public static float getLift(ModuleKerBalloon thisBalloon)
{
float atmoPressure = (float)FlightGlobals.getStaticPressure(thisBalloon.part.transform.position);
float coefficient = (thisBalloon.minLift - thisBalloon.maxLift) / Mathf.Pow(thisBalloon.maxAtmoPressure, 2);
float x = Mathf.Pow(atmoPressure - thisBalloon.maxAtmoPressure - thisBalloon.minAtmoPressure, 2);
float yInt = thisBalloon.maxLift;
float lift = coefficient * x + yInt;
float max = lift;
float liftLimit = (thisBalloon.vessel.GetTotalMass() * (float)FlightGlobals.getGeeForceAtPosition(thisBalloon.transform.position).magnitude) / lift;
lift *= liftLimit * thisBalloon.targetTWR;
if (thisBalloon.speedLimiter && HighLogic.CurrentGame.Parameters.CustomParams <KerBSettings>().speedLimiterEnabled)
{
if (thisBalloon.vessel.verticalSpeed < thisBalloon.maxSpeed * (1 - thisBalloon.maxSpeedTolerence))
{
thisBalloon.speedAdjust += thisBalloon.speedAdjustStep * (thisBalloon.maxSpeed - (float)thisBalloon.vessel.verticalSpeed);
}
else if (thisBalloon.vessel.verticalSpeed > thisBalloon.maxSpeed * (1 + thisBalloon.maxSpeedTolerence))
{
thisBalloon.speedAdjust -= thisBalloon.speedAdjustStep * ((float)thisBalloon.vessel.verticalSpeed - thisBalloon.maxSpeed);
}
thisBalloon.speedAdjust = Mathf.Clamp(thisBalloon.speedAdjust, thisBalloon.speedAdjustMin, thisBalloon.speedAdjustMax);
lift *= thisBalloon.speedAdjust;
}
if (thisBalloon.isInflated || thisBalloon.isInflating)
{
lift /= getInflatedBalloons(thisBalloon.vessel).Count;
}
lift = Mathf.Clamp(lift, 0, max);
return(lift);
}
public static float getLift(ModuleKerBalloon thisBalloon)
{
float num = (float)FlightGlobals.getStaticPressure(thisBalloon.part.transform.position);
float num2 = (thisBalloon.minLift - thisBalloon.maxLift) / Mathf.Pow(thisBalloon.maxAtmoPressure, 2f);
float num3 = Mathf.Pow(num - thisBalloon.maxAtmoPressure - thisBalloon.minAtmoPressure, 2f);
float maxLift = thisBalloon.maxLift;
float num4 = num2 * num3 + maxLift;
float max = num4;
float num5 = thisBalloon.vessel.GetTotalMass() * (float)FlightGlobals.getGeeForceAtPosition(thisBalloon.transform.position).magnitude / num4;
num4 *= num5 * thisBalloon.targetTWR;
if (thisBalloon.speedLimiter)
{
if (thisBalloon.vessel.verticalSpeed < (double)(thisBalloon.maxSpeed * (1f - thisBalloon.maxSpeedTolerence)))
{
thisBalloon.speedAdjust += thisBalloon.speedAdjustStep * (thisBalloon.maxSpeed - (float)thisBalloon.vessel.verticalSpeed);
}
else if (thisBalloon.vessel.verticalSpeed > (double)(thisBalloon.maxSpeed * (1f + thisBalloon.maxSpeedTolerence)))
{
thisBalloon.speedAdjust -= thisBalloon.speedAdjustStep * ((float)thisBalloon.vessel.verticalSpeed - thisBalloon.maxSpeed);
}
thisBalloon.speedAdjust = Mathf.Clamp(thisBalloon.speedAdjust, thisBalloon.speedAdjustMin, thisBalloon.speedAdjustMax);
num4 *= thisBalloon.speedAdjust;
}
if (thisBalloon.isInflated || thisBalloon.isInflating)
{
num4 /= (float)getInflatedBalloons(thisBalloon.vessel).Count;
}
return(Mathf.Clamp(num4, 0f, max));
