From d58dc988a2d378cf9c5544f037f074cba169c5f4 Mon Sep 17 00:00:00 2001
From: Alkalus <Draknyte1@hotmail.com>
Date: Tue, 31 Mar 2020 03:31:19 +0100
Subject: + Added NitroBenzene to the Gas Turbine fuel list. (Up for balance) +
 Added recipes for both grinding balls. + Added more milling chains. + Added
 two advanced recipes for obtaining Nitric Acid. + Added Nitric Oxide and
 recipes if it doesn't exist. + Added Nitrogen Dioxide and recipes if it
 doesn't exist. % Changed recipe for Nitrogen Tetroxide. % Adjusted recipe for
 Th232 again. % Changed Rocket Fuels slightly once more, swapped T3 and T4
 fuels back. (Accidentally did them backwards in my last update)

---
 .../gtPlusPlus/core/recipe/RECIPES_GREGTECH.java   | 67 +++++++++++++++-------
 1 file changed, 47 insertions(+), 20 deletions(-)

(limited to 'src/Java/gtPlusPlus/core/recipe')

diff --git a/src/Java/gtPlusPlus/core/recipe/RECIPES_GREGTECH.java b/src/Java/gtPlusPlus/core/recipe/RECIPES_GREGTECH.java
index 2275898c7e..fe4adbf137 100644
--- a/src/Java/gtPlusPlus/core/recipe/RECIPES_GREGTECH.java
+++ b/src/Java/gtPlusPlus/core/recipe/RECIPES_GREGTECH.java
@@ -110,25 +110,51 @@ public class RECIPES_GREGTECH {
 
 	private static void chemplantRecipes() {
 
+		//This is subsequently absorbed in water to form nitric acid and nitric oxide.
+	    //3 NO2 (g) + H2O (l) → 2 HNO3 (aq) + NO (g) (ΔH = −117 kJ/mol)
+	    //The nitric oxide is cycled back for reoxidation. Alternatively, if the last step is carried out in air:
+	    //4 NO2 (g) + O2 (g) + 2 H2O (l) → 4 HNO3 (aq)
+		
 		// Advanced method for Nitric Acid Production
-		/*		CORE.RA.addChemicalPlantRecipe(
-						new ItemStack[] {
-								CI.getNumberedBioCircuit(17),
-								CI.getPinkCatalyst(0),
-						},
-						new FluidStack[] {
-								FluidUtils.getLava(10000),
-								FluidUtils.getDistilledWater(5000)
-						},
-						new ItemStack[] {
+		CORE.RA.addChemicalPlantRecipe(
+				new ItemStack[] {
+						CI.getNumberedBioCircuit(17),
+						CI.getPinkCatalyst(0),
+				},
+				new FluidStack[] {
+						FluidUtils.getFluidStack(GenericChem.Nitrogen_Dioxide, 3000),
+						FluidUtils.getAir(7000)
+				},
+				new ItemStack[] {
 
-						},
-						new FluidStack[] {
-								FluidUtils.getFluidStack("nitricacid", 2000),					
-						},
-						10 * 20,
-						480,
-						3);*/
+				},
+				new FluidStack[] {
+						FluidUtils.getFluidStack("nitricacid", 4000),	
+						FluidUtils.getWater(2000),				
+				},
+				10 * 20,
+				480,
+				3);
+		
+		CORE.RA.addChemicalPlantRecipe(
+				new ItemStack[] {
+						CI.getNumberedBioCircuit(16),
+						CI.getPinkCatalyst(0),
+				},
+				new FluidStack[] {
+						FluidUtils.getFluidStack(GenericChem.Nitrogen_Dioxide, 3000),
+						FluidUtils.getDistilledWater(5000)
+				},
+				new ItemStack[] {
+
+				},
+				new FluidStack[] {
+						FluidUtils.getFluidStack("nitricacid", 2000),	
+						FluidUtils.getFluidStack(GenericChem.Nitric_Oxide, 1500),				
+				},
+				10 * 20,
+				480,
+				2);
 		
 		// Produce Boric Acid
 		CORE.RA.addChemicalPlantRecipe(
@@ -162,15 +188,16 @@ public class RECIPES_GREGTECH {
 						FluidUtils.getFluidStack("boricacid", 1500)
 				}, 
 				new ItemStack[] {
-						ELEMENT.getInstance().THORIUM232.getDust(4),
 						ELEMENT.getInstance().THORIUM.getSmallDust(32),
-						ELEMENT.getInstance().URANIUM232.getDust(2)
+						ELEMENT.getInstance().THORIUM232.getDust(2),
+						ELEMENT.getInstance().THORIUM232.getSmallDust(2),
+						ELEMENT.getInstance().URANIUM232.getDust(1),
 				}, 
 				new FluidStack[] {
 
 				},
 				new int[] {
-						0, 0, 20 
+						0, 0, 1000, 250 
 				},
 				20 * 300, 
 				MaterialUtils.getVoltageForTier(4), 
-- 
cgit