SPICELib.src.INTERFACE

Name	Description
PowerDissipation
Pin
OnePin
TwoPin
MOSFET
OnePort
TwoPort

SPICELib.src.INTERFACE.Pin

Modelica definition

connector Pin 
  SI.Voltage vDC "DC potential at the pin";
  SI.Voltage vTran "Transient/Small-signal potential at the pin";
  SI.Voltage vAC_Re "Small-signal potential at the pin. Real part";
  SI.Voltage vAC_Im "Small-signal potential at the pin. Imaginary part";
  
  flow SI.Current iDC "DC current flowing into the pin";
  flow SI.Current iTran "Transient current flowing into the pin";
  flow SI.Current iAC_Re "Small-signal current flowing into the pin. Real part";
  flow SI.Current iAC_Im 
    "Small-signal current flowing into the pin. Imaginary part";
end Pin;

SPICELib.src.INTERFACE.PowerDissipation

Modelica definition

connector PowerDissipation 
  flow SI.Power dissipatedPower "Dissipated power";
end PowerDissipation;

SPICELib.src.INTERFACE.OnePin

Modelica definition

partial model OnePin 
  Pin p "(+) node";
end OnePin;

SPICELib.src.INTERFACE.TwoPin

Modelica definition

partial model TwoPin 
  Pin p "(+) node";
  Pin n "(-) node";
end TwoPin;

SPICELib.src.INTERFACE.MOSFET

Modelica definition

partial model MOSFET 
  Pin d "Drain";
  Pin s "Source";
  Pin g "Gate";
  Pin b "Bulk";
end MOSFET;

SPICELib.src.INTERFACE.OnePort

Modelica definition

partial model OnePort 
  extends TwoPin;
protected 
  SI.Voltage vDC "DC voltage between pines";
  SI.Voltage vTran "Transient voltage between pines";
  SI.Voltage vAC_Re "Real part of AC small-signal voltage between pines";
  SI.Voltage vAC_Im 
    "Imaginary part of AC small-signal voltage between pines";
  SI.Current iDC "DC current";
  SI.Current iTran "Transient/Small-signal current";
  SI.Current iAC_Re "Small-signal current. Real part";
  SI.Current iAC_Im "Small-signal current. Imaginary part";
equation 
  // i, v sign criterion: Positive current flows from 
  // the (+) node through the part to the (-) node
  {iDC,iTran,iAC_Re,iAC_Im} = {p.iDC,p.iTran,p.iAC_Re,p.iAC_Im};
  {iDC,iTran,iAC_Re,iAC_Im} = -{n.iDC,n.iTran,n.iAC_Re,n.iAC_Im};
  {vDC,vTran,vAC_Re,vAC_Im} = {p.vDC,p.vTran,p.vAC_Re,p.vAC_Im} - {n.vDC,n.
    vTran,n.vAC_Re,n.vAC_Im};
end OnePort;

SPICELib.src.INTERFACE.TwoPort

Modelica definition

partial model TwoPort 
protected 
  SI.Voltage vDC1 "DC Voltage drop over the left port";
  SI.Voltage vTran1 "Transient voltage drop over the left port";
  SI.Voltage vAC_Re1 
    "Real part of AC small-signal voltage drop over the left port";
  SI.Voltage vAC_Im1 
    "Imaginary part of AC small-signal voltage drop over the left port";
  SI.Current iDC1 
    "DC current flowing from pos. to neg. pin of the left port";
  SI.Current iTran1 
    "Transient/Small-signal current flowing from pos. to neg. pin of the left port";
  SI.Current iAC_Re1 
    "Small-signal current flowing from pos. to neg. pin of the left port. Real part";
  SI.Current iAC_Im1 
    "Small-signal current flowing from pos. to neg. pin of the left port. Imaginary part";
  
  SI.Voltage vDC2 "DC Voltage drop over the right port";
  SI.Voltage vTran2 "Transient voltage drop over the right port";
  SI.Voltage vAC_Re2 
    "Real part of AC small-signal voltage drop over the right port";
  SI.Voltage vAC_Im2 
    "Imaginary part of AC small-signal voltage drop over the right port";
  SI.Current iDC2 
    "DC current flowing from pos. to neg. pin of the right port";
  SI.Current iTran2 
    "Transient/Small-signal current flowing from pos. to neg. pin of the right port";
  SI.Current iAC_Re2 
    "Small-signal current flowing from pos. to neg. pin of the right port. Real part";
  SI.Current iAC_Im2 
    "Small-signal current flowing from pos. to neg. pin of the right port. Imaginary part";
public 
  Pin p1 "Positive pin of the left port";
  Pin n1 "Negative pin of the left port";
  Pin p2 "Positive pin of the right port";
  Pin n2 "Negative pin of the right port";
equation 
  // i, v sign criterion: Positive current flows from 
  // the (+) node through the part to the (-) node
  {iDC1,iTran1,iAC_Re1,iAC_Im1} = {p1.iDC,p1.iTran,p1.iAC_Re,p1.iAC_Im};
  {iDC1,iTran1,iAC_Re1,iAC_Im1} = -{n1.iDC,n1.iTran,n1.iAC_Re,n1.iAC_Im};
  {vDC1,vTran1,vAC_Re1,vAC_Im1} = {p1.vDC,p1.vTran,p1.vAC_Re,p1.vAC_Im} - {n1.
    vDC,n1.vTran,n1.vAC_Re,n1.vAC_Im};
  
  {iDC2,iTran2,iAC_Re2,iAC_Im2} = {p2.iDC,p2.iTran,p2.iAC_Re,p2.iAC_Im};
  {iDC2,iTran2,iAC_Re2,iAC_Im2} = -{n2.iDC,n2.iTran,n2.iAC_Re,n2.iAC_Im};
  {vDC2,vTran2,vAC_Re2,vAC_Im2} = {p2.vDC,p2.vTran,p2.vAC_Re,p2.vAC_Im} - {n2.
    vDC,n2.vTran,n2.vAC_Re,n2.vAC_Im};
end TwoPort;