protected override void UpdateModule()
{
bool hasPower = !inputPower.voltage.IsZero();
if (hasPower)
{
if (!inputLocalRemote.value)
{
receivedSwitchPulseSignal = inputRemoteSwitch.value;
}
else
{
receivedSwitchPulseSignal = inputLocalSwitch.value;
}
float width = switchSignalReader.ReadWidth(receivedSwitchPulseSignal, Time.deltaTime);
if (width > 0.1f && width < 0.3f)
{
isOn = true;
}
else if (width >= 0.3f)
{
isOn = false;
}
}
ElectricalPort.Transfer(inputPower, outputPower, isOn);
outputSwitchState.value = isOn;
if (hasPower)
{
outputCloseIndicator.value = isOn;
outputOpenIndicator.value = !isOn;
}
else
{
outputCloseIndicator.value = false;
outputOpenIndicator.value = false;
}
if (hasPower)
{
//Update Meters
if (meter != null)
{
meter.text = ReadingsFormatter.Format(outputPower.current.magnitude);
}
}
else
{
//Update Meters
if (meter != null)
{
meter.text = "";
}
}
}
protected override void UpdateModule()
{
bool p = !inputPower.voltage.IsZero();
if (hasPower != p)
{
hasPower = p;
if (hasPower)
{
OnPowerOn();
}
else
{
OnPowerOff();
}
}
if (!hasPower)
{
compensateLevel = 0;
outputCap1Indicator.value = false;
outputCap2Indicator.value = false;
outputCap3Indicator.value = false;
//Calculate input current
inputPower.current = new Complex(0, compensateLevel * compensateValue) * inputPower.voltage;
meter.text = "";
return;
}
//Calculate input current
inputPower.current = new Complex(0, compensateLevel * compensateValue) * inputPower.voltage;
//Calculate compensate factor
if (targetPort.current.IsZero())
{
compensateFactor = 0.99f;
}
else
{
compensateFactor = Mathf.Cos((targetPort.voltage / targetPort.current).argument);
}
meter.text = ReadingsFormatter.Format(compensateFactor);
//Lit Cap Indicator
int n = compensateLevel;
outputCap1Indicator.value = n % 2 == 1;
n /= 2;
outputCap2Indicator.value = n % 2 == 1;
n /= 2;
outputCap3Indicator.value = n % 2 == 1;
}
protected override void UpdateModule()
{
bool hasPower = !inputPower.voltage.IsZero();
if (hasPower && !groundClosed)//Process switching only when powered on
{
if (!inputLocalRemote.value)
{
receivedSwitchPulseSignal = inputRemoteSwitch.value;
}
else
{
receivedSwitchPulseSignal = inputSwitch.value;
}
float width = switchSignalReader.ReadWidth(receivedSwitchPulseSignal, Time.deltaTime);
if (width > 0.1f && width < 0.3f)
{
StartCoroutine("OpenRoutine");
}
else if (width >= 0.3f)
{
StartCoroutine("CloseRoutine");
}
safeScreen.SetActive(true);
}
else if (!hasPower)
{
safeScreen.SetActive(false);
}
ElectricalPort.Transfer(inputPower, outputPower, isOn);
outputSwitchState.value = isOn;
if (hasPower)
{
outputCloseIndicator.value = isOn;
outputOpenIndicator.value = !isOn;
outputGroundCloseIndicator.value = groundClosed;
outputGroundOpenIndicator.value = !groundClosed;
}
else
{
outputCloseIndicator.value = false;
outputOpenIndicator.value = false;
outputGroundCloseIndicator.value = false;
outputGroundOpenIndicator.value = false;
}
if (inputVoltageMeter != null)
{
float volDisplay = inputPower.voltage.magnitude * phaseToWire;
if (volDisplay > 1000)
{
inputVoltageMeter.text = (volDisplay / 1000f).ToString("f1") + "kV";
}
else
{
inputVoltageMeter.text = volDisplay.ToString("f0") + "V";
}
}
if (hasPower)
{
//Update Meters
if (triphaseMeter1 != null)
{
triphaseMeter1.text = ReadingsFormatter.Format(outputPower.current.magnitude);
}
if (triphaseMeter2 != null)
{
triphaseMeter2.text = ReadingsFormatter.Format(outputPower.current.magnitude);
}
if (triphaseMeter3 != null)
{
triphaseMeter3.text = ReadingsFormatter.Format(outputPower.current.magnitude);
}
}
else
{
//Update Meters
if (triphaseMeter1 != null)
{
triphaseMeter1.text = "";
}
if (triphaseMeter2 != null)
{
triphaseMeter2.text = "";
}
if (triphaseMeter3 != null)
{
triphaseMeter3.text = "";
}
}
}
