// IS SCALE INPUT //
//
public static bool isScaleInput(eCurveInputs ci)
{
bool returnValue = false;
if (ci == eCurveInputs.EmitterScale ||
ci == eCurveInputs.Scale)
{
returnValue = true;
}
return(returnValue);
}
// IS ROTATION INPUT //
//
public static bool isRotationInput(eCurveInputs ci)
{
bool returnValue = false;
if (ci == eCurveInputs.EmitterRotation ||
ci == eCurveInputs.Rotation)
{
returnValue = true;
}
return(returnValue);
}
// IS VELOCITY INPUT //
//
public static bool isVelocityInput(eCurveInputs ci)
{
bool returnValue = false;
if (ci == eCurveInputs.EmitterVelocity ||
ci == eCurveInputs.EmitterAcceleration ||
ci == eCurveInputs.Velocity ||
ci == eCurveInputs.Acceleration)
{
returnValue = true;
}
return(returnValue);
}
// IS PARTICLE RELATED INPUT //
//
public static bool isParticleRelatedInput(eCurveInputs ci)
{
bool returnValue = true;
if (ci == eCurveInputs.EmitterTime ||
ci == eCurveInputs.LoopTime ||
ci == eCurveInputs.SpawnRate ||
ci == eCurveInputs.EmitterPosition ||
ci == eCurveInputs.EmitterRotation ||
ci == eCurveInputs.EmitterForward ||
ci == eCurveInputs.EmitterScale ||
ci == eCurveInputs.EmitterAcceleration ||
ci == eCurveInputs.EmitterVelocity ||
ci == eCurveInputs.FrameRate ||
ci == eCurveInputs.ParticleCount)
{
returnValue = false;
}
return(returnValue);
}
// IS FLOAT INPUT //
//
public static bool isFloatInput(eCurveInputs ci)
{
bool returnValue = false;
if (ci == eCurveInputs.EmitterTime ||
ci == eCurveInputs.LoopTime ||
ci == eCurveInputs.ParticleTime ||
ci == eCurveInputs.DeathCondition ||
ci == eCurveInputs.DyingDuration ||
ci == eCurveInputs.DyingTime ||
ci == eCurveInputs.CollisionTime ||
ci == eCurveInputs.SpawnRate ||
ci == eCurveInputs.CustomScalar ||
ci == eCurveInputs.FrameRate ||
ci == eCurveInputs.ParticleCount ||
ci == eCurveInputs.NonZeroParticleCountTime)
{
returnValue = true;
}
return(returnValue);
}
// GET SYSTEM PROPERTY //
//
public static Vector4 GetSystemProperty(AmpsBlueprint theBlueprint, int particleIndex, eCurveInputs property)
{
float f; // Helper variable.
Vector4 returnValue = Vector4.zero;
switch (property)
{
case AmpsHelpers.eCurveInputs.EmitterTime:
returnValue = ConvertFloatVector4(theBlueprint.ownerEmitter.emitterTime);
break;
case AmpsHelpers.eCurveInputs.LoopTime:
returnValue = ConvertFloatVector4(theBlueprint.ownerEmitter.emitterLoopTime);
break;
case AmpsHelpers.eCurveInputs.ParticleTime:
if (particleIndex >= 0)
{
returnValue = ConvertFloatVector4(theBlueprint.ownerEmitter.particleTimes[particleIndex]);
}
break;
case AmpsHelpers.eCurveInputs.DeathCondition:
if (particleIndex >= 0)
{
returnValue = ConvertFloatVector4(theBlueprint.deathConditionStack.values[particleIndex]);
}
break;
case AmpsHelpers.eCurveInputs.DyingDuration:
if (particleIndex >= 0)
{
returnValue = ConvertFloatVector4(theBlueprint.deathDurationStack.values[particleIndex]);
}
break;
case AmpsHelpers.eCurveInputs.DyingTime:
if (particleIndex >= 0)
{
if (theBlueprint.deathDurationStack.values[particleIndex] > 0 && theBlueprint.ownerEmitter.particleDyingTimes[particleIndex] > 0)
{
f = theBlueprint.ownerEmitter.particleDyingTimes[particleIndex] - theBlueprint.ownerEmitter.particleTimes[particleIndex];
f = 1 - (f / theBlueprint.deathDurationStack.values[particleIndex]);
returnValue = ConvertFloatVector4(f);
}
else
{
returnValue = Vector4.zero;
}
}
break;
case AmpsHelpers.eCurveInputs.CollisionTime:
if (particleIndex >= 0)
{
returnValue = ConvertFloatVector4(theBlueprint.ownerEmitter.collisionTimes[particleIndex]);
}
break;
case AmpsHelpers.eCurveInputs.SpawnRate:
returnValue = ConvertFloatVector4(theBlueprint.spawnRateStack.value);
break;
case AmpsHelpers.eCurveInputs.CustomScalar:
if (particleIndex >= 0)
{
returnValue = ConvertFloatVector4(theBlueprint.customScalarStack.values[particleIndex]);
}
break;
case AmpsHelpers.eCurveInputs.FrameRate:
f = 1 / Mathf.Clamp(theBlueprint.ownerEmitter.smoothDeltaTime, 0.016666f, 0.06666f); // Limiting range to 15..60 fps.
