pin[3].v
// aimc.plug_sn.pin[2].v -> aimc.plug_sn.pin[3].v
// aimc.spacePhasorS.plug_n.pin[2].v -> aimc.plug_sn.pin[3].v
// terminalBox.star.plug_p.pin[1].v -> aimc.plug_sn.pin[3].v
// terminalBox.plug_sn.pin[1].v -> aimc.plug_sn.pin[3].v
// aimc.plug_sn.pin[1].v -> aimc.plug_sn.pin[3].v
// aimc.spacePhasorS.plug_n.pin[1].v -> aimc.plug_sn.pin[3].v
// aimc.spacePhasorS.plug_n.pin[3].v -> aimc.plug_sn.pin[3].v
// sinevoltage1.plug_p.pin[1].i -> sinevoltage1.i[1]
// sinevoltage1.sineVoltage[1].p.i -> sinevoltage1.i[1]
// sinevoltage1.sineVoltage[1].i -> sinevoltage1.i[1]
// sinevoltage1.sineVoltage[1].n.i -> -sinevoltage1.i[1]
// sinevoltage1.plug_n.pin[1].i -> -sinevoltage1.i[1]
// terminalBox.plugSupply.pin[1].i -> sinevoltage1.i[1]
// terminalBox.plug_sp.pin[1].i -> -sinevoltage1.i[1]
// aimc.plug_sp.pin[1].i -> sinevoltage1.i[1]
// aimc.strayLoad.plug_p.pin[1].i -> sinevoltage1.i[1]
// aimc.strayLoad.i[1] -> sinevoltage1.i[1]
// aimc.strayLoad.plug_n.pin[1].i -> -sinevoltage1.i[1]
// aimc.rs.plug_p.pin[1].i -> sinevoltage1.i[1]
// aimc.rs.resistor[1].p.i -> sinevoltage1.i[1]
// aimc.rs.resistor[1].i -> sinevoltage1.i[1]
// aimc.rs.resistor[1].n.i -> -sinevoltage1.i[1]
// aimc.rs.plug_n.pin[1].i -> -sinevoltage1.i[1]
// aimc.spacePhasorS.plug_p.pin[1].i -> sinevoltage1.i[1]
// aimc.spacePhasorS.plug_n.pin[1].i -> -sinevoltage1.i[1]
// aimc.plug_sn.pin[1].i -> -sinevoltage1.i[1]
// terminalBox.plug_sn.pin[1].i -> sinevoltage1.i[1]
// terminalBox.star.plug_p.pin[1].i -> sinevoltage1.i[1]
// aimc.rs.i[1] -> sinevoltage1.i[1]
// aimc.is[1] -> sinevoltage1.i[1]
// star.plug_p.pin[1].i -> -sinevoltage1.i[1]
// sinevoltage1.plug_p.pin[2].i -> sinevoltage1.i[2]
// sinevoltage1.sineVoltage[2].p.i -> sinevoltage1.i[2]
// sinevoltage1.sineVoltage[2].i -> sinevoltage1.i[2]
// sinevoltage1.sineVoltage[2].n.i -> -sinevoltage1.i[2]
// sinevoltage1.plug_n.pin[2].i -> -sinevoltage1.i[2]
// terminalBox.plugSupply.pin[2].i -> sinevoltage1.i[2]
// terminalBox.plug_sp.pin[2].i -> -sinevoltage1.i[2]
// aimc.plug_sp.pin[2].i -> sinevoltage1.i[2]
// aimc.strayLoad.plug_p.pin[2].i -> sinevoltage1.i[2]
// aimc.strayLoad.i[2] -> sinevoltage1.i[2]
// aimc.strayLoad.plug_n.pin[2].i -> -sinevoltage1.i[2]
// aimc.rs.plug_p.pin[2].i -> sinevoltage1.i[2]
// aimc.rs.resistor[2].p.i -> sinevoltage1.i[2]
// aimc.rs.resistor[2].i -> sinevoltage1.i[2]
// aimc.rs.resistor[2].n.i -> -sinevoltage1.i[2]
// aimc.rs.plug_n.pin[2].i -> -sinevoltage1.i[2]
// aimc.spacePhasorS.plug_p.pin[2].i -> sinevoltage1.i[2]
// aimc.spacePhasorS.plug_n.pin[2].i -> -sinevoltage1.i[2]
// aimc.plug_sn.pin[2].i -> -sinevoltage1.i[2]
// terminalBox.plug_sn.pin[2].i -> sinevoltage1.i[2]
// terminalBox.star.plug_p.pin[2].i -> sinevoltage1.i[2]
// aimc.rs.i[2] -> sinevoltage1.i[2]
// aimc.is[2] -> sinevoltage1.i[2]
// star.plug_p.pin[2].i -> -sinevoltage1.i[2]
// sinevoltage1.plug_p.pin[3].i -> sinevoltage1.i[3]
// sinevoltage1.sineVoltage[3].p.i -> sinevoltage1.i[3]
// sinevoltage1.sineVoltage[3].i -> sinevoltage1.i[3]
// sinevoltage1.sineVoltage[3].n.i -> -sinevoltage1.i[3]
// sinevoltage1.plug_n.pin[3].i -> -sinevoltage1.i[3]
// terminalBox.plugSupply.pin[3].i -> sinevoltage1.i[3]
// terminalBox.plug_sp.pin[3].i -> -sinevoltage1.i[3]
// aimc.plug_sp.pin[3].i -> sinevoltage1.i[3]
// aimc.strayLoad.plug_p.pin[3].i -> sinevoltage1.i[3]
// aimc.strayLoad.i[3] -> sinevoltage1.i[3]
// aimc.strayLoad.plug_n.pin[3].i -> -sinevoltage1.i[3]
// aimc.rs.plug_p.pin[3].i -> sinevoltage1.i[3]
// aimc.rs.resistor[3].p.i -> sinevoltage1.i[3]
// aimc.rs.resistor[3].i -> sinevoltage1.i[3]
// aimc.rs.resistor[3].n.i -> -sinevoltage1.i[3]
// aimc.rs.plug_n.pin[3].i -> -sinevoltage1.i[3]
// aimc.spacePhasorS.plug_p.pin[3].i -> sinevoltage1.i[3]
// aimc.spacePhasorS.plug_n.pin[3].i -> -sinevoltage1.i[3]
// aimc.plug_sn.pin[3].i -> -sinevoltage1.i[3]
// terminalBox.plug_sn.pin[3].i -> sinevoltage1.i[3]
// terminalBox.star.plug_p.pin[3].i -> sinevoltage1.i[3]
// aimc.rs.i[3] -> sinevoltage1.i[3]
// aimc.is[3] -> sinevoltage1.i[3]
// star.plug_p.pin[3].i -> -sinevoltage1.i[3]
// star.pin_n.i -> -ground.p.i
// aimc.statorCore.spacePhasor.v_[2] -> aimc.lssigma.spacePhasor_a.v_[2]
// aimc.spacePhasorS.spacePhasor.v_[2] -> aimc.lssigma.spacePhasor_a.v_[2]
// aimc.statorCore.spacePhasor.v_[1] -> aimc.lssigma.spacePhasor_a.v_[1]
// aimc.spacePhasorS.spacePhasor.v_[1] -> aimc.lssigma.spacePhasor_a.v_[1]
// aimc.spacePhasorS.ground.v -> 0.0
// aimc.lszero.n.v -> 0.0
// aimc.spacePhasorS.zero.v -> aimc.lszero.v
// aimc.spacePhasorS.plug_p.pin[3].v -> aimc.rs.plug_n.pin[3].v
// aimc.rs.resistor[3].n.v -> aimc.rs.plug_n.pin[3].v
// aimc.spacePhasorS.plug_p.pin[2].v -> aimc.rs.plug_n.pin[2].v
// aimc.rs.resistor[2].n.v -> aimc.rs.plug_n.pin[2].v
// aimc.spacePhasorS.plug_p.pin[1].v -> aimc.rs.plug_n.pin[1].v
// aimc.rs.resistor[1].n.v -> aimc.rs.plug_n.pin[1].v
// aimc.strayLoad.plug_n.pin[3].v -> -sinevoltage1.v[3]
// aimc.rs.resistor[3].p.v -> -sinevoltage1.v[3]
// aimc.strayLoad.plug_n.pin[2].v -> -sinevoltage1.v[2]
// aimc.rs.resistor[2].p.v -> -sinevoltage1.v[2]
// aimc.strayLoad.plug_n.pin[1].v -> -sinevoltage1.v[1]
// aimc.rs.resistor[1].p.v -> -sinevoltage1.v[1]
// aimc.thermalAmbient.constTs.y -> aimc.thermalAmbient.constTs.k
// aimc.thermalAmbient.temperatureStatorWinding.T -> aimc.thermalAmbient.constTs.k
// aimc.thermalAmbient.temperatureStatorWinding.port.T -> aimc.thermalAmbient.constTs.k
// aimc.thermalAmbient.thermalCollectorStator.port_b.T -> aimc.thermalAmbient.constTs.k
// aimc.thermalAmbient.thermalCollectorStator.port_a[3].T -> aimc.thermalAmbient.constTs.k
// aimc.thermalAmbient.thermalPort.heatPortStatorWinding[3].T -> aimc.thermalAmbient.constTs.k
// aimc.internalThermalPort.heatPortStatorWinding[3].T -> aimc.thermalAmbient.constTs.k
// aimc.rs.heatPort[3].T -> aimc.thermalAmbient.constTs.k
// aimc.rs.resistor[3].heatPort.T -> aimc.thermalAmbient.constTs.k
// aimc.rs.resistor[3].T_heatPort -> aimc.thermalAmbient.constTs.k
// aimc.thermalAmbient.thermalCollectorStator.port_a[2].T -> aimc.thermalAmbient.constTs.k
// aimc.thermalAmbient.thermalPort.heatPortStatorWinding[2].T -> aimc.thermalAmbient.constTs.k
// aimc.internalThermalPort.heatPortStatorWinding[2].T -> aimc.thermalAmbient.constTs.k
// aimc.rs.heatPort[2].T -> aimc.thermalAmbient.constTs.k
// aimc.rs.resistor[2].heatPort.T -> aimc.thermalAmbient.constTs.k
// aimc.rs.resistor[2].T_heatPort -> aimc.thermalAmbient.constTs.k
// aimc.thermalAmbient.thermalCollectorStator.port_a[1].T -> aimc.thermalAmbient.constTs.k
// aimc.thermalAmbient.thermalPort.heatPortStatorWinding[1].T -> aimc.thermalAmbient.constTs.k
// aimc.internalThermalPort.heatPortStatorWinding[1].T -> aimc.thermalAmbient.constTs.k
// aimc.rs.heatPort[1].T -> aimc.thermalAmbient.constTs.k
