public override Dictionary <ChemEObject, float> CalculatePossiblePositions(Quantum quantum)
{
possiblePositions.Clear();
for (int i = 0; i < NextPosition.Count; i++)
{
possiblePositions.Add(NextPosition.Keys.ElementAt(i), NextPosition.Keys.ElementAt(i).QuantumProbabilityCalc(quantum));
}
return(possiblePositions);
}
public virtual bool QuantumSpace(Quantum quantum)
{
// Before movement is initiated each Quantum checks whether there is pressure
// and it needs to move in the first place. Default virtual function is used
// in for simple instruments, like pipes, but when it comes to instruments
// that operate with different molecules such instrument handles the space
// for each molecule type (for example CO2 column)
return(this.Quantums.Count > this.volume * SimulationModel.VolumeMultiplier);
}
public override float QuantumProbabilityCalc(Quantum quantum)
{
if (Quantums.Count < volume * 2)
{
return(1f);
}
else
{
return(0f);
}
}
public override Dictionary <ChemEObject, float> CalculatePossiblePositions(Quantum quantum)
{
possiblePositions.Clear();
quantumPreviousPositionPoint = quantum.EntryPoint;
for (int i = 0; i < NextPosition.Count; i++)
{
instrumentNextPositionPoint = PointOfExit2(NextPosition.Keys.ElementAt(i));
Debug.Log(quantum.EntryPoint.ToString());
if ((quantumPreviousPositionPoint == Inlet2 && instrumentNextPositionPoint == Outlet2) ||
(quantumPreviousPositionPoint == Outlet2 && instrumentNextPositionPoint == Inlet2))
{
possiblePositions.Add(NextPosition.Keys.ElementAt(i), NextPosition.Keys.ElementAt(i).QuantumProbabilityCalc(quantum));
}
if ((quantumPreviousPositionPoint == Inlet && instrumentNextPositionPoint == Outlet) ||
(quantumPreviousPositionPoint == Outlet && instrumentNextPositionPoint == Inlet))
{
possiblePositions.Add(NextPosition.Keys.ElementAt(i), NextPosition.Keys.ElementAt(i).QuantumProbabilityCalc(quantum));
}
if (quantumPreviousPositionPoint == instrumentNextPositionPoint)
{
possiblePositions.Add(NextPosition.Keys.ElementAt(i), NextPosition.Keys.ElementAt(i).QuantumProbabilityCalc(quantum));
}
}
for (int i = 0; i < PreviousPosition.Count; i++)
{
instrumentNextPositionPoint = PointOfEntry2(PreviousPosition.Keys.ElementAt(i));
if ((quantumPreviousPositionPoint == Inlet2 && instrumentNextPositionPoint == Outlet2) ||
(quantumPreviousPositionPoint == Outlet2 && instrumentNextPositionPoint == Inlet2))
{
possiblePositions.Add(PreviousPosition.Keys.ElementAt(i), PreviousPosition.Keys.ElementAt(i).QuantumProbabilityCalc(quantum));
}
if ((quantumPreviousPositionPoint == Inlet && instrumentNextPositionPoint == Outlet) ||
(quantumPreviousPositionPoint == Outlet && instrumentNextPositionPoint == Inlet))
{
possiblePositions.Add(PreviousPosition.Keys.ElementAt(i), PreviousPosition.Keys.ElementAt(i).QuantumProbabilityCalc(quantum));
}
if (quantumPreviousPositionPoint == instrumentNextPositionPoint)
{
possiblePositions.Add(PreviousPosition.Keys.ElementAt(i), PreviousPosition.Keys.ElementAt(i).QuantumProbabilityCalc(quantum));
}
}
return(possiblePositions);
}
public override float QuantumProbabilityCalc(Quantum quantum)
{
return(1f);
}
// Called by the Quanta inside the instrument public abstract Dictionary <ChemEObject, float> CalculatePossiblePositions(Quantum quantum);
// Called by the Quanta in the connected (previous or next) instrument public abstract float QuantumProbabilityCalc(Quantum quantum);
// The Generator?
public override float QuantumProbabilityCalc(Quantum quantum)
{
return(0f); // Acts as a stop plug
}
public override float QuantumProbabilityCalc(Quantum quantum)
{
return(openValue);
}
public override bool QuantumSpace(Quantum quantum)
{
// Should the quantum move out?
return(this.Quantums.Count > this.volumeWater * SimulationModel.VolumeMultiplier);
}
