OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn

Set of functions used to calculate hybrid positive-sequence/three-phase impedance matrices for transformers

Information

This package contains a set of functions used to calculate hybrid positive-sequence/three-phase impedance matrices depending on the transformer connection, and if positive, negative and zero Norton equivalent impedances are considered to have finite values.

Extends from Modelica.Icons.Package (Icon for standard packages).

Package Content

Name Description
OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Yg_Yg Yg_Yg Calculation of impedance matrices for a grounded-wye-grounded-wye-connected hybrid transformer.
OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.D_D D_D Calculation of impedance matrices for a delta-delta-connected hybrid transformer.
OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Y_Y Y_Y Calculation of impedance matrices for a wye-wye-connected hybrid transformer.
OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.D_Yg D_Yg Calculation of hybrid impedance matrices for a delta-grounded-wye-connected three-phase transformer.
OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Yg_D Yg_D Calculation of hybrid impedance matrices for a grounded-wye-delta-connected three-phase transformer.
OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Y_D Y_D Calculation of hybrid impedance matrices for a wye-delta-connected three-phase transformer.
OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.D_Y D_Y Calculation of hybrid impedance matrices for a delta-wye-connected three-phase transformer.
OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Yg_Y Yg_Y Calculation of impedance matrices for a grounded-wye-wye-connected hybrid transformer.
OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Y_Yg Y_Yg Calculation of impedance matrices for a wye-grounded-wye-connected hybrid transformer.
OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Yg_Yg_FinImp Yg_Yg_FinImp Calculation of impedance matrices for a grounded-wye-grounded-wye-connected hybrid transformer. Finite values of Norton equivalent impedances are taken into account.
OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.D_D_FinImp D_D_FinImp Calculation of impedance matrices for a delta-delta-connected hybrid transformer. Finite values of Norton equivalent impedances are taken into account.
OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Y_Y_FinImp Y_Y_FinImp Calculation of impedance matrices for a wye-wye-connected hybrid transformer. Finite values of Norton equivalent impedances are taken into account.
OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Yg_Y_FinImp Yg_Y_FinImp Calculation of impedance matrices for a grounded-wye-wye-connected hybrid transformer. Finite values of Norton equivalent impedances are taken into account.
OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Y_Yg_FinImp Y_Yg_FinImp Calculation of impedance matrices for a wye-grounded-wye-connected hybrid transformer. Finite values of Norton equivalent impedances are taken into account.

OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Yg_Yg OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Yg_Yg

Calculation of impedance matrices for a grounded-wye-grounded-wye-connected hybrid transformer.

Information

This function calculates impedance matrices of a hybrid positive-sequece/three-phase transformer modeled as a pi-equivalent.

The transformer that uses this function should have its primary and secondary windings connected in grounded-wye (grounded-wye). In addition, this function considers that positive-, negative-, and zero-sequence Norton equivalent impedances have infinite values.

Extends from Modelica.Icons.Function (Icon for functions).

Inputs

NameDescription
X 
R 
tap 

Outputs

NameDescription
V[1, 32] 

OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.D_D OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.D_D

Calculation of impedance matrices for a delta-delta-connected hybrid transformer.

Information

This function calculates impedance matrices of a hybrid positive-sequece/three-phase transformer modeled as a pi-equivalent.

The transformer that uses this function should have its primary and secondary windings connected in delta. In addition, this function considers that positive-, negative-, and zero-sequence Norton equivalent impedances have infinite values.

Extends from Modelica.Icons.Function (Icon for functions).

Inputs

NameDescription
X 
R 
tap 

Outputs

NameDescription
V[1, 32] 

OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Y_Y OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Y_Y

Calculation of impedance matrices for a wye-wye-connected hybrid transformer.

Information

This function calculates impedance matrices of a hybrid positive-sequece/three-phase transformer modeled as a pi-equivalent.