// aimc.rs.resistor[1].heatPort.T -> aimc.thermalAmbient.constTs.k
// aimc.rs.resistor[1].T_heatPort -> aimc.thermalAmbient.constTs.k
// aimc.fixed.flange.phi -> aimc.fixed.phi0
// aimc.airGapS.support.phi -> aimc.fixed.phi0
// aimc.strayLoad.support.phi -> aimc.fixed.phi0
// aimc.internalSupport.phi -> aimc.fixed.phi0
// aimc.inertiaStator.flange_a.phi -> aimc.fixed.phi0
// aimc.inertiaStator.phi -> aimc.fixed.phi0
// aimc.inertiaStator.flange_b.phi -> aimc.fixed.phi0
// aimc.friction.support.phi -> aimc.fixed.phi0
// aimc.thermalAmbient.constTr.y -> aimc.thermalAmbient.constTr.k
// aimc.thermalAmbient.temperatureRotorWinding.T -> aimc.thermalAmbient.constTr.k
// aimc.thermalAmbient.temperatureRotorWinding.port.T -> aimc.thermalAmbient.constTr.k
// aimc.thermalAmbient.thermalPort.heatPortRotorWinding.T -> aimc.thermalAmbient.constTr.k
// aimc.internalThermalPort.heatPortRotorWinding.T -> aimc.thermalAmbient.constTr.k
// aimc.squirrelCageR.heatPort.T -> aimc.thermalAmbient.constTr.k
// aimc.squirrelCageR.T_heatPort -> aimc.thermalAmbient.constTr.k
// aimc.lssigma.spacePhasor_b.v_[2] -> aimc.airGapS.spacePhasor_s.v_[2]
// aimc.lssigma.spacePhasor_b.v_[1] -> aimc.airGapS.spacePhasor_s.v_[1]
// aimc.squirrelCageR.spacePhasor_r.v_[2] -> aimc.airGapS.spacePhasor_r.v_[2]
// aimc.squirrelCageR.spacePhasor_r.v_[1] -> aimc.airGapS.spacePhasor_r.v_[1]
// aimc.inertiaStator.flange_b.tau -> 0.0
// aimc.airGapS.i_rr[2] -> aimc.idq_rr[2]
// aimc.airGapS.spacePhasor_r.i_[2] -> aimc.idq_rr[2]
// aimc.squirrelCageR.spacePhasor_r.i_[2] -> -aimc.idq_rr[2]
// aimc.ir[2] -> aimc.idq_rr[2]
// aimc.airGapS.i_rr[1] -> aimc.idq_rr[1]
// aimc.airGapS.spacePhasor_r.i_[1] -> aimc.idq_rr[1]
// aimc.squirrelCageR.spacePhasor_r.i_[1] -> -aimc.idq_rr[1]
// aimc.ir[1] -> aimc.idq_rr[1]
// aimc.lssigma.spacePhasor_a.i_[2] -> aimc.lssigma.i_[2]
// aimc.lssigma.spacePhasor_b.i_[2] -> -aimc.lssigma.i_[2]
// aimc.airGapS.spacePhasor_s.i_[2] -> aimc.lssigma.i_[2]
// aimc.airGapS.i_ss[2] -> aimc.lssigma.i_[2]
// aimc.idq_ss[2] -> aimc.lssigma.i_[2]
// aimc.lssigma.spacePhasor_a.i_[1] -> aimc.lssigma.i_[1]
// aimc.lssigma.spacePhasor_b.i_[1] -> -aimc.lssigma.i_[1]
// aimc.airGapS.spacePhasor_s.i_[1] -> aimc.lssigma.i_[1]
// aimc.airGapS.i_ss[1] -> aimc.lssigma.i_[1]
// aimc.idq_ss[1] -> aimc.lssigma.i_[1]
// aimc.thermalAmbient.temperatureFriction.port.Q_flow -> aimc.powerBalance.lossPowerFriction
// aimc.thermalAmbient.thermalPort.heatPortFriction.Q_flow -> aimc.powerBalance.lossPowerFriction
// aimc.thermalAmbient.temperatureStrayLoad.port.Q_flow -> aimc.strayLoad.lossPower
// aimc.thermalAmbient.thermalPort.heatPortStrayLoad.Q_flow -> aimc.strayLoad.lossPower
// aimc.internalThermalPort.heatPortRotorCore.Q_flow -> 0.0
// aimc.thermalAmbient.thermalPort.heatPortRotorCore.Q_flow -> 0.0
// aimc.thermalAmbient.temperatureRotorCore.port.Q_flow -> 0.0
// aimc.thermalAmbient.Q_flowRotorCore -> 0.0
// aimc.thermalAmbient.temperatureStatorCore.port.Q_flow -> aimc.statorCore.lossPower
// aimc.thermalAmbient.thermalPort.heatPortStatorCore.Q_flow -> aimc.statorCore.lossPower
// aimc.thermalAmbient.thermalPort.heatPortStatorWinding[1].Q_flow -> aimc.rs.resistor[1].LossPower
// aimc.thermalAmbient.thermalPort.heatPortStatorWinding[2].Q_flow -> aimc.rs.resistor[2].LossPower
// aimc.thermalAmbient.thermalPort.heatPortStatorWinding[3].Q_flow -> aimc.rs.resistor[3].LossPower
// aimc.thermalAmbient.temperatureRotorWinding.port.Q_flow -> aimc.thermalAmbient.Q_flowRotorWinding
// aimc.thermalAmbient.thermalPort.heatPortRotorWinding.Q_flow -> aimc.thermalAmbient.Q_flowRotorWinding
// aimc.thermalAmbient.temperatureStatorWinding.port.Q_flow -> aimc.thermalAmbient.Q_flowStatorWinding
// aimc.thermalAmbient.thermalCollectorStator.port_b.Q_flow -> -aimc.thermalAmbient.Q_flowStatorWinding
// aimc.inertiaRotor.flange_a.tau -> aimc.tauElectrical
// aimc.airGapS.flange.tau -> -aimc.tauElectrical
// aimc.airGapS.tauElectrical -> aimc.tauElectrical
// aimc.airGapS.support.tau -> aimc.tauElectrical
// aimc.rs.resistor[1].heatPort.Q_flow -> -aimc.rs.resistor[1].LossPower
// aimc.rs.heatPort[1].Q_flow -> -aimc.rs.resistor[1].LossPower
// aimc.rs.resistor[2].heatPort.Q_flow -> -aimc.rs.resistor[2].LossPower
// aimc.rs.heatPort[2].Q_flow -> -aimc.rs.resistor[2].LossPower
// aimc.rs.resistor[3].heatPort.Q_flow -> -aimc.rs.resistor[3].LossPower
// aimc.rs.heatPort[3].Q_flow -> -aimc.rs.resistor[3].LossPower
// aimc.internalThermalPort.heatPortStatorWinding[1].Q_flow -> 0.0
// aimc.internalThermalPort.heatPortStatorWinding[2].Q_flow -> 0.0
// aimc.internalThermalPort.heatPortStatorWinding[3].Q_flow -> 0.0
// aimc.internalThermalPort.heatPortRotorWinding.Q_flow -> 0.0
// aimc.internalThermalPort.heatPortFriction.Q_flow -> 0.0
// aimc.internalThermalPort.heatPortStrayLoad.Q_flow -> 0.0
// aimc.internalThermalPort.heatPortStatorCore.Q_flow -> 0.0
// aimc.spacePhasorS.zero.i -> aimc.i_0_s
// aimc.lszero.p.i -> -aimc.i_0_s
// aimc.lszero.i -> -aimc.i_0_s
// aimc.lszero.n.i -> aimc.i_0_s
// aimc.spacePhasorS.ground.i -> -aimc.i_0_s
// aimc.internalSupport.tau -> 0.0
// terminalBox.starpoint.i -> 0.0
// terminalBox.star.pin_n.i -> 0.0
// sinevoltage1.sineVoltage[3].signalSource.y -> sinevoltage1.v[3]
// sinevoltage1.sineVoltage[2].signalSource.y -> sinevoltage1.v[2]
// sinevoltage1.sineVoltage[1].signalSource.y -> sinevoltage1.v[1]
// speedSensor.flange.tau -> 0.0
// aimc.squirrelCageR.heatPort.Q_flow -> -aimc.thermalAmbient.Q_flowRotorWinding
// aimc.powerBalance.lossPowerRotorWinding -> aimc.thermalAmbient.Q_flowRotorWinding
// aimc.airGapS.RotationMatrix[1,1] -> aimc.airGapS.RotationMatrix[2,2]
// aimc.airGapS.RotationMatrix[1,2] -> -aimc.airGapS.RotationMatrix[2,1]
// aimc.strayLoad.tau -> 0.0
// aimc.strayLoad.support.tau -> 0.0
// aimc.strayLoad.flange.tau -> -0.0
// aimc.strayLoad.v[3] -> 0.0
// aimc.strayLoad.v[2] -> 0.0
// aimc.strayLoad.v[1] -> 0.0
// aimc.strayLoad.heatPort.Q_flow -> -0.0
// aimc.powerBalance.lossPowerStrayLoad -> 0.0
// aimc.statorCore.spacePhasor.i_[2] -> 0.0
// aimc.statorCore.spacePhasor.i_[1] -> 0.0
// aimc.statorCore.heatPort.Q_flow -> -0.0
// aimc.powerBalance.lossPowerStatorCore -> 0.0
// aimc.airGapS.i_rs[2] -> aimc.idq_rs[2]
// aimc.airGapS.i_rs[1] -> aimc.idq_rs[1]
// aimc.airGapS.i_sr[2] -> aimc.idq_sr[2]
// aimc.airGapS.i_sr[1] -> aimc.idq_sr[1]
// aimc.friction.lossPower -> 0.0
// aimc.friction.heatPort.Q_flow -> -0.0
// aimc.powerBalance.lossPowerRotorCore -> 0.0
// aimc.friction.tau -> 0.0
// aimc.friction.support.tau -> 0.0
// aimc.friction.flange.tau -> -0.0
// aimc.flange.tau -> -(-const.k)
// speedSensor.w -> aimc.inertiaRotor.w
// aimc.inertiaStator.w -> 0.0
// aimc.powerBalance.lossPowerFriction -> 0.0
// aimc.thermalAmbient.Q_flowFriction -> 0.0
