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Analog.Thyristor.md

Analog.Thyristor ​

This component extends from ConditionalHeatPort

Usage ​

TranslatedComponents.Analog.Thyristor(T=293.15, VDRM=100, VRRM=100, IDRM=0.1, VTM=1.7, IH=0.006, ITM=25, VGT=0.7, IGT=0.005, TON=1.0e-6, TOFF=1.5e-5, Vt=0.04, Nbv=0.74, vRef=0.65, Von=5, Voff=1.5, Ron=(VTM - 0.7) / ITM, Roff=(VDRM ^ 2) / VTM / IH)

Parameters: ​

NameDescriptionUnitsDefault value
useHeatPort–false
TK293.15
VDRMV100
VRRMV100
IDRMA0.1
VTMV1.7
IHA0.006
ITMA25
VGTV0.7
IGTA0.005
TONs0.000001
TOFFs0.000015
VtV0.04
Nbv–0.74
vRefV0.65
VonV5
VoffV1.5
RonΩ(VTM - 0.7) / ITM
RoffΩ(VDRM ^ 2) / VTM / IH

Connectors ​

  • heatPort - (HeatPort)

  • Anode - This connector represents an electrical pin with voltage and current as the potential and flow variables, respectively. (Pin)

  • Cathode - This connector represents an electrical pin with voltage and current as the potential and flow variables, respectively. (Pin)

  • Gate - This connector represents an electrical pin with voltage and current as the potential and flow variables, respectively. (Pin)

Variables ​

NameDescriptionUnits
LossPowerW
T_heatPortK
iGKA
vGKV
vAKV
vControlV
vContotV
vConmainV

Behavior ​

Cathode.i(t)+Gate.i(t)+Anode.i(t)=0vGK(t)=Gate.v(t)−Cathode.v(t)vAK(t)=Anode.v(t)−Cathode.v(t)iGK(t)=Gate.i(t)vGK(t)=ifelse(vGK(t)<vRef,VGTiGK(t)IGT,vRef2VGT+(VGT−vRef)iGK(t)IGT)vContot(t)=ifelse(iGK(t)<0.95IGT,0,ifelse(iGK(t)<0.001+0.95IGT,10000(−0.95IGT+iGK(t))vAK(t),10vAK(t)))+vConmain(t)dvControl(t)dt=−vControl(t)+vContot(t)ifelse(−vControl(t)+vContot(t)>0,1.87TON,0.638TOFF)Anode.i(t)=ifelse(vAK(t)<−VRRM,−VRRMe−VRRM−vAK(t)NbvVtRoff,ifelse(vControl(t)<Voff,vAK(t)Roff,ifelse(vControl(t)<Von,vAK(t)(RonRoff)12(3(−Voff−Von+2vControl(t))2(−Voff+Von)−4(−Voff−Von+2vControl(t)2(−Voff+Von))3)RoffRon,vAK(t)Ron)))vConmain(t)=ifelse((Anode.i(t)>IH)∨(vAK(t)>VDRM),Von,0)LossPower(t)=Anode.v(t)Anode.i(t)+Cathode.i(t)Cathode.v(t)+Gate.i(t)Gate.v(t)T_heatPort(t)=T

