public void KITFixedUpdate(IResourceManager resMan)
{
_spaceTemperature = FlightIntegrator.ActiveVesselFI == null ? 4 : FlightIntegrator.ActiveVesselFI.backgroundRadiationTemp;
hotBathTemperature = Math.Max(4, Math.Max(part.temperature, part.skinTemperature));
var hasRadiators = FNRadiator.HasRadiatorsForVessel(vessel);
if (!hasRadiators)
{
radiatorTemperature = 0;
maximumPowerSupplyInMegaWatt = 0;
currentPowerSupplyInMegaWatt = 0;
return;
}
radiatorTemperature = FNRadiator.GetAverageRadiatorTemperatureForVessel(vessel);
_timeWarpModifer = PluginHelper.GetTimeWarpModifer();
_hotColdBathRatio = 1 - Math.Min(1, radiatorTemperature / hotBathTemperature);
_thermalConversionEfficiency = maxConversionEfficiency * _hotColdBathRatio;
maximumPowerSupplyInMegaWatt = _hotColdBathRatio > requiredTemperatureRatio
? _thermalConversionEfficiency * maximumPowerCapacity * (1 / maxConversionEfficiency)
: _thermalConversionEfficiency * maximumPowerCapacity * (1 / maxConversionEfficiency) *
Math.Pow(_hotColdBathRatio * (1 / requiredTemperatureRatio), hotColdBathRatioExponent);
}
public override void OnFixedUpdateResourceSuppliable(double fixedDeltaTime)
{
var hasRadiators = FNRadiator.HasRadiatorsForVessel(vessel);
// get radiator temperature
if (hasRadiators)
{
radiatorTemperature = FNRadiator.GetAverageRadiatorTemperatureForVessel(vessel);
}
else if (!_stackAttachedParts.Any())
{
return;
}
else
{
radiatorTemperature = _stackAttachedParts.Min(m => m.temperature);
}
if (double.IsNaN(radiatorTemperature))
{
return;
}
timeWarpModifer = PluginHelper.GetTimeWarpModifer();
spaceTemperature = FlightIntegrator.ActiveVesselFI == null ? 4 : FlightIntegrator.ActiveVesselFI.backgroundRadiationTemp;
hotBathTemperature = Math.Max(4, Math.Max(part.temperature, part.skinTemperature));
var hotColdBathRatio = 1 - Math.Min(1, radiatorTemperature / hotBathTemperature);
var thermalConversionEfficiency = maxConversionEfficiency * hotColdBathRatio;
maximumPowerSupplyInMegaWatt = hotColdBathRatio > requiredTemperatureRatio
? thermalConversionEfficiency * maximumPowerCapacity * (1 / maxConversionEfficiency)
: thermalConversionEfficiency * maximumPowerCapacity * (1 / maxConversionEfficiency) *
Math.Pow(hotColdBathRatio * (1 / requiredTemperatureRatio), hotColdBathRatioExponent);
var currentUnfilledResourceDemand = Math.Max(0, GetCurrentUnfilledResourceDemand(ResourceSettings.Config.ElectricPowerInMegawatt));
var requiredRatio = Math.Min(1, currentUnfilledResourceDemand / maximumPowerSupplyInMegaWatt);
currentPowerSupplyInMegaWatt = requiredRatio * maximumPowerSupplyInMegaWatt;
var wasteheatInMegaJoules = (1 - thermalConversionEfficiency) * currentPowerSupplyInMegaWatt;
if (hasRadiators)
{
SupplyFnResourcePerSecondWithMax(maximumPowerSupplyInMegaWatt, wasteheatInMegaJoules, ResourceSettings.Config.WasteHeatInMegawatt);
}
else // dump heat in attached part
{
DumpWasteheatInAttachedParts(fixedDeltaTime, wasteheatInMegaJoules);
}
ExtractSystemHeat(fixedDeltaTime);
// generate thermal power
SupplyFnResourcePerSecondWithMax(currentPowerSupplyInMegaWatt, maximumPowerSupplyInMegaWatt, ResourceSettings.Config.ElectricPowerInMegawatt);
}