// aimc.lszero.p.v -> aimc.lszero.v
// aimc.statorCore.lossPower -> 0.0
// aimc.thermalAmbient.Q_flowStatorCore -> 0.0
// aimc.strayLoad.lossPower -> 0.0
// aimc.thermalAmbient.Q_flowStrayLoad -> 0.0
// aimc.plug_sp.pin[1].v -> -sinevoltage1.v[1]
// aimc.rs.plug_p.pin[1].v -> -sinevoltage1.v[1]
// sinevoltage1.sineVoltage[1].v -> sinevoltage1.v[1]
// aimc.plug_sp.pin[2].v -> -sinevoltage1.v[2]
// aimc.rs.plug_p.pin[2].v -> -sinevoltage1.v[2]
// sinevoltage1.sineVoltage[2].v -> sinevoltage1.v[2]
// aimc.plug_sp.pin[3].v -> -sinevoltage1.v[3]
// aimc.rs.plug_p.pin[3].v -> -sinevoltage1.v[3]
// sinevoltage1.sineVoltage[3].v -> sinevoltage1.v[3]
// aimc.tauShaft -> -const.k
// aimc.inertiaRotor.flange_b.tau -> const.k
// aimc.spacePhasorS.spacePhasor.i_[1] -> -aimc.lssigma.i_[1]
// aimc.spacePhasorS.spacePhasor.i_[2] -> -aimc.lssigma.i_[2]
// aimc.thermalAmbient.thermalCollectorStator.port_a[3].Q_flow -> aimc.rs.resistor[3].LossPower
// aimc.thermalAmbient.thermalCollectorStator.port_a[2].Q_flow -> aimc.rs.resistor[2].LossPower
// aimc.thermalAmbient.thermalCollectorStator.port_a[1].Q_flow -> aimc.rs.resistor[1].LossPower
// aimc.squirrelCageR.LossPower -> aimc.thermalAmbient.Q_flowRotorWinding
// aimc.powerBalance.powerInertiaStator -> 0.0
// aimc.inertiaStator.a -> 0.0
// aimc.thermalAmbient.temperatureStrayLoad.port.T -> 293.15
// aimc.thermalAmbient.thermalPort.heatPortStrayLoad.T -> 293.15
// aimc.internalThermalPort.heatPortStrayLoad.T -> 293.15
// aimc.strayLoad.heatPort.T -> 293.15
// aimc.thermalAmbient.temperatureStatorCore.port.T -> 293.15
// aimc.thermalAmbient.thermalPort.heatPortStatorCore.T -> 293.15
// aimc.internalThermalPort.heatPortStatorCore.T -> 293.15
// aimc.statorCore.heatPort.T -> 293.15
// aimc.thermalAmbient.temperatureRotorCore.port.T -> 293.15
// aimc.thermalAmbient.thermalPort.heatPortRotorCore.T -> 293.15
// aimc.internalThermalPort.heatPortRotorCore.T -> 293.15
// aimc.thermalAmbient.temperatureFriction.port.T -> 293.15
// aimc.thermalAmbient.thermalPort.heatPortFriction.T -> 293.15
// aimc.friction.heatPort.T -> 293.15
// aimc.internalThermalPort.heatPortFriction.T -> 293.15
// torque.phi_support -> 0.0
// aimc.statorCore.Gc -> 0.0
// aimc.statorCore.w -> aimc.statorCoreParameters.wRef
//
// ExtendReplacements: (161)
// ========================================
// const -> 0.0
// torque -> 0.0
// torque.flange -> 0.0
// aimc -> 0.0
// aimc.flange -> 0.0
// aimc.strayLoad -> 0.0
// aimc.strayLoad.flange -> 0.0
// aimc.inertiaRotor -> 0.0
// aimc.inertiaRotor.flange_b -> 0.0
// aimc.inertiaRotor.flange_a -> 0.0
// aimc.airGapS -> 0.0
// aimc.airGapS.flange -> 0.0
// aimc.friction -> 0.0
// aimc.friction.flange -> 0.0
// ground -> 0.0
// ground.p -> 0.0
// star -> 0.0
// star.pin_n -> 0.0
// star.plug_p -> 0.0
// star.plug_p.pin -> 0.0
// sinevoltage1 -> 0.0
// sinevoltage1.plug_p -> 0.0
// sinevoltage1.plug_p.pin -> 0.0
// sinevoltage1.sineVoltage -> 0.0
// sinevoltage1.sineVoltage[3].p -> 0.0
// sinevoltage1.sineVoltage[2].p -> 0.0
// sinevoltage1.sineVoltage[1].p -> 0.0
// terminalBox -> 0.0
// terminalBox.plug_sp -> 0.0
// terminalBox.plug_sp.pin -> 0.0
// terminalBox.plugSupply -> 0.0
// terminalBox.plugSupply.pin -> 0.0
// sinevoltage1.plug_n -> 0.0
// sinevoltage1.plug_n.pin -> 0.0
// sinevoltage1.sineVoltage[3].n -> 0.0
// aimc.strayLoad.plug_p -> 0.0
// aimc.strayLoad.plug_p.pin -> 0.0
// sinevoltage1.sineVoltage[2].n -> 0.0
// sinevoltage1.sineVoltage[1].n -> 0.0
// terminalBox.plug_sn -> 0.0
// terminalBox.plug_sn.pin -> 0.0
// terminalBox.star -> 0.0
// terminalBox.star.plug_p -> 0.0
// terminalBox.star.plug_p.pin -> 0.0
// terminalBox.star.pin_n -> 0.0
// terminalBox.starpoint -> 0.0
// aimc.plug_sn -> 0.0
// aimc.plug_sn.pin -> 0.0
// aimc.spacePhasorS -> 0.0
// aimc.spacePhasorS.plug_n -> 0.0
// aimc.spacePhasorS.plug_n.pin -> 0.0
// aimc.plug_sp -> 0.0
// aimc.plug_sp.pin -> 0.0
// aimc.strayLoad.i -> 0.0
// aimc.strayLoad.plug_n -> 0.0
// aimc.strayLoad.plug_n.pin -> 0.0
// aimc.rs -> 0.0
// aimc.rs.plug_p -> 0.0
// aimc.rs.plug_p.pin -> 0.0
// aimc.rs.resistor -> 0.0
// aimc.rs.resistor[1].p -> 0.0
// aimc.rs.resistor[1].n -> 0.0
// aimc.rs.plug_n -> 0.0
// aimc.rs.plug_n.pin -> 0.0
// aimc.spacePhasorS.plug_p -> 0.0
// aimc.spacePhasorS.plug_p.pin -> 0.0
// aimc.rs.i -> 0.0
// aimc.is -> 0.0
// aimc.rs.resistor[2].p -> 0.0
// aimc.rs.resistor[2].n -> 0.0
// aimc.rs.resistor[3].p -> 0.0
// aimc.rs.resistor[3].n -> 0.0
// aimc.statorCore -> 0.0
// aimc.statorCore.spacePhasor -> 0.0
// aimc.statorCore.spacePhasor.v_ -> 0.0
// aimc.spacePhasorS.spacePhasor -> 0.0
// aimc.spacePhasorS.spacePhasor.v_ -> 0.0
// aimc.spacePhasorS.ground -> 0.0
// aimc.lszero -> 0.0
// aimc.lszero.n -> 0.0
// aimc.spacePhasorS.zero -> 0.0
// aimc.thermalAmbient -> 0.0
// aimc.thermalAmbient.constTs -> 0.0
// aimc.thermalAmbient.temperatureStatorWinding -> 0.0
// aimc.thermalAmbient.temperatureStatorWinding.port -> 0.0
// aimc.thermalAmbient.thermalCollectorStator -> 0.0
// aimc.thermalAmbient.thermalCollectorStator.port_b -> 0.0
// aimc.thermalAmbient.thermalCollectorStator.port_a -> 0.0
// aimc.thermalAmbient.thermalPort -> 0.0
// aimc.thermalAmbient.thermalPort.heatPortStatorWinding -> 0.0
// aimc.internalThermalPort -> 0.0
// aimc.internalThermalPort.heatPortStatorWinding -> 0.0
// aimc.rs.heatPort -> 0.0
// aimc.rs.resistor[3].heatPort -> 0.0
// aimc.rs.resistor[2].heatPort -> 0.0
// aimc.rs.resistor[1].heatPort -> 0.0
// aimc.fixed -> 0.0
// aimc.fixed.flange -> 0.0
// aimc.airGapS.support -> 0.0
// aimc.strayLoad.support -> 0.0
// aimc.internalSupport -> 0.0
// aimc.inertiaStator -> 0.0
// aimc.inertiaStator.flange_a -> 0.0
// aimc.inertiaStator.flange_b -> 0.0
// aimc.friction.support -> 0.0
// aimc.thermalAmbient.constTr -> 0.0
// aimc.thermalAmbient.temperatureRotorWinding -> 0.0
// aimc.thermalAmbient.temperatureRotorWinding.port -> 0.0
// aimc.thermalAmbient.thermalPort.heatPortRotorWinding -> 0.0
// aimc.internalThermalPort.heatPortRotorWinding -> 0.0
// aimc.squirrelCageR -> 0.0
// aimc.squirrelCageR.heatPort -> 0.0
// aimc.lssigma -> 0.0
// aimc.lssigma.spacePhasor_b -> 0.0
// aimc.lssigma.spacePhasor_b.v_ -> 0.0
// aimc.squirrelCageR.spacePhasor_r -> 0.0
// aimc.squirrelCageR.spacePhasor_r.v_ -> 0.0
// aimc.airGapS.i_rr -> 0.0
// aimc.airGapS.spacePhasor_r -> 0.0
// aimc.airGapS.spacePhasor_r.i_ -> 0.0
// aimc.squirrelCageR.spacePhasor_r.i_ -> 0.0
// aimc.ir -> 0.0
// aimc.lssigma.spacePhasor_a -> 0.0
// aimc.lssigma.spacePhasor_a.i_ -> 0.0
// aimc.lssigma.spacePhasor_b.i_ -> 0.0
// aimc.airGapS.spacePhasor_s -> 0.0
// aimc.airGapS.spacePhasor_s.i_ -> 0.0
// aimc.airGapS.i_ss -> 0.0
// aimc.idq_ss -> 0.0
// aimc.thermalAmbient.temperatureFriction -> 0.0
