public override void Analyze(Analysis Mna)
{
Expression Ip = Mna.AddUnknown("i" + Name + "p");
Mna.AddPassiveComponent(pa, pc, Ip);
Expression Is = Mna.AddUnknown("i" + Name + "s");
Mna.AddPassiveComponent(sc, sa, Is);
Mna.AddEquation(Ip * turns, Is);
Expression Vp = pa.V - pc.V;
Expression Vs = sa.V - sc.V;
Mna.AddEquation(Vp, turns * Vs);
}
public override void Analyze(Analysis Mna)
{
Expression Ip = Mna.AddUnknown("i" + Name + "p");
Mna.AddPassiveComponent(pa, pc, Ip);
Expression Is = Mna.AddUnknown("i" + Name + "s");
Mna.AddPassiveComponent(sc, sa, Is);
Mna.AddEquation(Ip * turns, Is);
Expression Vp = pa.V - pc.V;
Expression Vs = sa.V - sc.V;
Mna.AddEquation(Vp, turns * Vs);
}
public override void Analyze(Analysis Mna)
{
// Unknown output current.
Mna.AddTerminal(Cathode, Mna.AddUnknown("i" + Name));
// V-[t] = V+[t - T], i.e. the voltage at the previous timestep.
Mna.AddEquation(Anode.V.Evaluate(t, t - T), Cathode.V);
}
public static void Analyze(Analysis Mna, string Name, Node Input, Node Output)
{
// Unknown output current.
Mna.AddTerminal(Output, Mna.AddUnknown("i" + Name));
// Follow voltage.
Mna.AddEquation(Input.V, Output.V);
}
public static void Analyze(Analysis Mna, string Name, Node Input, Node Output)
{
// Unknown output current.
Mna.AddTerminal(Output, Mna.AddUnknown("i" + Name));
// Follow voltage.
Mna.AddEquation(Input.V, Output.V);
}
public static void Analyze(Analysis Mna, string Name, Node Anode, Node Cathode, Expression V)
{
// Unknown current.
Mna.AddPassiveComponent(Anode, Cathode, Mna.AddUnknown("i" + Name));
// Set the voltage.
Mna.AddEquation(Anode.V - Cathode.V, V);
}
public override void Analyze(Analysis Mna)
{
// Unknown output current.
Mna.AddTerminal(Cathode, Mna.AddUnknown("i" + Name));
// V-[t] = V+[t - T], i.e. the voltage at the previous timestep.
Mna.AddEquation(Anode.V.Evaluate(t, t - T), Cathode.V);
}
public static Expression Analyze(Analysis Mna, string Name, Node Anode, Node Cathode)
{
Expression i = Mna.AddUnknown("i" + Name);
Mna.AddPassiveComponent(Anode, Cathode, i);
Mna.AddEquation(Anode.V, Cathode.V);
return i;
}
public static void Analyze(Analysis Mna, string Name, Node Anode, Node Cathode, Expression V)
{
// Unknown current.
Mna.AddPassiveComponent(Anode, Cathode, Mna.AddUnknown("i" + Name));
// Set the voltage.
Mna.AddEquation(Anode.V - Cathode.V, V);
}
public static Expression Analyze(Analysis Mna, string Name, Node Anode, Node Cathode)
{
Expression i = Mna.AddUnknown("i" + Name);
Mna.AddPassiveComponent(Anode, Cathode, i);
Mna.AddEquation(Anode.V, Cathode.V);
return(i);
}
public override void Analyze(Analysis Mna)
{
Expression Ip = Mna.AddUnknown("i" + Name + "p");
Mna.AddPassiveComponent(pa, pc, Ip);
Expression Isa = Mna.AddUnknown("i" + Name + "sa");
Expression Isc = Mna.AddUnknown("i" + Name + "sc");
Mna.AddTerminal(sa, -Isa);
Mna.AddTerminal(sc, Isc);
Mna.AddTerminal(st, Isa - Isc);
Mna.AddEquation(Ip * turns, Isa + Isc);
Expression Vp = pa.V - pc.V;
Expression Vs1 = sa.V - st.V;
Expression Vs2 = st.V - sc.V;
Mna.AddEquation(Vp, Vs1 * turns * 2);
Mna.AddEquation(Vp, Vs2 * turns * 2);
}
public override void Analyze(Analysis Mna)
{
// Infinite input impedance.
Mna.AddPassiveComponent(Positive, Negative, 0);
// Unknown output current.
Mna.AddTerminal(Out, Mna.AddUnknown("i" + Name));
// The voltage between the positive and negative terminals is 0.
Mna.AddEquation(Positive.V, Negative.V);
}
public static Expression Analyze(Analysis Mna, string Name, Node Anode, Node Cathode, Expression L)
{
// Define a new unknown for the current through the inductor.
Expression i = Mna.AddUnknown("i" + Name);
Mna.AddPassiveComponent(Anode, Cathode, i);
// V = L*di/dt
Mna.AddEquation(Anode.V - Cathode.V, L * D(i, t));
return i;
}
public override void Analyze(Analysis Mna)
{
Expression Ip = Mna.AddUnknown("i" + Name + "p");
Mna.AddPassiveComponent(pa, pc, Ip);
Expression Isa = Mna.AddUnknown("i" + Name + "sa");
Expression Isc = Mna.AddUnknown("i" + Name + "sc");
Mna.AddTerminal(sa, -Isa);
Mna.AddTerminal(sc, Isc);
Mna.AddTerminal(st, Isa - Isc);
Mna.AddEquation(Ip * turns, Isa + Isc);
Expression Vp = pa.V - pc.V;
Expression Vs1 = sa.V - st.V;
Expression Vs2 = st.V - sc.V;
Mna.AddEquation(Vp, Vs1 * turns * 2);
Mna.AddEquation(Vp, Vs2 * turns * 2);
}
public static Expression Analyze(Analysis Mna, string Name, Node Anode, Node Cathode, Expression L)
{
// Define a new unknown for the current through the inductor.
Expression i = Mna.AddUnknown("i" + Name);
Mna.AddPassiveComponent(Anode, Cathode, i);
// V = L*di/dt
Mna.AddEquation(Anode.V - Cathode.V, L * D(i, t));
return(i);
}
public override void Analyze(Analysis Mna)
{
// Unknown current.
Mna.AddTerminal(Terminal, Mna.AddUnknown("i" + Name));
// Set voltage equal to the rail.
Mna.AddEquation(V, Voltage);
// Add initial conditions, if necessary.
Expression V0 = ((Expression)Voltage).Evaluate(t, 0);
if (!(V0 is Constant))
Mna.AddInitialConditions(Arrow.New(V0, 0));
}
public override void Analyze(Analysis Mna)
{
// Unknown current.
Mna.AddTerminal(Terminal, Mna.AddUnknown("i" + Name));
// Set voltage equal to the rail.
Mna.AddEquation(V, Voltage);
// Add initial conditions, if necessary.
Expression V0 = ((Expression)Voltage).Evaluate(t, 0);
if (!(V0 is Constant))
{
Mna.AddInitialConditions(Arrow.New(V0, 0));
}
}
public override void Analyze(Analysis Mna)
{
// Infinite input impedance.
Mna.AddPassiveComponent(Positive, Negative, 0);
// Unknown output current.
Mna.AddTerminal(Out, Mna.AddUnknown("i" + Name));
// The voltage between the positive and negative terminals is 0.
Mna.AddEquation(Positive.V, Negative.V);
}