FluxTubes.LeakageWithCoefficient

This component extends from Leakage

Usage

TranslatedComponents.FluxTubes.LeakageWithCoefficient(c_usefulFlux=0.7)

Parameters:

Name	Description	Units	Default value
c_usefulFlux		1	0.7

Connectors

• port_p - (MagneticPort)

• port_n - (MagneticPort)

• R_mUsefulTot - This connector represents a real signal as an input to a component (RealInput)

Variables

Name	Description	Units
V_m		A
Phi		Wb
R_m		H-1
G_m		H

Behavior

using TranslatedComponents #hide
using ModelingToolkit #hide
@variables c_usefulFlux #hide
@named sys = TranslatedComponents.FluxTubes.LeakageWithCoefficient(c_usefulFlux=c_usefulFlux) #hide
full_equations(sys) #hide

<< @example-block not executed in draft mode >>

Source

component LeakageWithCoefficient
  extends Leakage
  R_mUsefulTot = RealInput()
  parameter c_usefulFlux::Dyad.CouplingCoefficient(final max = 0.9999999, final min = 1e-10) = 0.7
relations
  (1 - c_usefulFlux) * R_m = c_usefulFlux * R_mUsefulTot
end

Flattened Source

component LeakageWithCoefficient
  port_p = MagneticPort()
  port_n = MagneticPort()
  variable V_m::Dyad.MagneticPotentialDifference
  variable Phi::Dyad.MagneticFlux
  variable R_m::Dyad.Reluctance
  variable G_m::Dyad.Permeance
  R_mUsefulTot = RealInput()
  parameter c_usefulFlux::Dyad.CouplingCoefficient(final max = 0.9999999, final min = 1e-10) = 0.7
relations
  V_m = port_p.V_m - port_n.V_m
  Phi = port_p.Phi
  0 = port_p.Phi + port_n.Phi
  V_m = Phi * R_m
  R_m = 1 / G_m
  (1 - c_usefulFlux) * R_m = c_usefulFlux * R_mUsefulTot
metadata {}
end

Test Cases

No test cases defined.

Related

• Examples

• Experiments

• Analyses