}
void SetSymmetryValues(int balloonSize, ModuleKerBalloon mkb, BalloonInfo b, int selectedPlanet, string payload)
{
Log.Info("SetSymmetryValues, persistentId: " + mkb.part.persistentId);
mkb.balloonSize = balloonSize;
mkb.lastBalloonSize = lastBalloonSize;
mkb.recommendedBody = b.recommendedBody;
mkb.bodyG = GetBodyG(recommendedBody);
//Log.Info("recommendedBody: " + b.recommendedBody + ", bodyName: " + recommendedBody + ", bodyG: " + bodyG);
mkb.minAtmoPressure = b.minAtmoPressure;
mkb.maxAtmoPressure = b.maxAtmoPressure;
mkb.minScale = b.minScale;
mkb.maxScale = b.maxScale;
mkb.minLift = b.minLift;
mkb.maxLift = b.maxLift;
mkb.targetTWR = b.targetTWR;
mkb.liftLimit = liftLimit;
mkb.speedLimiter = b.speedLimiter;
mkb.maxSpeed = b.maxSpeed;
mkb.maxSpeedTolerence = b.maxSpeedTolerence;
mkb.speedAdjustStep = b.speedAdjustStep;
mkb.speedAdjustMin = b.speedAdjustMin;
mkb.speedAdjustMax = b.speedAdjustMax;
mkb.CFGballoonObject = b.CFGballoonObject;
mkb.CFGropeObject = b.CFGropeObject;
mkb.CFGcapObject = b.CFGcapObject;
mkb.CFGliftPointObject = b.CFGliftPointObject;
mkb.CFGballoonPointObject = b.CFGballoonPointObject;
mkb.payload = payload;
mkb.selectedPayload = selectedPayload;
mkb.bodyName = b.recommendedBody;
}
public static float getScale(ModuleKerBalloon thisBalloon)
{
float num = (float)FlightGlobals.getStaticPressure(thisBalloon.part.transform.position);
float num2 = (thisBalloon.maxScale - thisBalloon.minScale) / Mathf.Pow(thisBalloon.maxAtmoPressure, 2f);
float num3 = Mathf.Pow(num - thisBalloon.maxAtmoPressure - thisBalloon.minAtmoPressure, 2f);
float minScale = thisBalloon.minScale;
return(num2 * num3 + minScale);
}
public static float getScale(ModuleKerBalloon thisBalloon)
{
float atmoPressure = (float)FlightGlobals.getStaticPressure(thisBalloon.part.transform.position);
float coefficient = (thisBalloon.maxScale - thisBalloon.minScale) / Mathf.Pow(thisBalloon.maxAtmoPressure, 2);
float x = Mathf.Pow(atmoPressure - thisBalloon.maxAtmoPressure - thisBalloon.minAtmoPressure, 2);
float yInt = thisBalloon.minScale;
float scale = coefficient * x + yInt;
return(scale);
}
public static List <ModuleKerBalloon> getInflatedBalloons(Vessel vessel)
{
List <ModuleKerBalloon> list = new List <ModuleKerBalloon>();
foreach (Part part in vessel.parts)
{
if ((bool)((Component)part).GetComponent <ModuleKerBalloon>())
{
ModuleKerBalloon component = ((Component)part).GetComponent <ModuleKerBalloon>();
if ((component.isInflated || component.isInflating) && !component.hasBurst)
{
list.Add(component);
}
}
}
return(list);
}
public static List <ModuleKerBalloon> getInflatedBalloons(Vessel vessel)
{
List <ModuleKerBalloon> balloons = new List <ModuleKerBalloon>();
foreach (Part part in vessel.parts)
{
if (part.GetComponent <ModuleKerBalloon>())
{
ModuleKerBalloon balloon = part.GetComponent <ModuleKerBalloon>();
if ((balloon.isInflated || balloon.isInflating) && !balloon.hasBurst)
{
balloons.Add(balloon);
}
}
}
return(balloons);
}
