Difference between revisions of "Parts/Electrical/RTG/RTG.cfg"

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m (*update to 1.0;)
(updated cfg for PB-Nuk to 1.05)
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title = PB-NUK Radioisotope Thermoelectric Generator
 
title = PB-NUK Radioisotope Thermoelectric Generator
 
manufacturer = Ionic Symphonic Protonic Electronics
 
manufacturer = Ionic Symphonic Protonic Electronics
description = Through exploitation of the natural decay of Blutonium-238, this elegantly simple power generator can provide consistent, stable power for decades. It's also waterproof and dishwasher-safe.
+
description = Through exploitation of the natural decay of Blutonium-238, this elegantly simple power generator can provide consistent, stable power for decades. Not to be used for providing heating during emergency rover excursions.
 
attachRules = 1,1,1,0,0
 
attachRules = 1,1,1,0,0
 
mass = 0.08
 
mass = 0.08
Line 27: Line 27:
 
maxTemp = 1200 // = 3000
 
maxTemp = 1200 // = 3000
 
bulkheadProfiles = size0, srf
 
bulkheadProfiles = size0, srf
 +
radiatorMax = 1.5
 +
 +
 
MODULE
 
MODULE
 
{
 
{
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}
 
}
 
}
 
}
}
 
  
 +
 +
MODULE
 +
{
 +
name = ModuleCoreHeat
 +
CoreTempGoal = 350 //Internal temp goal - we don't transfer till we hit this point
 +
CoreToPartRatio = 0.1 //Scale back cooling if the part is this % of core temp
 +
CoreTempGoalAdjustment = 0 //Dynamic goal adjustment
 +
CoreEnergyMultiplier = 0.01 //What percentage of our core energy do we transfer to the part
 +
HeatRadiantMultiplier = 0.01 //If the core is hotter, how much heat radiates?
 +
CoolingRadiantMultiplier = 0 //If the core is colder, how much radiates?
 +
HeatTransferMultiplier = 0 //If the part is hotter, how much heat transfers in?
 +
CoolantTransferMultiplier = 0 //If the part is colder, how much of our energy can we transfer?
 +
radiatorCoolingFactor = 0 //How much energy we pull from core with an active radiator?  >= 1
 +
radiatorHeatingFactor = 0 //How much energy we push to the active radiator
 +
MaxCalculationWarp = 1000 //Based on how dramatic the changes are, this is the max rate of change
 +
CoreShutdownTemp = 10000 //At what core temperature do we shut down all generators on this part?
 +
MaxCoolant = 0 //Maximum amount of radiator capacity we can consume - 2500 = 1 small
 +
PassiveEnergy
 +
{
 +
key = 0 25000
 +
key = 200 10000
 +
key = 250 50
 +
key = 300 25
 +
key = 350 0
 +
}
 +
}
 
}}
 
}}

Revision as of 16:19, 14 February 2016

This is the configuration file for PB-NUK Radioisotope Thermoelectric Generator.
PART
{
	name = rtg
	module = Part
	author = NovaSilisko
	mesh = model.mu
	scale = 1
	rescaleFactor = 1
	node_stack_top = 0.0, 0.3268025, 0.0, 0.0, 1.0, 0.0, 0
	node_stack_bottom = 0.0, -0.3268025, 0.0, 0.0, -1.0, 0.0, 0
	node_attach = 0.0, -0.3268025, 0.0, 0.0, -1.0, 0.0, 0
	TechRequired = experimentalElectrics
	entryCost = 58000
	cost = 23300
	category = Utility
	subcategory = 0
	title = PB-NUK Radioisotope Thermoelectric Generator
	manufacturer = Ionic Symphonic Protonic Electronics
	description = Through exploitation of the natural decay of Blutonium-238, this elegantly simple power generator can provide consistent, stable power for decades. Not to be used for providing heating during emergency rover excursions.
	attachRules = 1,1,1,0,0
	mass = 0.08
	dragModelType = default
	maximum_drag = 0.2
	minimum_drag = 0.2
	angularDrag = 2
	crashTolerance = 7
	maxTemp = 1200 // = 3000
	bulkheadProfiles = size0, srf
	radiatorMax = 1.5
	
	
	MODULE
	{
		name = ModuleGenerator
		isAlwaysActive = true
		OUTPUT_RESOURCE
		{
			name = ElectricCharge
			rate = 0.75
		}
	}


	MODULE
	{
		name = ModuleCoreHeat
		CoreTempGoal = 350					//Internal temp goal - we don't transfer till we hit this point
		CoreToPartRatio = 0.1				//Scale back cooling if the part is this % of core temp
		CoreTempGoalAdjustment = 0			//Dynamic goal adjustment
		CoreEnergyMultiplier = 0.01			//What percentage of our core energy do we transfer to the part
		HeatRadiantMultiplier = 0.01			//If the core is hotter, how much heat radiates?
		CoolingRadiantMultiplier = 0		//If the core is colder, how much radiates?
		HeatTransferMultiplier = 0			//If the part is hotter, how much heat transfers in?
		CoolantTransferMultiplier = 0		//If the part is colder, how much of our energy can we transfer?
		radiatorCoolingFactor = 0			//How much energy we pull from core with an active radiator?  >= 1
		radiatorHeatingFactor = 0			//How much energy we push to the active radiator
		MaxCalculationWarp = 1000			//Based on how dramatic the changes are, this is the max rate of change
		CoreShutdownTemp = 10000			//At what core temperature do we shut down all generators on this part?
		MaxCoolant = 0						//Maximum amount of radiator capacity we can consume - 2500 = 1 small
		PassiveEnergy
		{
			key = 0 	25000
			key = 200 	10000
			key = 250 	50		
			key = 300	25
			key = 350	0
		}
	}