Source ​

dyad
component Thyristor
  extends ConditionalHeatPort
  Anode = Pin()
  Cathode = Pin()
  Gate = Pin()
  parameter VDRM::Dyad.Voltage(final min = 0) = 100
  parameter VRRM::Dyad.Voltage(final min = 0) = 100
  parameter IDRM::Dyad.Current = 0.1
  parameter VTM::Dyad.Voltage = 1.7
  parameter IH::Dyad.Current = 0.006
  parameter ITM::Dyad.Current = 25
  parameter VGT::Dyad.Voltage = 0.7
  parameter IGT::Dyad.Current = 0.005
  parameter TON::Dyad.Time = 1.0e-6
  parameter TOFF::Dyad.Time = 1.5e-5
  parameter Vt::Dyad.Voltage = 0.04
  parameter Nbv::Real = 0.74
  parameter vRef::Dyad.Voltage = 0.65
  parameter Von::Dyad.Voltage = 5
  parameter Voff::Dyad.Voltage = 1.5
  parameter Ron::Dyad.Resistance = (VTM - 0.7) / ITM
  parameter Roff::Dyad.Resistance = (VDRM ^ 2) / VTM / IH
  variable iGK::Dyad.Current
  variable vGK::Dyad.Voltage
  variable vAK::Dyad.Voltage
  variable vControl::Dyad.Voltage
  variable vContot::Dyad.Voltage
  variable vConmain::Dyad.Voltage
relations
  Anode.i + Gate.i + Cathode.i = 0
  vGK = Gate.v - Cathode.v
  vAK = Anode.v - Cathode.v
  iGK = Gate.i
  vGK = vGK < vRef ? VGT / IGT * iGK : vRef ^ 2 / VGT + iGK * (VGT - vRef) / IGT
  vContot = vConmain + (iGK < 0.95 * IGT ? 0 : (iGK < 0.95 * IGT + 1e-3 ? 10000 * (iGK - 0.95 * IGT) * vAK : 10 * vAK))
  der(vControl) = (vContot - vControl) / ((vContot - vControl) > 0 ? 1.87 * TON : 0.638 * TOFF)
  Anode.i = vAK < -VRRM ? -VRRM / Roff * exp(-(vAK + VRRM) / (Nbv * Vt)) : (vControl < Voff ? vAK / Roff : (vControl < Von ? vAK / (sqrt(Ron * Roff) * (Ron / Roff) ^ ((3 * ((2 * vControl - Von - Voff) / (2 * (Von - Voff))) - 4 * ((2 * vControl - Von - Voff) / (2 * (Von - Voff))) ^ 3) / 2)) : vAK / Ron))
  vConmain = (Anode.i > IH or vAK > VDRM ? Von : 0)
  LossPower = Anode.i * Anode.v + Cathode.i * Cathode.v + Gate.i * Gate.v
end
Flattened Source
dyad
component Thyristor
  heatPort = TranslatedComponents.HeatTransfer.HeatPort() if useHeatPort
  structural parameter useHeatPort::Boolean = false
  parameter T::Dyad.Temperature = 293.15
  variable LossPower::Dyad.Power
  variable T_heatPort::Dyad.Temperature
  Anode = Pin()
  Cathode = Pin()
  Gate = Pin()
  parameter VDRM::Dyad.Voltage(final min = 0) = 100
  parameter VRRM::Dyad.Voltage(final min = 0) = 100
  parameter IDRM::Dyad.Current = 0.1
  parameter VTM::Dyad.Voltage = 1.7
  parameter IH::Dyad.Current = 0.006
  parameter ITM::Dyad.Current = 25
  parameter VGT::Dyad.Voltage = 0.7
  parameter IGT::Dyad.Current = 0.005
  parameter TON::Dyad.Time = 1.0e-6
  parameter TOFF::Dyad.Time = 1.5e-5
  parameter Vt::Dyad.Voltage = 0.04
  parameter Nbv::Real = 0.74
  parameter vRef::Dyad.Voltage = 0.65
  parameter Von::Dyad.Voltage = 5
  parameter Voff::Dyad.Voltage = 1.5
  parameter Ron::Dyad.Resistance = (VTM - 0.7) / ITM
  parameter Roff::Dyad.Resistance = (VDRM ^ 2) / VTM / IH
  variable iGK::Dyad.Current
  variable vGK::Dyad.Voltage
  variable vAK::Dyad.Voltage
  variable vControl::Dyad.Voltage
  variable vContot::Dyad.Voltage
  variable vConmain::Dyad.Voltage
relations
  if !(useHeatPort)
    T_heatPort = T
  else
    initial heatPort.T = T_heatPort
    initial heatPort.Q_flow = -LossPower
  end
  Anode.i + Gate.i + Cathode.i = 0
  vGK = Gate.v - Cathode.v
  vAK = Anode.v - Cathode.v
  iGK = Gate.i
  vGK = vGK < vRef ? VGT / IGT * iGK : vRef ^ 2 / VGT + iGK * (VGT - vRef) / IGT
  vContot = vConmain + (iGK < 0.95 * IGT ? 0 : (iGK < 0.95 * IGT + 1e-3 ? 10000 * (iGK - 0.95 * IGT) * vAK : 10 * vAK))
  der(vControl) = (vContot - vControl) / ((vContot - vControl) > 0 ? 1.87 * TON : 0.638 * TOFF)
  Anode.i = vAK < -VRRM ? -VRRM / Roff * exp(-(vAK + VRRM) / (Nbv * Vt)) : (vControl < Voff ? vAK / Roff : (vControl < Von ? vAK / (sqrt(Ron * Roff) * (Ron / Roff) ^ ((3 * ((2 * vControl - Von - Voff) / (2 * (Von - Voff))) - 4 * ((2 * vControl - Von - Voff) / (2 * (Von - Voff))) ^ 3) / 2)) : vAK / Ron))
  vConmain = (Anode.i > IH or vAK > VDRM ? Von : 0)
  LossPower = Anode.i * Anode.v + Cathode.i * Cathode.v + Gate.i * Gate.v
metadata {}
end


Test Cases ​

No test cases defined.

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