The transformer that uses this function should have its primary and secondary windings connected in wye (star). In addition, this function considers that positive-, negative-, and zero-sequence Norton equivalent impedances have infinite values.

Extends from Modelica.Icons.Function (Icon for functions).

Inputs

NameDescription
X 
R 
tap 

Outputs

NameDescription
V[1, 32] 

OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.D_Yg OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.D_Yg

Calculation of hybrid impedance matrices for a delta-grounded-wye-connected three-phase transformer.

Information

This function calculates impedance matrices of a hybrid positive-sequece/three-phase transformer modeled as a pi-equivalent.

The transformer that uses this function should have its primary windings connected in delta and its secondary windings connected in grounded-wye (grounded-star). In addition, this function considers that positive-, negative-, and zero-sequence Norton equivalent impedances have infinite values.

Extends from Modelica.Icons.Function (Icon for functions).

Inputs

NameDescription
X 
R 
tap 

Outputs

NameDescription
V[1, 32] 

OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Yg_D OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Yg_D

Calculation of hybrid impedance matrices for a grounded-wye-delta-connected three-phase transformer.

Information

This function calculates impedance matrices of a hybrid positive-sequece/three-phase transformer modeled as a pi-equivalent.

The transformer that uses this function should have its primary windings connected in grounded-wye (grounded-star) and its secondary windings connected in delta. In addition, this function considers that positive-, negative-, and zero-sequence Norton equivalent impedances have infinite values.

Extends from Modelica.Icons.Function (Icon for functions).

Inputs

NameDescription
X 
R 
tap 

Outputs

NameDescription
V[1, 32] 

OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Y_D OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Y_D

Calculation of hybrid impedance matrices for a wye-delta-connected three-phase transformer.

Information

This function calculates impedance matrices of a hybrid positive-sequece/three-phase transformer modeled as a pi-equivalent.

The transformer that uses this function should have its primary windings connected in wye (star) and its secondary windings connected in delta. In addition, this function considers that positive-, negative-, and zero-sequence Norton equivalent impedances have infinite values.

Extends from Modelica.Icons.Function (Icon for functions).

Inputs

NameDescription
X 
R 
tap 

Outputs

NameDescription
V[1, 32] 

OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.D_Y OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.D_Y

Calculation of hybrid impedance matrices for a delta-wye-connected three-phase transformer.

Information

This function calculates impedance matrices of a hybrid positive-sequece/three-phase transformer modeled as a pi-equivalent.

The transformer that uses this function should have its primary windings connected in delta and its secondary windings connected in wye (star). In addition, this function considers that positive-, negative-, and zero-sequence Norton equivalent impedances have infinite values.

Extends from Modelica.Icons.Function (Icon for functions).

Inputs

NameDescription
X 
R 
tap 

Outputs

NameDescription
V[1, 32] 

OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Yg_Y OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Yg_Y

Calculation of impedance matrices for a grounded-wye-wye-connected hybrid transformer.

Information

This function calculates impedance matrices of a hybrid positive-sequece/three-phase transformer modeled as a pi-equivalent.

The transformer that uses this function should have its primary windings connected in grounded-wye (grounded-star) and its secondary windings connected in wye (star). In addition, this function considers that positive-, negative-, and zero-sequence Norton equivalent impedances have infinite values.

Extends from Modelica.Icons.Function (Icon for functions).

Inputs

NameDescription
X 
R 
tap 

Outputs

NameDescription
V[1, 32] 

OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Y_Yg OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Y_Yg

Calculation of impedance matrices for a wye-grounded-wye-connected hybrid transformer.

Information

This function calculates impedance matrices of a hybrid positive-sequece/three-phase transformer modeled as a pi-equivalent.

The transformer that uses this function should have its primary windings connected in wye (star) and its secondary windings connected ingrounded-wye (grounded-star). In addition, this function considers that positive-, negative-, and zero-sequence Norton equivalent impedances have infinite values.