returnValue = ConvertFloatVector4((f - 15f) / 45); // Normalizing.
break;
case AmpsHelpers.eCurveInputs.EmitterPosition:
returnValue = theBlueprint.ownerEmitter.emitterPosition;
break;
case AmpsHelpers.eCurveInputs.EmitterRotation:
returnValue = theBlueprint.ownerEmitter.emitterRotation;
break;
case AmpsHelpers.eCurveInputs.EmitterForward:
returnValue = theBlueprint.ownerEmitter.emitterDirection;
break;
case AmpsHelpers.eCurveInputs.EmitterScale:
returnValue = theBlueprint.ownerEmitter.emitterScale;
break;
case AmpsHelpers.eCurveInputs.EmitterAcceleration:
returnValue = theBlueprint.ownerEmitter.emitterAcceleration;
break;
case AmpsHelpers.eCurveInputs.EmitterVelocity:
returnValue = theBlueprint.ownerEmitter.emitterVelocity;
break;
case AmpsHelpers.eCurveInputs.CustomVector:
if (particleIndex >= 0)
{
returnValue = theBlueprint.customVectorStack.values[particleIndex];
}
break;
case AmpsHelpers.eCurveInputs.Acceleration:
if (particleIndex >= 0)
{
returnValue = theBlueprint.accelerationStack.values[particleIndex];
}
break;
case AmpsHelpers.eCurveInputs.Velocity:
if (particleIndex >= 0)
{
returnValue = theBlueprint.velocityStack.values[particleIndex];
}
break;
case AmpsHelpers.eCurveInputs.Position:
if (particleIndex >= 0)
{
returnValue = theBlueprint.positionStack.values[particleIndex];
}
break;
case AmpsHelpers.eCurveInputs.RotationRate:
if (particleIndex >= 0)
{
returnValue = theBlueprint.rotationRateStack.values[particleIndex];
}
break;
case AmpsHelpers.eCurveInputs.Rotation:
if (particleIndex >= 0)
{
returnValue = theBlueprint.rotationStack.values[particleIndex];
}
break;
case AmpsHelpers.eCurveInputs.Forward:
if (particleIndex >= 0)
{
returnValue = Quaternion.Euler(AmpsHelpers.ConvertVector4Vector3(theBlueprint.rotationStack.values[particleIndex])) * Vector3.forward;
}
break;
case AmpsHelpers.eCurveInputs.Scale:
if (particleIndex >= 0)
{
returnValue = theBlueprint.scaleStack.values[particleIndex];
}
break;
case AmpsHelpers.eCurveInputs.Color:
if (particleIndex >= 0)
{
returnValue = theBlueprint.colorStack.values[particleIndex];
}
break;
case AmpsHelpers.eCurveInputs.ParticleCount:
if (theBlueprint.ownerEmitter.particleMarkers != null)
{
returnValue = ConvertFloatVector4(theBlueprint.ownerEmitter.particleMarkers.ActiveCount);
}
break;
case AmpsHelpers.eCurveInputs.EmitterPositionLocal:
returnValue = theBlueprint.ownerEmitter.transform.localPosition;
break;
case AmpsHelpers.eCurveInputs.EmitterRotationLocal:
returnValue = theBlueprint.ownerEmitter.transform.localRotation.eulerAngles;
break;
case AmpsHelpers.eCurveInputs.NonZeroParticleCountTime:
returnValue = ConvertFloatVector4(theBlueprint.ownerEmitter.nonZeroParticleCountTime);
break;
}
return(returnValue);
}