// aimc.thermalAmbient.temperatureFriction.port -> 0.0
// aimc.thermalAmbient.thermalPort.heatPortFriction -> 0.0
// aimc.thermalAmbient.temperatureStrayLoad -> 0.0
// aimc.thermalAmbient.temperatureStrayLoad.port -> 0.0
// aimc.thermalAmbient.thermalPort.heatPortStrayLoad -> 0.0
// aimc.internalThermalPort.heatPortRotorCore -> 0.0
// aimc.thermalAmbient.thermalPort.heatPortRotorCore -> 0.0
// aimc.thermalAmbient.temperatureRotorCore -> 0.0
// aimc.thermalAmbient.temperatureRotorCore.port -> 0.0
// aimc.thermalAmbient.temperatureStatorCore -> 0.0
// aimc.thermalAmbient.temperatureStatorCore.port -> 0.0
// aimc.thermalAmbient.thermalPort.heatPortStatorCore -> 0.0
// aimc.internalThermalPort.heatPortFriction -> 0.0
// aimc.internalThermalPort.heatPortStrayLoad -> 0.0
// aimc.internalThermalPort.heatPortStatorCore -> 0.0
// aimc.lszero.p -> 0.0
// sinevoltage1.sineVoltage[3].signalSource -> 0.0
// sinevoltage1.sineVoltage[2].signalSource -> 0.0
// sinevoltage1.sineVoltage[1].signalSource -> 0.0
// speedSensor -> 0.0
// speedSensor.flange -> 0.0
// aimc.powerBalance -> 0.0
// aimc.airGapS.RotationMatrix -> 0.0
// aimc.strayLoad.v -> 0.0
// aimc.strayLoad.heatPort -> 0.0
// aimc.statorCore.spacePhasor.i_ -> 0.0
// aimc.statorCore.heatPort -> 0.0
// aimc.airGapS.i_rs -> 0.0
// aimc.airGapS.i_sr -> 0.0
// aimc.friction.heatPort -> 0.0
// aimc.spacePhasorS.spacePhasor.i_ -> 0.0
//
// DerConstReplacements: (3)
// ========================================
// aimc.inertiaRotor.phi -> speedSensor.w
// aimc.inertiaStator.phi -> 0.0
// aimc.inertiaStator.w -> 0.0
//
// Unreplaceable Crefs: (2)
// ========================================
// $res_LSJac0_2.$pDERLSJac0.dummyVarLSJac0
// $res_LSJac0_1.$pDERLSJac0.dummyVarLSJac0
//
// Unreplaceable Crefs: (5)
// ========================================
// $res_LSJac1_5.$pDERLSJac1.dummyVarLSJac1
// $res_LSJac1_4.$pDERLSJac1.dummyVarLSJac1
// $res_LSJac1_3.$pDERLSJac1.dummyVarLSJac1
// $res_LSJac1_2.$pDERLSJac1.dummyVarLSJac1
// $res_LSJac1_1.$pDERLSJac1.dummyVarLSJac1
//
// Unreplaceable Crefs: (1)
// ========================================
// $cse1
//
// Replacements: (16)
// ========================================
// aimc.airGapS.RotationMatrix[2,1] -> $cse1
// aimc.strayLoad.w -> aimc.inertiaRotor.w
// $DER.aimc.strayLoad.phi -> aimc.inertiaRotor.w
// aimc.rs.resistor[3].v -> aimc.rs.v[3]
// aimc.rs.resistor[2].v -> aimc.rs.v[2]
// aimc.rs.resistor[1].v -> aimc.rs.v[1]
// aimc.friction.w -> aimc.inertiaRotor.w
// $DER.aimc.friction.phi -> aimc.inertiaRotor.w
// aimc.inertiaStator.flange_a.tau -> 0.0
// aimc.fixed.flange.tau -> -aimc.tauElectrical
// aimc.wMechanical -> aimc.inertiaRotor.w
// $DER.aimc.phiMechanical -> aimc.inertiaRotor.w
// $DER.aimc.airGapS.psi_mr[1] -> aimc.airGapS.spacePhasor_r.v_[1]
// $DER.aimc.airGapS.psi_ms[2] -> aimc.airGapS.spacePhasor_s.v_[2]
// $DER.aimc.airGapS.psi_ms[1] -> aimc.airGapS.spacePhasor_s.v_[1]
// $DER.aimc.airGapS.psi_mr[2] -> aimc.airGapS.spacePhasor_r.v_[2]
//
// ExtendReplacements: (18)
// ========================================
// aimc -> 0.0
// aimc.airGapS -> 0.0
// aimc.airGapS.RotationMatrix -> 0.0
// aimc.strayLoad -> 0.0
// $DER -> 0.0
// $DER.aimc -> 0.0
// $DER.aimc.strayLoad -> 0.0
// aimc.rs -> 0.0
// aimc.rs.resistor -> 0.0
// aimc.friction -> 0.0
// $DER.aimc.friction -> 0.0
// aimc.inertiaStator -> 0.0
// aimc.inertiaStator.flange_a -> 0.0
// aimc.fixed -> 0.0
// aimc.fixed.flange -> 0.0
// $DER.aimc.airGapS -> 0.0
// $DER.aimc.airGapS.psi_mr -> 0.0
// $DER.aimc.airGapS.psi_ms -> 0.0
//
// Unreplaceable Crefs: (2)
// ========================================
// $res_LSJac2_2.$pDERLSJac2.dummyVarLSJac2
// $res_LSJac2_1.$pDERLSJac2.dummyVarLSJac2
//
// Unreplaceable Crefs: (7)
// ========================================
// $res_LSJac3_7.$pDERLSJac3.dummyVarLSJac3
// $res_LSJac3_6.$pDERLSJac3.dummyVarLSJac3
// $res_LSJac3_5.$pDERLSJac3.dummyVarLSJac3
// $res_LSJac3_4.$pDERLSJac3.dummyVarLSJac3
// $res_LSJac3_3.$pDERLSJac3.dummyVarLSJac3
// $res_LSJac3_2.$pDERLSJac3.dummyVarLSJac3
// $res_LSJac3_1.$pDERLSJac3.dummyVarLSJac3
//
// ########################################
// dumpindxdae
// ########################################
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: aimc.inertiaStator.flange_a.tau:VARIABLE(flow=true unit = "N.m" ) "Cut torque in the flange" type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): aimc.inertiaStator.flange_a.tau = 0.0 [binding |0|0|0|0|]
//
//
// Matching
// ========================================
// 1 variables and equations
// var 1 is solved in eqn 1
//
//
// StrongComponents
// ========================================
// {1:1}
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: $DER.aimc.phiMechanical:DUMMY_DER(fixed = false ) "Mechanical angle of rotor against stator" type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): $DER.aimc.phiMechanical = aimc.inertiaRotor.w [binding |0|0|0|0|]
//
//
// Matching
// ========================================
// 1 variables and equations
// var 1 is solved in eqn 1
//
//
// StrongComponents
// ========================================
// {1:1}
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: aimc.wMechanical:VARIABLE(start = 0.0 unit = "rad/s" fixed = false ) "Mechanical angular velocity of rotor against stator" type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): aimc.wMechanical = aimc.inertiaRotor.w [binding |0|0|0|0|]
//
//
// Matching
// ========================================
// 1 variables and equations
// var 1 is solved in eqn 1
//
//
// StrongComponents
// ========================================
// {1:1}
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: $DER.aimc.friction.phi:DUMMY_DER(fixed = false ) "Angle between shaft and support" type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): $DER.aimc.friction.phi = aimc.inertiaRotor.w [binding |0|0|0|0|]
//
//
// Matching
// ========================================
// 1 variables and equations
// var 1 is solved in eqn 1
//
//
// StrongComponents
// ========================================
// {1:1}
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: aimc.friction.w:VARIABLE(unit = "rad/s" fixed = false ) "Relative angular velocity of flange and support" type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): aimc.friction.w = aimc.inertiaRotor.w [binding |0|0|0|0|]
//
//
// Matching
// ========================================
// 1 variables and equations
// var 1 is solved in eqn 1
//
//
// StrongComponents
// ========================================
// {1:1}
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: $DER.aimc.strayLoad.phi:DUMMY_DER(fixed = false ) "Angle between shaft and support" type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): $DER.aimc.strayLoad.phi = aimc.inertiaRotor.w [binding |0|0|0|0|]
