public override string GetExplanationUnfinalized(StatRequest req, ToStringNumberSense numberSense)
{
CompTempControl tempControl = req.Thing.TryGetComp <CompTempControl>();
Thing tempController = req.Thing;
IntVec3 intVec3_1 = tempController.Position + IntVec3.North.RotatedBy(tempController.Rotation);
IntVec3 intVec3_2 = tempController.Position + IntVec3.South.RotatedBy(tempController.Rotation);
float cooledRoomTemp = intVec3_1.GetTemperature(tempController.Map);
float extRoomTemp = intVec3_2.GetTemperature(tempController.Map);
float efficiencyLossPerDegree = 1.0f / 130.0f; // SOS2 internal value, means loss of efficiency for each degree above targettemp, lose 50% at 65C above targetTemp, 100% at 130+
float energyPerSecond = tempControl.Props.energyPerSecond; // the power of the radiator
float roomSurface = SOS2HS_SOS2_Radiator.GetRoomSurface(req.Thing);
float coolingConversionRate = 4.16666651f; // Celsius cooled per JoulesSecond*Meter^2 conversion rate
float sidesTempGradient = (cooledRoomTemp - extRoomTemp);
float efficiency = (1f - sidesTempGradient * efficiencyLossPerDegree);
float maxACPerSecond = energyPerSecond * efficiency / roomSurface * coolingConversionRate; // max cooling power possible
SEB seb = new SEB("StatsReport_SOS2HS");
seb.Simple("CooledRoomTemp", cooledRoomTemp);
seb.Simple("ExteriorRoomTemp", extRoomTemp);
seb.Simple("EfficiencyLossPerDegree", efficiencyLossPerDegree);
seb.Simple("EnergyPerSecond", energyPerSecond);
seb.Simple("CooledRoomSurface", roomSurface);
seb.Simple("ACConversionRate", coolingConversionRate);
seb.Full("SidesTempGradient", sidesTempGradient, cooledRoomTemp, extRoomTemp);
seb.Full("RelativeEfficiency", efficiency * 100, sidesTempGradient, efficiencyLossPerDegree);
seb.Full("MaxACPerSecond", maxACPerSecond, energyPerSecond, efficiency, roomSurface, coolingConversionRate);
return(seb.ToString());
}
public override string GetExplanationUnfinalized(StatRequest req, ToStringNumberSense numberSense)
{
var heatPushed = SOS2HS_SOS2_Heatsink.GetMaxHeatPushed();
var heatPushTick = SOS2HS_SOS2_Heatsink.GetHeatVentTick(req);
float surface = SOS2HS_SOS2_Heatsink.GetRoomSurface(req.Thing);
float heatPushedPerSecond = heatPushed / heatPushTick * 60;
float heatOutputPerSecond = heatPushedPerSecond / surface;
SEB seb = new SEB("StatsReport_SOS2HS");
seb.Simple("MaxHeatPushed", heatPushed);
seb.Simple("HeatPushTickInterval", heatPushTick);
seb.Simple("RoomSurface", surface);
seb.Full("HeatPushedPerSecond", heatPushedPerSecond, heatPushed, heatPushTick);
seb.Full("HeatOutputPerSecond", heatOutputPerSecond, heatPushedPerSecond, surface);
return(seb.ToString());
}
public override string GetExplanationUnfinalized(StatRequest req, ToStringNumberSense numberSense)
{
CompTempControl tempControl = req.Thing.TryGetComp <CompTempControl>();
Thing tempController = req.Thing;
IntVec3 intVec3_1 = tempController.Position + IntVec3.North.RotatedBy(tempController.Rotation);
float cooledRoomTemp = intVec3_1.GetTemperature(tempController.Map);
float targetTemp = tempControl.targetTemperature;
float targetTempDiff = targetTemp - cooledRoomTemp;
float maxACPerSecond = SOS2HS_SOS2_Radiator.GetMaxACPerSecond(req); // max cooling power possible
bool isHeater = tempControl.Props.energyPerSecond > 0;
float actualAC;
if (isHeater)
{
actualAC = Mathf.Max(Mathf.Min(targetTempDiff, maxACPerSecond), 0);
}
else
{
actualAC = Mathf.Min(Mathf.Max(targetTempDiff, maxACPerSecond), 0);
}
SEB seb = new SEB("StatsReport_SOS2HS");
seb.Simple("CooledRoomTemp", cooledRoomTemp);
seb.Simple("TargetTemperature", targetTemp);
seb.Full("TargetTempDiff", targetTempDiff, targetTemp, cooledRoomTemp);
seb.Simple("MaxACPerSecond", maxACPerSecond);
if (isHeater)
{
seb.Full("ActualHeaterACPerSecond", actualAC, targetTempDiff, maxACPerSecond);
}
else
{
seb.Full("ActualCoolerACPerSecond", actualAC, targetTempDiff, maxACPerSecond);
}
return(seb.ToString());
}