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Analog.Interfaces.TwoPort

Component with two electrical ports, including current conservation.

Extends FourPin and adds Kirchhoff's Current Law for each port, ensuring current entering the positive pin equals current leaving the negative pin:

Corresponds to Modelica.Electrical.Analog.Interfaces.TwoPort.

This component extends from ElectricalComponents.Analog.Interfaces.FourPin

Usage

ElectricalComponents.Analog.Interfaces.TwoPort()

Connectors

• p1 - This connector represents an electrical pin with voltage and current as the potential and flow variables, respectively. (Pin)

• n1 - This connector represents an electrical pin with voltage and current as the potential and flow variables, respectively. (Pin)

• p2 - This connector represents an electrical pin with voltage and current as the potential and flow variables, respectively. (Pin)

• n2 - This connector represents an electrical pin with voltage and current as the potential and flow variables, respectively. (Pin)

Variables

Name	Description	Units
v1	Voltage drop of port 1 (= p1.v - n1.v)	V
v2	Voltage drop of port 2 (= p2.v - n2.v)	V
i1	Current flowing from pos. to neg. pin of port 1	A
i2	Current flowing from pos. to neg. pin of port 2	A

Source

"""
Component with two electrical ports, including current conservation.

Extends `FourPin` and adds Kirchhoff's Current Law for each port,
ensuring current entering the positive pin equals current leaving
the negative pin:
```math
p_1.i + n_1.i = 0, \quad p_2.i + n_2.i = 0
```

Corresponds to `Modelica.Electrical.Analog.Interfaces.TwoPort`.
"""
partial component TwoPort
  extends ElectricalComponents.Analog.Interfaces.FourPin
relations
  0 = p1.i + n1.i
  0 = p2.i + n2.i
end

Flattened Source

"""
Component with two electrical ports, including current conservation.

Extends `FourPin` and adds Kirchhoff's Current Law for each port,
ensuring current entering the positive pin equals current leaving
the negative pin:
```math
p_1.i + n_1.i = 0, \quad p_2.i + n_2.i = 0
```

Corresponds to `Modelica.Electrical.Analog.Interfaces.TwoPort`.
"""
partial component TwoPort
  "Positive electrical pin of port 1"
  p1 = Pin() {
    "Dyad": {
      "placement": {
        "diagram": {"iconName": "default", "x1": -40, "y1": -40, "x2": 60, "y2": 60, "rot": 0}
      },
      "tags": []
    }
  }
  "Negative electrical pin of port 1"
  n1 = Pin() {
    "Dyad": {
      "placement": {
        "diagram": {"iconName": "default", "x1": -40, "y1": 940, "x2": 60, "y2": 1040, "rot": 0}
      },
      "tags": []
    }
  }
  "Positive electrical pin of port 2"
  p2 = Pin() {
    "Dyad": {
      "placement": {
        "diagram": {"iconName": "default", "x1": 960, "y1": -40, "x2": 1060, "y2": 60, "rot": 0}
      },
      "tags": []
    }
  }
  "Negative electrical pin of port 2"
  n2 = Pin() {
    "Dyad": {
      "placement": {
        "diagram": {"iconName": "default", "x1": 960, "y1": 950, "x2": 1060, "y2": 1050, "rot": 0}
      },
      "tags": []
    }
  }
  "Voltage drop of port 1 (= p1.v - n1.v)"
  variable v1::Voltage
  "Voltage drop of port 2 (= p2.v - n2.v)"
  variable v2::Voltage
  "Current flowing from pos. to neg. pin of port 1"
  variable i1::Current
  "Current flowing from pos. to neg. pin of port 2"
  variable i2::Current
relations
  v1 = p1.v - n1.v
  v2 = p2.v - n2.v
  i1 = p1.i
  i2 = p2.i
  0 = p1.i + n1.i
  0 = p2.i + n2.i
metadata {}
end

Test Cases

No test cases defined.

Related

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