//
//
// Matching
// ========================================
// 1 variables and equations
// var 1 is solved in eqn 1
//
//
// StrongComponents
// ========================================
// {1:1}
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: aimc.strayLoad.w:VARIABLE(unit = "rad/s" fixed = false ) "Relative angular velocity of flange and support" type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): aimc.strayLoad.w = aimc.inertiaRotor.w [binding |0|0|0|0|]
//
//
// Matching
// ========================================
// 1 variables and equations
// var 1 is solved in eqn 1
//
//
// StrongComponents
// ========================================
// {1:1}
//
//
// unspecified partition
// ========================================
//
// Variables (94)
// ========================================
// 1: sinevoltage1.i[3]:DUMMY_STATE(unit = "A" stateSelect=StateSelect.never ) "Currents flowing into positive plugs" type: Real [3]
// 2: sinevoltage1.i[2]:DUMMY_STATE(unit = "A" stateSelect=StateSelect.never ) "Currents flowing into positive plugs" type: Real [3]
// 3: sinevoltage1.i[1]:DUMMY_STATE(unit = "A" stateSelect=StateSelect.never ) "Currents flowing into positive plugs" type: Real [3]
// 4: sinevoltage1.v[3]:VARIABLE(unit = "V" ) "Voltage drops between the two plugs" type: Real [3]
// 5: sinevoltage1.v[2]:VARIABLE(unit = "V" ) "Voltage drops between the two plugs" type: Real [3]
// 6: sinevoltage1.v[1]:VARIABLE(unit = "V" ) "Voltage drops between the two plugs" type: Real [3]
// 7: speedSensor.flange.phi:STATE(1,aimc.inertiaRotor.w)(flow=false unit = "rad" fixed = true ) "Absolute rotation angle of flange" type: Real
// 8: ground.p.i:VARIABLE(flow=true unit = "A" ) "Current flowing into the pin" type: Real
// 9: aimc.thermalAmbient.Q_flowTotal:VARIABLE(unit = "W" final = true ) type: Real
// 10: aimc.thermalAmbient.Q_flowRotorWinding:VARIABLE(unit = "W" final = true ) "Heat flow rate of rotor (squirrel cage)" type: Real
// 11: aimc.thermalAmbient.Q_flowStatorWinding:VARIABLE(unit = "W" final = true ) "Heat flow rate of stator windings" type: Real
// 12: aimc.airGapS.i_ms[2]:DUMMY_STATE(unit = "A" stateSelect=StateSelect.never ) "Magnetizing current space phasor with respect to the stator fixed frame" type: Real [2]
// 13: aimc.airGapS.i_ms[1]:DUMMY_STATE(unit = "A" stateSelect=StateSelect.never ) "Magnetizing current space phasor with respect to the stator fixed frame" type: Real [2]
// 14: aimc.airGapS.spacePhasor_r.v_[2]:VARIABLE(flow=false unit = "V" ) "1=real, 2=imaginary part" type: Real [2]
// 15: aimc.airGapS.spacePhasor_r.v_[1]:VARIABLE(flow=false unit = "V" ) "1=real, 2=imaginary part" type: Real [2]
// 16: aimc.airGapS.spacePhasor_s.v_[2]:VARIABLE(flow=false unit = "V" ) "1=real, 2=imaginary part" type: Real [2]
// 17: aimc.airGapS.spacePhasor_s.v_[1]:VARIABLE(flow=false unit = "V" ) "1=real, 2=imaginary part" type: Real [2]
// 18: aimc.airGapS.RotationMatrix[2,2]:DUMMY_STATE(stateSelect=StateSelect.never ) "Matrix of rotation from rotor to stator" type: Real [2,2]
// 19: aimc.airGapS.psi_mr[2]:DUMMY_STATE(unit = "Wb" ) "Magnetizing flux phasor with respect to the rotor fixed frame" type: Real [2]
// 20: aimc.airGapS.psi_mr[1]:DUMMY_STATE(unit = "Wb" ) "Magnetizing flux phasor with respect to the rotor fixed frame" type: Real [2]
// 21: aimc.airGapS.psi_ms[2]:DUMMY_STATE(unit = "Wb" ) "Magnetizing flux phasor with respect to the stator fixed frame" type: Real [2]
// 22: aimc.airGapS.psi_ms[1]:DUMMY_STATE(unit = "Wb" ) "Magnetizing flux phasor with respect to the stator fixed frame" type: Real [2]
// 23: aimc.airGapS.gamma:DUMMY_STATE(unit = "rad" stateSelect=StateSelect.never ) "Rotor displacement angle" type: Real
// 24: aimc.strayLoad.iRMS:VARIABLE(unit = "A" ) type: Real
// 25: aimc.strayLoad.phi:DUMMY_STATE(unit = "rad" ) "Angle between shaft and support" type: Real
// 26: aimc.spacePhasorS.i[3]:DUMMY_STATE(unit = "A" stateSelect=StateSelect.never ) "Instantaneous phase currents" type: Real [3]
// 27: aimc.spacePhasorS.i[2]:DUMMY_STATE(unit = "A" stateSelect=StateSelect.never ) "Instantaneous phase currents" type: Real [3]
// 28: aimc.spacePhasorS.i[1]:DUMMY_STATE(unit = "A" stateSelect=StateSelect.never ) "Instantaneous phase currents" type: Real [3]
// 29: aimc.spacePhasorS.v[3]:VARIABLE(unit = "V" ) "Instantaneous phase voltages" type: Real [3]
// 30: aimc.spacePhasorS.v[2]:VARIABLE(unit = "V" ) "Instantaneous phase voltages" type: Real [3]
// 31: aimc.spacePhasorS.v[1]:VARIABLE(unit = "V" ) "Instantaneous phase voltages" type: Real [3]
// 32: aimc.lszero.v:VARIABLE(unit = "V" ) "Voltage drop between the two pins (= p.v - n.v)" type: Real
// 33: aimc.lssigma.spacePhasor_a.v_[2]:VARIABLE(flow=false unit = "V" ) "1=real, 2=imaginary part" type: Real [2]
// 34: aimc.lssigma.spacePhasor_a.v_[1]:VARIABLE(flow=false unit = "V" ) "1=real, 2=imaginary part" type: Real [2]
// 35: aimc.lssigma.i_[2]:DUMMY_STATE(unit = "A" ) type: Real [2]
// 36: aimc.lssigma.i_[1]:DUMMY_STATE(unit = "A" ) type: Real [2]
// 37: aimc.lssigma.v_[2]:VARIABLE(unit = "V" ) type: Real [2]
// 38: aimc.lssigma.v_[1]:VARIABLE(unit = "V" ) type: Real [2]
// 39: aimc.rs.resistor[3].LossPower:VARIABLE(unit = "W" ) "Loss power leaving component via HeatPort" type: Real [3]
// 40: aimc.rs.resistor[2].LossPower:VARIABLE(unit = "W" ) "Loss power leaving component via HeatPort" type: Real [3]
// 41: aimc.rs.resistor[1].LossPower:VARIABLE(unit = "W" ) "Loss power leaving component via HeatPort" type: Real [3]
// 42: aimc.rs.plug_n.pin[3].v:VARIABLE(flow=false unit = "V" ) "Potential at the pin" type: Real [3]
// 43: aimc.rs.plug_n.pin[2].v:VARIABLE(flow=false unit = "V" ) "Potential at the pin" type: Real [3]
// 44: aimc.rs.plug_n.pin[1].v:VARIABLE(flow=false unit = "V" ) "Potential at the pin" type: Real [3]
// 45: aimc.rs.v[3]:VARIABLE(unit = "V" ) "Voltage drops between the two plugs" type: Real [3]
// 46: aimc.rs.v[2]:VARIABLE(unit = "V" ) "Voltage drops between the two plugs" type: Real [3]
// 47: aimc.rs.v[1]:VARIABLE(unit = "V" ) "Voltage drops between the two plugs" type: Real [3]
// 48: aimc.plug_sn.pin[3].v:VARIABLE(flow=false unit = "V" ) "Potential at the pin" type: Real [3]
// 49: aimc.idq_rr[2]:STATE(1)(unit = "A" fixed = true stateSelect=StateSelect.prefer ) "Rotor space phasor current / rotor fixed frame" type: Real [2]
// 50: aimc.idq_rr[1]:STATE(1)(unit = "A" fixed = true stateSelect=StateSelect.prefer ) "Rotor space phasor current / rotor fixed frame" type: Real [2]
// 51: aimc.idq_rs[2]:DUMMY_STATE(unit = "A" stateSelect=StateSelect.never ) "Rotor space phasor current / stator fixed frame" type: Real [2]
