PrescribedTemperature

This model represents a variable temperature boundary condition.

The temperature in kelvin is given as input signal to the RealInputT. The effect is that an instance of this model acts as an infinite reservoir, able to absorb or generate as much energy as required to keep the temperature at the specified value.

Usage

PrescribedTemperature()

Connectors

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

Behavior

\[ \begin{align} \mathtt{node.T}\left( t \right) &= T\left( t \right) \end{align} \]

Source

# This model represents a variable temperature boundary condition.
#
# The temperature in kelvin is given as input signal to the `RealInput` `T`. The
# effect is that an instance of this model acts as an infinite reservoir, able to
# absorb or generate as much energy as required to keep the temperature at the
# specified value.
component PrescribedTemperature
  node = Node() [{
    "JuliaSim": {
      "placement": {"icon": {"iconName": "node_b", "x1": 900, "y1": 400, "x2": 1100, "y2": 600}}
    }
  }]
  T = RealInput() [{
    "JuliaSim": {"placement": {"icon": {"x1": -100, "y1": 400, "x2": 100, "y2": 600}}}
  }]
relations
  node.T = T
end

# This model represents a variable temperature boundary condition.
#
# The temperature in kelvin is given as input signal to the `RealInput` `T`. The
# effect is that an instance of this model acts as an infinite reservoir, able to
# absorb or generate as much energy as required to keep the temperature at the
# specified value.
component PrescribedTemperature
  node = Node() [{
    "JuliaSim": {
      "placement": {"icon": {"iconName": "node_b", "x1": 900, "y1": 400, "x2": 1100, "y2": 600}}
    }
  }]
  T = RealInput() [{
    "JuliaSim": {"placement": {"icon": {"x1": -100, "y1": 400, "x2": 100, "y2": 600}}}
  }]
relations
  node.T = T
metadata {}
end

Test Cases

Related

• Examples
• Experiments
• Analyses