Extends from Modelica.Icons.Function (Icon for functions).

Inputs

NameDescription
X 
R 
tap 

Outputs

NameDescription
V[1, 32] 

OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Yg_Yg_FinImp OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Yg_Yg_FinImp

Calculation of impedance matrices for a grounded-wye-grounded-wye-connected hybrid transformer. Finite values of Norton equivalent impedances are taken into account.

Information

This function calculates impedance matrices of a hybrid positive-sequece/three-phase transformer modeled as a pi-equivalent.

The transformer that uses this function should have its primary and secondary windings connected in grounded-wye (grounded-star). In addition, this function considers that positive-, negative-, and zero-sequence Norton equivalent impedances have finite values.

Extends from Modelica.Icons.Function (Icon for functions).

Inputs

NameDescription
X 
R 
tap 
Y012[1, 18] 

Outputs

NameDescription
Y[1, 32] 

OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.D_D_FinImp OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.D_D_FinImp

Calculation of impedance matrices for a delta-delta-connected hybrid transformer. Finite values of Norton equivalent impedances are taken into account.

Information

This function calculates impedance matrices of a hybrid positive-sequece/three-phase transformer modeled as a pi-equivalent.

The transformer that uses this function should have its primary and secondary windings connected in delta. In addition, this function considers that positive-, negative-, and zero-sequence Norton equivalent impedances have finite values.

Extends from Modelica.Icons.Function (Icon for functions).

Inputs

NameDescription
X 
R 
tap 
Y012[1, 18] 

Outputs

NameDescription
Y[1, 32] 

OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Y_Y_FinImp OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Y_Y_FinImp

Calculation of impedance matrices for a wye-wye-connected hybrid transformer. Finite values of Norton equivalent impedances are taken into account.

Information

This function calculates impedance matrices of a hybrid positive-sequece/three-phase transformer modeled as a pi-equivalent.

The transformer that uses this function should have its primary and secondary windings connected in wye (star). In addition, this function considers that positive-, negative-, and zero-sequence Norton equivalent impedances have finite values.

Extends from Modelica.Icons.Function (Icon for functions).

Inputs

NameDescription
X 
R 
tap 
Y012[1, 18] 

Outputs

NameDescription
Y[1, 32] 

OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Yg_Y_FinImp OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Yg_Y_FinImp

Calculation of impedance matrices for a grounded-wye-wye-connected hybrid transformer. Finite values of Norton equivalent impedances are taken into account.

Information

This function calculates impedance matrices of a hybrid positive-sequece/three-phase transformer modeled as a pi-equivalent.

The transformer that uses this function should have its primary windings connected in grounded-wye (grounded-star) and its secondary windings connected in wye (star). In addition, this function considers that positive-, negative-, and zero-sequence Norton equivalent impedances have finite values.

Extends from Modelica.Icons.Function (Icon for functions).

Inputs

NameDescription
X 
R 
tap 
Y012[1, 18] 

Outputs

NameDescription
Y[1, 32] 

OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Y_Yg_FinImp OpenIPSL.Electrical.ThreePhase.Branches.MonoTri.TransformerFcn.Y_Yg_FinImp

Calculation of impedance matrices for a wye-grounded-wye-connected hybrid transformer. Finite values of Norton equivalent impedances are taken into account.

Information

This function calculates impedance matrices of a hybrid positive-sequece/three-phase transformer modeled as a pi-equivalent.

The transformer that uses this function should have its primary windings connected in wye (star) and its secondary windings connected in grounded-wye (grounded-star). In addition, this function considers that positive-, negative-, and zero-sequence Norton equivalent impedances have finite values.

Extends from Modelica.Icons.Function (Icon for functions).

Inputs

NameDescription
X 
R 
tap 
Y012[1, 18] 

Outputs

NameDescription
Y[1, 32] 
Automatically generated Mon Oct 10 14:35:56 2022.