// 52: aimc.idq_rs[1]:DUMMY_STATE(unit = "A" stateSelect=StateSelect.never ) "Rotor space phasor current / stator fixed frame" type: Real [2]
// 53: aimc.idq_sr[2]:STATE(1)(unit = "A" fixed = true stateSelect=StateSelect.prefer ) "Stator space phasor current / rotor fixed frame" type: Real [2]
// 54: aimc.idq_sr[1]:STATE(1)(unit = "A" fixed = true stateSelect=StateSelect.prefer ) "Stator space phasor current / rotor fixed frame" type: Real [2]
// 55: aimc.i_0_s:DUMMY_STATE(start = 0.0 unit = "A" stateSelect=StateSelect.prefer ) "Stator zero-sequence current" type: Real
// 56: aimc.vs[3]:VARIABLE(unit = "V" ) "Stator instantaneous voltages" type: Real [3]
// 57: aimc.vs[2]:VARIABLE(unit = "V" ) "Stator instantaneous voltages" type: Real [3]
// 58: aimc.vs[1]:VARIABLE(unit = "V" ) "Stator instantaneous voltages" type: Real [3]
// 59: aimc.powerBalance.lossPowerStatorWinding:VARIABLE(unit = "W" final = true ) "Stator copper losses" type: Real
// 60: aimc.powerBalance.lossPowerTotal:VARIABLE(unit = "W" final = true ) "Total loss power" type: Real
// 61: aimc.powerBalance.powerInertiaRotor:VARIABLE(unit = "W" final = true ) "Rotor inertia power" type: Real
// 62: aimc.powerBalance.powerMechanical:VARIABLE(unit = "W" final = true ) "Mechanical power" type: Real
// 63: aimc.powerBalance.powerStator:VARIABLE(unit = "W" final = true ) "Electrical power (stator)" type: Real
// 64: aimc.friction.phi:DUMMY_STATE(unit = "rad" ) "Angle between shaft and support" type: Real
// 65: aimc.inertiaRotor.a:VARIABLE(unit = "rad/s2" ) "Absolute angular acceleration of component (= der(w))" type: Real
// 66: aimc.inertiaRotor.w:STATE(1,aimc.inertiaRotor.a)(unit = "rad/s" fixed = true ) "Absolute angular velocity of component (= der(phi))" type: Real
// 67: aimc.tauElectrical:VARIABLE(unit = "N.m" ) "Electromagnetic torque" type: Real
// 68: aimc.phiMechanical:DUMMY_STATE(start = 0.0 unit = "rad" ) "Mechanical angle of rotor against stator" type: Real
// 69: $DER.aimc.airGapS.gamma:DUMMY_DER(fixed = false ) "Rotor displacement angle" type: Real
// 70: $DER.aimc.airGapS.RotationMatrix[2,1]:DUMMY_DER(fixed = false ) "Matrix of rotation from rotor to stator" type: Real [2,2]
// 71: $DER.aimc.airGapS.RotationMatrix[2,2]:DUMMY_DER(fixed = false ) "Matrix of rotation from rotor to stator" type: Real [2,2]
// 72: $DER.aimc.idq_rs[1]:DUMMY_DER(fixed = false ) "Rotor space phasor current / stator fixed frame" type: Real [2]
// 73: $DER.aimc.idq_rs[2]:DUMMY_DER(fixed = false ) "Rotor space phasor current / stator fixed frame" type: Real [2]
// 74: $DER.aimc.airGapS.i_ms[1]:DUMMY_DER(fixed = false ) "Magnetizing current space phasor with respect to the stator fixed frame" type: Real [2]
// 75: $DER.aimc.airGapS.i_ms[2]:DUMMY_DER(fixed = false ) "Magnetizing current space phasor with respect to the stator fixed frame" type: Real [2]
// 76: $DER.sinevoltage1.i[1]:DUMMY_DER(fixed = false ) "Currents flowing into positive plugs" type: Real [3]
// 77: $DER.sinevoltage1.i[2]:DUMMY_DER(fixed = false ) "Currents flowing into positive plugs" type: Real [3]
// 78: $DER.sinevoltage1.i[3]:DUMMY_DER(fixed = false ) "Currents flowing into positive plugs" type: Real [3]
// 79: $DER.aimc.spacePhasorS.i[1]:DUMMY_DER(fixed = false ) "Instantaneous phase currents" type: Real [3]
// 80: $DER.aimc.spacePhasorS.i[2]:DUMMY_DER(fixed = false ) "Instantaneous phase currents" type: Real [3]
// 81: $DER.aimc.spacePhasorS.i[3]:DUMMY_DER(fixed = false ) "Instantaneous phase currents" type: Real [3]
// 82: $DER.aimc.lssigma.i_[1]:DUMMY_DER(fixed = false ) type: Real [2]
// 83: $DER.aimc.lssigma.i_[2]:DUMMY_DER(fixed = false ) type: Real [2]
// 84: $DER.aimc.i_0_s:DUMMY_DER(fixed = false ) "Stator zero-sequence current" type: Real
// 85: $cse1:VARIABLE(protected = true ) type: Real unreplaceable
// 86: aimc.airGapS.RotationMatrix[2,1]:DUMMY_STATE(fixed = false stateSelect=StateSelect.never ) "Matrix of rotation from rotor to stator" type: Real [2,2]
// 87: aimc.rs.resistor[3].v:VARIABLE(unit = "V" fixed = false ) "Voltage drop between the two pins (= p.v - n.v)" type: Real [3]
// 88: aimc.rs.resistor[2].v:VARIABLE(unit = "V" fixed = false ) "Voltage drop between the two pins (= p.v - n.v)" type: Real [3]
// 89: aimc.rs.resistor[1].v:VARIABLE(unit = "V" fixed = false ) "Voltage drop between the two pins (= p.v - n.v)" type: Real [3]
// 90: aimc.fixed.flange.tau:VARIABLE(flow=true unit = "N.m" fixed = false ) "Cut torque in the flange" type: Real
// 91: $DER.aimc.airGapS.psi_mr[1]:DUMMY_DER(fixed = false ) "Magnetizing flux phasor with respect to the rotor fixed frame" type: Real [2]
// 92: $DER.aimc.airGapS.psi_ms[2]:DUMMY_DER(fixed = false ) "Magnetizing flux phasor with respect to the stator fixed frame" type: Real [2]
// 93: $DER.aimc.airGapS.psi_ms[1]:DUMMY_DER(fixed = false ) "Magnetizing flux phasor with respect to the stator fixed frame" type: Real [2]
// 94: $DER.aimc.airGapS.psi_mr[2]:DUMMY_DER(fixed = false ) "Magnetizing flux phasor with respect to the rotor fixed frame" type: Real [2]
//
//
// Equations (94, 94)
// ========================================
// 1/1 (1): aimc.phiMechanical = speedSensor.flange.phi - aimc.fixed.phi0 [binding |0|0|0|0|]
// 2/2 (1): aimc.friction.phi = speedSensor.flange.phi - aimc.fixed.phi0 [dynamic |0|0|0|0|]
// 3/3 (1): aimc.strayLoad.phi = speedSensor.flange.phi - aimc.fixed.phi0 [dynamic |0|0|0|0|]
// 4/4 (1): aimc.airGapS.gamma = /*Real*/(aimc.airGapS.p) * (speedSensor.flange.phi - aimc.fixed.phi0) [dynamic |0|0|0|0|]
// 5/5 (1): aimc.airGapS.RotationMatrix[2,2] = cos(aimc.airGapS.gamma) [unknown |0|0|0|0|]
// 6/6 (1): $cse1 = sin(aimc.airGapS.gamma) [unknown |0|0|0|0|]
// 7/7 (1): aimc.lssigma.i_[1] = aimc.airGapS.RotationMatrix[2,2] * aimc.idq_sr[1] - $cse1 * aimc.idq_sr[2] [dynamic |0|0|0|0|]
// 8/8 (1): aimc.lssigma.i_[2] = $cse1 * aimc.idq_sr[1] + aimc.airGapS.RotationMatrix[2,2] * aimc.idq_sr[2] [dynamic |0|0|0|0|]
// 9/9 (1): aimc.lssigma.i_[2] = aimc.spacePhasorS.TransformationMatrix[2,1] * aimc.spacePhasorS.i[1] + aimc.spacePhasorS.TransformationMatrix[2,2] * aimc.spacePhasorS.i[2] + aimc.spacePhasorS.TransformationMatrix[2,3] * aimc.spacePhasorS.i[3] [dynamic |0|0|0|0|]
// 10/10 (1): aimc.spacePhasorS.i[3] * aimc.spacePhasorS.turnsRatio = sinevoltage1.i[3] [dynamic |0|0|0|0|]
// 11/11 (1): sinevoltage1.i[1] + sinevoltage1.i[2] + sinevoltage1.i[3] = 0.0 [dynamic |0|0|0|0|]
// 12/12 (1): aimc.spacePhasorS.i[2] * aimc.spacePhasorS.turnsRatio = sinevoltage1.i[2] [dynamic |0|0|0|0|]
// 13/13 (1): aimc.lssigma.i_[1] = aimc.spacePhasorS.TransformationMatrix[1,1] * aimc.spacePhasorS.i[1] + aimc.spacePhasorS.TransformationMatrix[1,2] * aimc.spacePhasorS.i[2] + aimc.spacePhasorS.TransformationMatrix[1,3] * aimc.spacePhasorS.i[3] [dynamic |0|0|0|0|]
