/// <inheritdoc/>
void ITemperatureBehavior.Temperature()
{
if (!Parameters.Temperature.Given)
{
Parameters.Temperature = new GivenParameter <double>(_temperature.Temperature, false);
}
var vt = Parameters.Temperature * Constants.KOverQ;
var fact2 = Parameters.Temperature / Constants.ReferenceTemperature;
var ratio1 = Parameters.Temperature / ModelParameters.NominalTemperature - 1;
TempSaturationCurrent = ModelParameters.GateSaturationCurrent * Math.Exp(ratio1 * 1.11 / vt);
TempCapGs = ModelParameters.CapGs * ModelTemperature.Cjfact;
TempCapGd = ModelParameters.CapGd * ModelTemperature.Cjfact;
var kt = Constants.Boltzmann * Parameters.Temperature;
var egfet = 1.16 - (7.02e-4 * Parameters.Temperature * Parameters.Temperature) / (Parameters.Temperature + 1108);
var arg = -egfet / (kt + kt) + 1.1150877 / (Constants.Boltzmann * 2 * Constants.ReferenceTemperature);
var pbfact = -2 * vt * (1.5 * Math.Log(fact2) + Constants.Charge * arg);
TempGatePotential = fact2 * ModelTemperature.Pbo + pbfact;
var gmanew = (TempGatePotential - ModelTemperature.Pbo) / ModelTemperature.Pbo;
var cjfact1 = 1 + .5 * (4e-4 * (Parameters.Temperature - Constants.ReferenceTemperature) - gmanew);
TempCapGs *= cjfact1;
TempCapGd *= cjfact1;
CorDepCap = ModelParameters.DepletionCapCoefficient * TempGatePotential;
F1 = TempGatePotential * (1 - Math.Exp((1 - .5) * ModelTemperature.Xfc)) / (1 - .5);
Vcrit = vt * Math.Log(vt / (Constants.Root2 * TempSaturationCurrent));
if (TempGatePotential.Equals(0.0))
{
throw new SpiceSharpException("{0}: {1}".FormatString(nameof(TempGatePotential), Properties.Resources.Parameters_IsZero));
}
}
/// <summary>
/// Perform temperature-dependent calculations.
/// </summary>
void ITemperatureBehavior.Temperature()
{
State.ThrowIfNotBound(this);
if (!BaseParameters.Temperature.Given)
{
BaseParameters.Temperature.RawValue = State.Temperature;
}
var vt = BaseParameters.Temperature * Constants.KOverQ;
var fact2 = BaseParameters.Temperature / Constants.ReferenceTemperature;
var ratio1 = BaseParameters.Temperature / ModelParameters.NominalTemperature - 1;
TempSaturationCurrent = ModelParameters.GateSaturationCurrent * Math.Exp(ratio1 * 1.11 / vt);
TempCapGs = ModelParameters.CapGs * ModelTemperature.Cjfact;
TempCapGd = ModelParameters.CapGd * ModelTemperature.Cjfact;
var kt = Constants.Boltzmann * BaseParameters.Temperature;
var egfet = 1.16 - (7.02e-4 * BaseParameters.Temperature * BaseParameters.Temperature) / (BaseParameters.Temperature + 1108);
var arg = -egfet / (kt + kt) + 1.1150877 / (Constants.Boltzmann * 2 * Constants.ReferenceTemperature);
var pbfact = -2 * vt * (1.5 * Math.Log(fact2) + Constants.Charge * arg);
TempGatePotential = fact2 * ModelTemperature.Pbo + pbfact;
var gmanew = (TempGatePotential - ModelTemperature.Pbo) / ModelTemperature.Pbo;
var cjfact1 = 1 + .5 * (4e-4 * (BaseParameters.Temperature - Constants.ReferenceTemperature) - gmanew);
TempCapGs *= cjfact1;
TempCapGd *= cjfact1;
CorDepCap = ModelParameters.DepletionCapCoefficient * TempGatePotential;
F1 = TempGatePotential * (1 - Math.Exp((1 - .5) * ModelTemperature.Xfc)) / (1 - .5);
Vcrit = vt * Math.Log(vt / (Constants.Root2 * TempSaturationCurrent));
if (TempGatePotential.Equals(0.0))
{
throw new CircuitException("Invalid parameter " + nameof(TempGatePotential));
}
}
