public static string HoursInIdeal(CompDTemperatureIngestible comp, double changeThreshold)
{
return("\nWill remain in ideal range for around " + ThermodynamicsBase.HoursToTargetTemp(comp, changeThreshold).ToString("f1") + " hours more.");
}
public override string GetExplanationUnfinalized(StatRequest req, ToStringNumberSense numberSense)
{
string s = "";
if (!req.HasThing)
{
return(s);
}
CompDTemperature comp = req.Thing.TryGetComp <CompDTemperature>();
if (comp != null)
{
double interval = 2500;
double ambient = comp.AmbientTemperature;
double shift = ambient - comp.curTemp;
double changeMag = Math.Abs(interval * shift / comp.PropsTemp.diffusionTime);
double minStepScaled = CompDTemperature.minStep * interval;
double step = (Math.Abs(shift) < minStepScaled || changeMag > CompDTemperature.minStep) ? changeMag : minStepScaled;
if (step == minStepScaled)
{
s += "Currently coming to equilibrium at " + GenText.ToStringTemperatureOffset((float)ambient);
}
else
{
double result = Math.Sign(shift) * step * ThermodynamicsSettings.diffusionModifier;
s += "Currently diffusing at a rate of " + GenText.ToStringTemperatureOffset((float)result) + " per hour.";
s += HoursToAmbient(comp);
CompDTemperatureIngestible comp2 = comp as CompDTemperatureIngestible;
if (comp2 != null)
{
s += "\n";
if (comp2.PropsTemp.roomTemperature)
{
if (comp2.curTemp > comp2.PropsTemp.tempLevels.goodTemp && comp2.curTemp < comp2.PropsTemp.tempLevels.okTemp)
{
if (ambient < comp2.PropsTemp.tempLevels.goodTemp)
{
s += HoursInIdeal(comp2, comp2.PropsTemp.tempLevels.goodTemp);
}
else if (ambient > comp2.PropsTemp.tempLevels.okTemp)
{
s += HoursInIdeal(comp2, comp2.PropsTemp.tempLevels.okTemp);
}
else
{
s += InIdealRange();
}
}
else if (comp2.curTemp < comp2.PropsTemp.tempLevels.goodTemp && ambient > comp2.PropsTemp.tempLevels.goodTemp)
{
s += HoursToIdeal(comp2, comp2.PropsTemp.tempLevels.goodTemp);
}
else if (comp2.curTemp > comp2.PropsTemp.tempLevels.okTemp && ambient < comp2.PropsTemp.tempLevels.okTemp)
{
s += HoursToIdeal(comp2, comp2.PropsTemp.tempLevels.okTemp);
}
else
{
s += WillNeverReach();
}
}
else if (comp2.PropsTemp.likesHeat)
{
if (comp2.curTemp > comp2.PropsTemp.tempLevels.goodTemp)
{
if (ambient < comp2.PropsTemp.tempLevels.goodTemp)
{
s += HoursInIdeal(comp2, comp2.PropsTemp.tempLevels.goodTemp);
}
else
{
s += InIdealRange();
}
}
else if (ambient > comp2.PropsTemp.tempLevels.goodTemp)
{
s += HoursToIdeal(comp2, comp2.PropsTemp.tempLevels.goodTemp);
}
else
{
s += WillNeverReach();
}
}
else
{
if (comp2.curTemp < 0f && !comp2.PropsTemp.okFrozen)
{
if (comp2.AmbientTemperature > 0f)
{
s += HoursToIdeal(comp2, 0);
}
else if (comp2.AmbientTemperature <= 0f)
{
s += WillNeverReach();
}
}
else if (comp2.curTemp < comp2.PropsTemp.tempLevels.goodTemp)
{
if (ambient > comp2.PropsTemp.tempLevels.goodTemp)
{
s += HoursInIdeal(comp2, comp2.PropsTemp.tempLevels.goodTemp);
}
else
{
s += InIdealRange();
}
}
else if (ambient < comp2.PropsTemp.tempLevels.goodTemp)
{
s += HoursToIdeal(comp2, comp2.PropsTemp.tempLevels.goodTemp);
}
else
{
s += WillNeverReach();
}
}
}
}
}
return(s);
}
public static string HoursToIdeal(CompDTemperatureIngestible comp, double idealTemp)
{
return("\nWill reach ideal temperature for consumption in around " + ThermodynamicsBase.HoursToTargetTemp(comp, idealTemp).ToString("f1") + " hours.");
}