// 14/14 (1): aimc.spacePhasorS.i[1] * aimc.spacePhasorS.turnsRatio = sinevoltage1.i[1] [dynamic |0|0|0|0|]
// 15/15 (1): aimc.i_0_s = (aimc.spacePhasorS.i[1] + aimc.spacePhasorS.i[2] + aimc.spacePhasorS.i[3]) / (-3.0) [dynamic |0|0|0|0|]
// 16/16 (1): aimc.idq_rs[1] = aimc.airGapS.RotationMatrix[2,2] * aimc.idq_rr[1] - $cse1 * aimc.idq_rr[2] [dynamic |0|0|0|0|]
// 17/17 (1): aimc.airGapS.i_ms[1] = aimc.lssigma.i_[1] + aimc.idq_rs[1] [dynamic |0|0|0|0|]
// 18/18 (1): aimc.idq_rs[2] = $cse1 * aimc.idq_rr[1] + aimc.airGapS.RotationMatrix[2,2] * aimc.idq_rr[2] [dynamic |0|0|0|0|]
// 19/19 (1): aimc.airGapS.i_ms[2] = aimc.lssigma.i_[2] + aimc.idq_rs[2] [dynamic |0|0|0|0|]
// 20/20 (1): aimc.airGapS.psi_ms[2] = aimc.airGapS.L[2,1] * aimc.airGapS.i_ms[1] + aimc.airGapS.L[2,2] * aimc.airGapS.i_ms[2] [dynamic |0|0|0|0|]
// 21/21 (1): aimc.airGapS.psi_ms[1] = aimc.airGapS.L[1,1] * aimc.airGapS.i_ms[1] + aimc.airGapS.L[1,2] * aimc.airGapS.i_ms[2] [dynamic |0|0|0|0|]
// 22/22 (1): aimc.airGapS.psi_mr[2] = aimc.airGapS.RotationMatrix[2,2] * aimc.airGapS.psi_ms[2] - $cse1 * aimc.airGapS.psi_ms[1] [dynamic |0|0|0|0|]
// 23/23 (1): aimc.airGapS.psi_mr[1] = aimc.airGapS.RotationMatrix[2,2] * aimc.airGapS.psi_ms[1] + $cse1 * aimc.airGapS.psi_ms[2] [dynamic |0|0|0|0|]
// 24/24 (1): sinevoltage1.v[3] = sinevoltage1.sineVoltage[3].signalSource.offset + (if time < sinevoltage1.sineVoltage[3].signalSource.startTime then 0.0 else sinevoltage1.sineVoltage[3].signalSource.amplitude * sin(6.283185307179586 * sinevoltage1.sineVoltage[3].signalSource.freqHz * (time - sinevoltage1.sineVoltage[3].signalSource.startTime) + sinevoltage1.sineVoltage[3].signalSource.phase)) [dynamic |0|0|0|0|]
// 25/25 (1): sinevoltage1.v[2] = sinevoltage1.sineVoltage[2].signalSource.offset + (if time < sinevoltage1.sineVoltage[2].signalSource.startTime then 0.0 else sinevoltage1.sineVoltage[2].signalSource.amplitude * sin(6.283185307179586 * sinevoltage1.sineVoltage[2].signalSource.freqHz * (time - sinevoltage1.sineVoltage[2].signalSource.startTime) + sinevoltage1.sineVoltage[2].signalSource.phase)) [dynamic |0|0|0|0|]
// 26/26 (1): sinevoltage1.v[1] = sinevoltage1.sineVoltage[1].signalSource.offset + (if time < sinevoltage1.sineVoltage[1].signalSource.startTime then 0.0 else sinevoltage1.sineVoltage[1].signalSource.amplitude * sin(6.283185307179586 * sinevoltage1.sineVoltage[1].signalSource.freqHz * (time - sinevoltage1.sineVoltage[1].signalSource.startTime) + sinevoltage1.sineVoltage[1].signalSource.phase)) [dynamic |0|0|0|0|]
// 27/27 (1): der(speedSensor.flange.phi) = aimc.inertiaRotor.w [dynamic |0|0|0|0|]
// 28/28 (1): ground.p.i = (-sinevoltage1.i[2]) - sinevoltage1.i[1] - sinevoltage1.i[3] [dynamic |0|0|0|0|]
// 29/29 (1): aimc.thermalAmbient.Q_flowRotorWinding = 1.5 * aimc.squirrelCageR.Rr_actual * (aimc.idq_rr[1] ^ 2.0 + aimc.idq_rr[2] ^ 2.0) [dynamic |0|0|0|0|]
// 30/30 (1): aimc.tauElectrical = 1.5 * /*Real*/(aimc.airGapS.p) * (aimc.lssigma.i_[2] * aimc.airGapS.psi_ms[1] - aimc.lssigma.i_[1] * aimc.airGapS.psi_ms[2]) [dynamic |0|0|0|0|]
// 31/31 (1): $DER.aimc.airGapS.gamma = /*Real*/(aimc.airGapS.p) * aimc.inertiaRotor.w [dynamic |0|0|0|0|]
// 32/32 (1): $DER.aimc.airGapS.RotationMatrix[2,2] = (-$cse1) * $DER.aimc.airGapS.gamma [dynamic |0|0|0|0|]
// 33/33 (1): $DER.aimc.airGapS.RotationMatrix[2,1] = aimc.airGapS.RotationMatrix[2,2] * $DER.aimc.airGapS.gamma [dynamic |0|0|0|0|]
// 34/34 (1): aimc.strayLoad.iRMS = sqrt(sinevoltage1.i[1] ^ 2.0 / 3.0 + sinevoltage1.i[2] ^ 2.0 / 3.0 + sinevoltage1.i[3] ^ 2.0 / 3.0) [binding |0|0|0|0|]
// 35/35 (1): aimc.rs.v[3] = aimc.rs.resistor[3].R_actual * sinevoltage1.i[3] [dynamic |0|0|0|0|]
// 36/36 (1): aimc.rs.resistor[3].LossPower = aimc.rs.v[3] * sinevoltage1.i[3] [dynamic |0|0|0|0|]
// 37/37 (1): aimc.rs.plug_n.pin[3].v = (-sinevoltage1.v[3]) - aimc.rs.v[3] [dynamic |0|0|0|0|]
// 38/38 (1): aimc.rs.v[2] = aimc.rs.resistor[2].R_actual * sinevoltage1.i[2] [dynamic |0|0|0|0|]
// 39/39 (1): aimc.rs.resistor[2].LossPower = aimc.rs.v[2] * sinevoltage1.i[2] [dynamic |0|0|0|0|]
// 40/40 (1): aimc.rs.plug_n.pin[2].v = (-sinevoltage1.v[2]) - aimc.rs.v[2] [dynamic |0|0|0|0|]
// 41/41 (1): aimc.rs.v[1] = aimc.rs.resistor[1].R_actual * sinevoltage1.i[1] [dynamic |0|0|0|0|]
// 42/42 (1): aimc.rs.resistor[1].LossPower = aimc.rs.v[1] * sinevoltage1.i[1] [dynamic |0|0|0|0|]
// 43/43 (1): aimc.thermalAmbient.Q_flowStatorWinding = aimc.rs.resistor[1].LossPower + aimc.rs.resistor[2].LossPower + aimc.rs.resistor[3].LossPower [dynamic |0|0|0|0|]
// 44/44 (1): aimc.thermalAmbient.Q_flowTotal = aimc.thermalAmbient.Q_flowStatorWinding + aimc.thermalAmbient.Q_flowRotorWinding [binding |0|0|0|0|]
// 45/45 (1): aimc.rs.plug_n.pin[1].v = (-sinevoltage1.v[1]) - aimc.rs.v[1] [dynamic |0|0|0|0|]
// 46/46 (1): aimc.powerBalance.lossPowerStatorWinding = aimc.rs.resistor[1].LossPower + aimc.rs.resistor[2].LossPower + aimc.rs.resistor[3].LossPower [binding |0|0|0|0|]
// 47/47 (1): aimc.powerBalance.lossPowerTotal = aimc.powerBalance.lossPowerStatorWinding + aimc.thermalAmbient.Q_flowRotorWinding [binding |0|0|0|0|]
// 48/48 (1): aimc.inertiaRotor.a = (aimc.tauElectrical + const.k) / aimc.inertiaRotor.J [dynamic |0|0|0|0|]
// 49/49 (1): aimc.powerBalance.powerInertiaRotor = aimc.inertiaRotor.J * aimc.inertiaRotor.a * aimc.inertiaRotor.w [binding |0|0|0|0|]
// 50/50 (1): der(aimc.inertiaRotor.w) = aimc.inertiaRotor.a [dynamic |0|0|0|0|]
// 51/51 (1): aimc.powerBalance.powerMechanical = (-aimc.inertiaRotor.w) * const.k [binding |0|0|0|0|]
// 52/52 (1): $DER.sinevoltage1.i[1] + $DER.sinevoltage1.i[2] + $DER.sinevoltage1.i[3] = 0.0 [dynamic |0|0|0|0|]
// 53/53 (1): $DER.aimc.spacePhasorS.i[1] * aimc.spacePhasorS.turnsRatio = $DER.sinevoltage1.i[1] [dynamic |0|0|0|0|]
// 54/54 (1): $DER.aimc.lssigma.i_[2] = aimc.spacePhasorS.TransformationMatrix[2,1] * $DER.aimc.spacePhasorS.i[1] + aimc.spacePhasorS.TransformationMatrix[2,2] * $DER.aimc.spacePhasorS.i[2] + aimc.spacePhasorS.TransformationMatrix[2,3] * $DER.aimc.spacePhasorS.i[3] [dynamic |0|0|0|0|]
// 55/55 (1): $DER.aimc.airGapS.i_ms[2] = $DER.aimc.lssigma.i_[2] + $DER.aimc.idq_rs[2] [dynamic |0|0|0|0|]
// 56/56 (1): $DER.aimc.idq_rs[2] = $cse1 * der(aimc.idq_rr[1]) + $DER.aimc.airGapS.RotationMatrix[2,1] * aimc.idq_rr[1] + aimc.airGapS.RotationMatrix[2,2] * der(aimc.idq_rr[2]) + $DER.aimc.airGapS.RotationMatrix[2,2] * aimc.idq_rr[2] [dynamic |0|0|0|0|]
// 57/57 (1): aimc.airGapS.spacePhasor_r.v_[2] = (-aimc.idq_rr[2]) * aimc.squirrelCageR.Rr_actual - der(aimc.idq_rr[2]) * aimc.squirrelCageR.Lrsigma [dynamic |0|0|0|0|]
// 58/58 (1): aimc.airGapS.spacePhasor_r.v_[2] = aimc.airGapS.RotationMatrix[2,2] * aimc.airGapS.spacePhasor_s.v_[2] + $DER.aimc.airGapS.RotationMatrix[2,2] * aimc.airGapS.psi_ms[2] + (-$cse1) * aimc.airGapS.spacePhasor_s.v_[1] - $DER.aimc.airGapS.RotationMatrix[2,1] * aimc.airGapS.psi_ms[1] [dynamic |0|0|0|0|]
