// Wildcard patches -- NathanKell
// These will:
// 1. Increase the temperatures in the Loss curve to 2500/7500 instead of 1000/3000.
// 2. Increase the loss rates by 1.5x at now-2500 shockwave temp, and 3x at 7500
//    (so shielding loss rate will be a fair bit higher).
// 3. Max dissipation once shield is at/above 400C, no sense having the temperature loss
//    be lesser for the same kg of ablative ablated just because the shield is cool.
// 4. Double reflectivity of non-ablative shielding (i.e. nosecones / spaceplane parts).

@PART[*]:HAS[@MODULE[ModuleHeatShield]]:FINAL
{
	@maxTemp = 1800
	@MODULE[ModuleHeatShield]
	{
		@loss
		{
			@key,1 ^= :^1000 ::
			@key,1 ^= : 0 0::
			@key,1 *= 1.5
			@key,1 ^= :$: 0 0:
			@key,1 ^= :^:2500 :

			@key,2 ^= :^3000 ::
			@key,2 ^= : 0 0::
			@key,2 *= 3
			@key,2 ^= :$: 0 0:
			@key,2 ^= :^:7500 :
		}
		@dissipation
		{
			@key,1 ^= :^500::
			@key,1 ^= : 0 0::
			@key,1 *= 1.5
			@key,1 ^= :$: 0 0:
			@key,1 ^= :^:400 :
		}
	}
}
@PART[*]:HAS[@MODULE[ModuleHeatShield]]:FINAL
{
	@MODULE[ModuleHeatShield]:HAS[~ablative[]]
	{
		@reflective *= 2.0
	}
}

@PART[SDHI_2.5_Heatshield]:NEEDS[DeadlyReentry]:Final
{
	@mass = 0.061
	@title = Heatshield (2.5M)
	@MODULE[ModuleHeatShield]
	{

		@direction = 0, -1, 0 // bottom of pod
		@reflective = 0.05 // 5% of heat is ignored at correct angle
		@ablative = AblativeShielding
		@loss
		{ // loss is based on the shockwave temperature (also based on density)
			@key,0 = 650 0 0 0 // start ablating at 650 degrees C
			@key,1 = 2000 568 0 0 // peak ablation at 2000 degrees C
			@key,2 = 6000 710 0 0 // max ablation at 6000 degrees C
		}
		@dissipation
		{ // dissipation is based on the part's current temperature
				@key,0 = 300 0 0 0 // begin ablating at 300 degrees C
				@key,1 = 800 140 0 0 // maximum dissipation at 800 degrees C
		}
	}
}
@PART[TaurusHeatshield]:NEEDS[DeadlyReentry]:Final
{
	@mass = 0.21
	@MODULE[ModuleHeatShield]
	{

		@direction = 0, -1, 0 // bottom of pod
		@reflective = 0.05 // 5% of heat is ignored at correct angle
		@ablative = AblativeShielding
		@loss
		{ // loss is based on the shockwave temperature (also based on density)
			@key,0 = 650 0 0 0 // start ablating at 650 degrees C
			@key,1 = 2000 1500 0 0 // peak ablation at 2000 degrees C
			@key,2 = 6000 2000 0 0 // max ablation at 6000 degrees C
		}
		@dissipation
		{ // dissipation is based on the part's current temperature
				@key,0 = 300 0 0 0 // begin ablating at 300 degrees C
				@key,1 = 800 50 0 0 // maximum dissipation at 800 degrees C
		}
	}
}