// Simulate resources production/consumption for unloaded vessel
public static string BackgroundUpdate(Vessel v, ProtoPartSnapshot part_snapshot, ProtoPartModuleSnapshot module_snapshot, PartModule proto_part_module, Part proto_part, Dictionary <string, double> availableResources, List <KeyValuePair <string, double> > resourceChangeRequest, double elapsed_s)
{
ProtoPartModuleSnapshot reactor = KSHUtils.FindPartModuleSnapshot(part_snapshot, engineModuleName);
if (reactor != null)
{
if (Lib.Proto.GetBool(reactor, "Enabled") && Lib.Proto.GetBool(module_snapshot, "GeneratesElectricity"))
{
float curThrottle = Lib.Proto.GetFloat(reactor, "CurrentReactorThrottle") / 100f;
float minThrottle = Lib.Proto.GetFloat(module_snapshot, "MinThrottle");
float maxThrottle = Lib.Proto.GetFloat(module_snapshot, "MaxThrottle");
float maxECGeneration = Lib.Proto.GetFloat(module_snapshot, "MaxECGeneration");
bool needToStopReactor = false;
if (maxECGeneration > 0)
{
VesselResources resources = KERBALISM.ResourceCache.Get(v);
if (!(proto_part_module as SystemHeatFissionEngineKerbalismUpdater).resourcesListParsed)
{
(proto_part_module as SystemHeatFissionEngineKerbalismUpdater).ParseResourcesList(proto_part);
}
// Mininum reactor throttle
// Some input/output resources will always be consumed/produced as long as minThrottle > 0
if (minThrottle > 0)
{
ResourceRecipe recipe = new ResourceRecipe(KERBALISM.ResourceBroker.GetOrCreate(
brokerName,
KERBALISM.ResourceBroker.BrokerCategory.Converter,
brokerTitle));
foreach (ResourceRatio ir in (proto_part_module as SystemHeatFissionEngineKerbalismUpdater).inputs)
{
recipe.AddInput(ir.ResourceName, ir.Ratio * minThrottle * elapsed_s);
if (resources.GetResource(v, ir.ResourceName).Amount < double.Epsilon)
{
// Input resource amount is zero - stop reactor
needToStopReactor = true;
}
}
foreach (ResourceRatio or in (proto_part_module as SystemHeatFissionEngineKerbalismUpdater).outputs)
{
recipe.AddOutput(or.ResourceName, or.Ratio * minThrottle * elapsed_s, dump: false);
if (1 - resources.GetResource(v, or.ResourceName).Level < double.Epsilon)
{
// Output resource is at full capacity
needToStopReactor = true;
Message.Post(
Severity.warning,
Localizer.Format(
"#LOC_KerbalismSystemHeat_ReactorOutputResourceFull",
or.ResourceName,
v.GetDisplayName(),
part_snapshot.partName)
);
}
}
recipe.AddOutput("ElectricCharge", minThrottle * maxECGeneration * elapsed_s, dump: true);
resources.AddRecipe(recipe);
}
if (!needToStopReactor)
{
if (!Lib.Proto.GetBool(reactor, "ManualControl"))
{
// Automatic reactor throttle mode
curThrottle = maxThrottle;
}
curThrottle -= minThrottle;
if (curThrottle > 0)
{
ResourceRecipe recipe = new ResourceRecipe(KERBALISM.ResourceBroker.GetOrCreate(
brokerName,
KERBALISM.ResourceBroker.BrokerCategory.Converter,
brokerTitle));
foreach (ResourceRatio ir in (proto_part_module as SystemHeatFissionEngineKerbalismUpdater).inputs)
{
recipe.AddInput(ir.ResourceName, ir.Ratio * curThrottle * elapsed_s);
if (resources.GetResource(v, ir.ResourceName).Amount < double.Epsilon)
{
// Input resource amount is zero - stop reactor
needToStopReactor = true;
}
}
foreach (ResourceRatio or in (proto_part_module as SystemHeatFissionEngineKerbalismUpdater).outputs)
{
recipe.AddOutput(or.ResourceName, or.Ratio * curThrottle * elapsed_s, dump: false);
if (1 - resources.GetResource(v, or.ResourceName).Level < double.Epsilon)
{
// Output resource is at full capacity
needToStopReactor = true;
Message.Post(
Severity.warning,
Localizer.Format(
"#LOC_KerbalismSystemHeat_ReactorOutputResourceFull",
or.ResourceName,
v.GetDisplayName(),
part_snapshot.partName)
);
}
}
recipe.AddOutput("ElectricCharge", curThrottle * maxECGeneration * elapsed_s, dump: false);
resources.AddRecipe(recipe);
}
}
}
// Disable reactor
if (needToStopReactor)
{
Lib.Proto.Set(reactor, "Enabled", false);
}
}
else
{
// Reactor disabled - radiation decay mechanics
if (Features.Radiation &&
Lib.Proto.GetBool(module_snapshot, "ReactorHasStarted") &&
Lib.Proto.GetDouble(module_snapshot, "ReactorStoppedTimestamp") > 0 &&
Lib.Proto.GetDouble(module_snapshot, "MinEmissionPercent") < 100)
{
ProtoPartModuleSnapshot emitter = KSHUtils.FindPartModuleSnapshot(part_snapshot, "Emitter");
if (emitter != null)
{
double EmitterMaxRadiation = Lib.Proto.GetDouble(module_snapshot, "EmitterMaxRadiation");
double MinEmissionPercent = Lib.Proto.GetDouble(module_snapshot, "MinEmissionPercent");
double EmissionDecayRate = Lib.Proto.GetDouble(module_snapshot, "EmissionDecayRate");
double MinRadiation = EmitterMaxRadiation * MinEmissionPercent / 100;
if (EmissionDecayRate <= 0)
{
Lib.Proto.Set(emitter, "radiation", MinRadiation);
Lib.Proto.Set(module_snapshot, "ReactorStoppedTimestamp", 0d);
}
else
{
double secondsPassed = Planetarium.GetUniversalTime() - Lib.Proto.GetDouble(module_snapshot, "ReactorStoppedTimestamp");
if (secondsPassed > 0)
{
double NewRadiation = EmitterMaxRadiation * (100 - secondsPassed / EmissionDecayRate) / 100;
if (NewRadiation <= MinRadiation)
{
NewRadiation = MinRadiation;
Lib.Proto.Set(module_snapshot, "ReactorStoppedTimestamp", 0d);
}
Lib.Proto.Set(emitter, "radiation", NewRadiation);
}
}
}
}
}
// Prevent resource consumption in ModuleSystemHeatFissionReactor.DoCatchup()
// by setting LastUpdate to current time
Lib.Proto.Set(reactor, "LastUpdateTime", Planetarium.GetUniversalTime());
return(brokerTitle);
}
return("ERR: no engine");
}