// 59/59 (1): aimc.airGapS.spacePhasor_r.v_[1] = aimc.airGapS.RotationMatrix[2,2] * aimc.airGapS.spacePhasor_s.v_[1] + $DER.aimc.airGapS.RotationMatrix[2,2] * aimc.airGapS.psi_ms[1] + $cse1 * aimc.airGapS.spacePhasor_s.v_[2] + $DER.aimc.airGapS.RotationMatrix[2,1] * aimc.airGapS.psi_ms[2] [dynamic |0|0|0|0|]
// 60/60 (1): aimc.airGapS.spacePhasor_r.v_[1] = (-aimc.idq_rr[1]) * aimc.squirrelCageR.Rr_actual - der(aimc.idq_rr[1]) * aimc.squirrelCageR.Lrsigma [dynamic |0|0|0|0|]
// 61/61 (1): $DER.aimc.idq_rs[1] = aimc.airGapS.RotationMatrix[2,2] * der(aimc.idq_rr[1]) + $DER.aimc.airGapS.RotationMatrix[2,2] * aimc.idq_rr[1] + (-$cse1) * der(aimc.idq_rr[2]) - $DER.aimc.airGapS.RotationMatrix[2,1] * aimc.idq_rr[2] [dynamic |0|0|0|0|]
// 62/62 (1): $DER.aimc.airGapS.i_ms[1] = $DER.aimc.lssigma.i_[1] + $DER.aimc.idq_rs[1] [dynamic |0|0|0|0|]
// 63/63 (1): $DER.aimc.lssigma.i_[1] = aimc.spacePhasorS.TransformationMatrix[1,1] * $DER.aimc.spacePhasorS.i[1] + aimc.spacePhasorS.TransformationMatrix[1,2] * $DER.aimc.spacePhasorS.i[2] + aimc.spacePhasorS.TransformationMatrix[1,3] * $DER.aimc.spacePhasorS.i[3] [dynamic |0|0|0|0|]
// 64/64 (1): (-3.0) * $DER.aimc.i_0_s = $DER.aimc.spacePhasorS.i[1] + $DER.aimc.spacePhasorS.i[2] + $DER.aimc.spacePhasorS.i[3] [dynamic |0|0|0|0|]
// 65/65 (1): $DER.aimc.spacePhasorS.i[2] * aimc.spacePhasorS.turnsRatio = $DER.sinevoltage1.i[2] [dynamic |0|0|0|0|]
// 66/66 (1): $DER.aimc.spacePhasorS.i[3] * aimc.spacePhasorS.turnsRatio = $DER.sinevoltage1.i[3] [dynamic |0|0|0|0|]
// 67/67 (1): aimc.lssigma.v_[1] = aimc.lssigma.L[1] * $DER.aimc.lssigma.i_[1] [dynamic |0|0|0|0|]
// 68/68 (1): aimc.lssigma.v_[1] = aimc.lssigma.spacePhasor_a.v_[1] - aimc.airGapS.spacePhasor_s.v_[1] [dynamic |0|0|0|0|]
// 69/69 (1): aimc.lssigma.spacePhasor_a.v_[1] = aimc.spacePhasorS.TransformationMatrix[1,1] * aimc.spacePhasorS.v[1] + aimc.spacePhasorS.TransformationMatrix[1,2] * aimc.spacePhasorS.v[2] + aimc.spacePhasorS.TransformationMatrix[1,3] * aimc.spacePhasorS.v[3] [dynamic |0|0|0|0|]
// 70/70 (1): aimc.lssigma.spacePhasor_a.v_[2] = aimc.spacePhasorS.TransformationMatrix[2,1] * aimc.spacePhasorS.v[1] + aimc.spacePhasorS.TransformationMatrix[2,2] * aimc.spacePhasorS.v[2] + aimc.spacePhasorS.TransformationMatrix[2,3] * aimc.spacePhasorS.v[3] [dynamic |0|0|0|0|]
// 71/71 (1): aimc.lssigma.v_[2] = aimc.lssigma.spacePhasor_a.v_[2] - aimc.airGapS.spacePhasor_s.v_[2] [dynamic |0|0|0|0|]
// 72/72 (1): aimc.airGapS.spacePhasor_s.v_[2] = aimc.airGapS.L[2,1] * $DER.aimc.airGapS.i_ms[1] + aimc.airGapS.L[2,2] * $DER.aimc.airGapS.i_ms[2] [dynamic |0|0|0|0|]
// 73/73 (1): aimc.airGapS.spacePhasor_s.v_[1] = aimc.airGapS.L[1,1] * $DER.aimc.airGapS.i_ms[1] + aimc.airGapS.L[1,2] * $DER.aimc.airGapS.i_ms[2] [dynamic |0|0|0|0|]
// 74/74 (1): 3.0 * aimc.lszero.v = aimc.spacePhasorS.v[1] + aimc.spacePhasorS.v[2] + aimc.spacePhasorS.v[3] [dynamic |0|0|0|0|]
// 75/75 (1): (-aimc.lszero.L) * $DER.aimc.i_0_s = aimc.lszero.v [dynamic |0|0|0|0|]
// 76/76 (1): aimc.spacePhasorS.v[1] / aimc.spacePhasorS.turnsRatio = aimc.rs.plug_n.pin[1].v - aimc.plug_sn.pin[3].v [dynamic |0|0|0|0|]
// 77/77 (1): aimc.spacePhasorS.v[3] / aimc.spacePhasorS.turnsRatio = aimc.rs.plug_n.pin[3].v - aimc.plug_sn.pin[3].v [dynamic |0|0|0|0|]
// 78/78 (1): aimc.spacePhasorS.v[2] / aimc.spacePhasorS.turnsRatio = aimc.rs.plug_n.pin[2].v - aimc.plug_sn.pin[3].v [dynamic |0|0|0|0|]
// 79/79 (1): aimc.lssigma.v_[2] = aimc.lssigma.L[2] * $DER.aimc.lssigma.i_[2] [dynamic |0|0|0|0|]
// 80/80 (1): aimc.vs[1] = (-sinevoltage1.v[1]) - aimc.plug_sn.pin[3].v [dynamic |0|0|0|0|]
// 81/81 (1): aimc.vs[2] = (-sinevoltage1.v[2]) - aimc.plug_sn.pin[3].v [dynamic |0|0|0|0|]
// 82/82 (1): aimc.vs[3] = (-sinevoltage1.v[3]) - aimc.plug_sn.pin[3].v [dynamic |0|0|0|0|]
// 83/83 (1): aimc.powerBalance.powerStator = Modelica.Electrical.Machines.SpacePhasors.Functions.activePower(aimc.vs, sinevoltage1.i) [unknown |0|0|0|0|]
// 84/84 (1): $DER.aimc.lssigma.i_[2] = $cse1 * der(aimc.idq_sr[1]) + $DER.aimc.airGapS.RotationMatrix[2,1] * aimc.idq_sr[1] + aimc.airGapS.RotationMatrix[2,2] * der(aimc.idq_sr[2]) + $DER.aimc.airGapS.RotationMatrix[2,2] * aimc.idq_sr[2] [dynamic |0|0|0|0|]
// 85/85 (1): $DER.aimc.lssigma.i_[1] = aimc.airGapS.RotationMatrix[2,2] * der(aimc.idq_sr[1]) + $DER.aimc.airGapS.RotationMatrix[2,2] * aimc.idq_sr[1] + (-$cse1) * der(aimc.idq_sr[2]) - $DER.aimc.airGapS.RotationMatrix[2,1] * aimc.idq_sr[2] [dynamic |0|0|0|0|]
// 86/86 (1): aimc.airGapS.RotationMatrix[2,1] = $cse1 [binding |0|0|0|0|]
// 87/87 (1): aimc.rs.resistor[3].v = aimc.rs.v[3] [binding |0|0|0|0|]
// 88/88 (1): aimc.rs.resistor[2].v = aimc.rs.v[2] [binding |0|0|0|0|]
// 89/89 (1): aimc.rs.resistor[1].v = aimc.rs.v[1] [binding |0|0|0|0|]
// 90/90 (1): aimc.fixed.flange.tau = -aimc.tauElectrical [binding |0|0|0|0|]
// 91/91 (1): $DER.aimc.airGapS.psi_mr[1] = aimc.airGapS.spacePhasor_r.v_[1] [binding |0|0|0|0|]
// 92/92 (1): $DER.aimc.airGapS.psi_ms[2] = aimc.airGapS.spacePhasor_s.v_[2] [binding |0|0|0|0|]
// 93/93 (1): $DER.aimc.airGapS.psi_ms[1] = aimc.airGapS.spacePhasor_s.v_[1] [binding |0|0|0|0|]
// 94/94 (1): $DER.aimc.airGapS.psi_mr[2] = aimc.airGapS.spacePhasor_r.v_[2] [binding |0|0|0|0|]
//
//
// Simple Equations (4, 0)
// ========================================
// 1/1 (0): algorithm
// assert(1.0 + aimc.rs.resistor[1].alpha * (aimc.thermalAmbient.constTs.k - aimc.rs.resistor[1].T_ref) >= 1e-15, "Temperature outside scope of model!");
// [dynamic |0|0|0|0|]
// 2/1 (0): algorithm
// assert(1.0 + aimc.rs.resistor[2].alpha * (aimc.thermalAmbient.constTs.k - aimc.rs.resistor[2].T_ref) >= 1e-15, "Temperature outside scope of model!");
// [dynamic |0|0|0|0|]
// 3/1 (0): algorithm
// assert(1.0 + aimc.rs.resistor[3].alpha * (aimc.thermalAmbient.constTs.k - aimc.rs.resistor[3].T_ref) >= 1e-15, "Temperature outside scope of model!");
// [dynamic |0|0|0|0|]
// 4/1 (0): algorithm
// assert(1.0 + aimc.squirrelCageR.alpha * (aimc.thermalAmbient.constTr.k - aimc.squirrelCageR.T_ref) >= 1e-15, "Temperature outside scope of model!");
// [dynamic |0|0|0|0|]
//
//
// Matching
// ========================================
// 94 variables and equations
// var 1 is solved in eqn 10
// var 2 is solved in eqn 12
// var 3 is solved in eqn 11
// var 4 is solved in eqn 24
// var 5 is solved in eqn 25
// var 6 is solved in eqn 26
// var 7 is solved in eqn 27
// var 8 is solved in eqn 28
// var 9 is solved in eqn 44
// var 10 is solved in eqn 29
// var 11 is solved in eqn 43
// var 12 is solved in eqn 19
// var 13 is solved in eqn 17
// var 14 is solved in eqn 57
// var 15 is solved in eqn 59
// var 16 is solved in eqn 72
// var 17 is solved in eqn 58