### Register Kiln and Example Recipes (Java)

Source: https://context7.com/ol925/thinktech/llms.txt

Registers the Kiln, a steam-powered multiblock furnace, and shows its inheritance from MTESteamMultiBase. It includes two example recipes: fire bricks production (zero EU cost) and brick firing.

```java
// Registration
Kiln = new ThT_Kiln(
    27003,
    "NameKiln",
    translateToLocalFormatted("mte.kiln")
).getStackForm(1);

// Kiln extends MTESteamMultiBase for steam-based operation
public class ThT_Kiln extends MTESteamMultiBase<ThT_Kiln>
    implements ISurvivalConstructable {

    @Override
    public RecipeMap<?> getRecipeMap() {
        return ThTRecipeMap.Kiln;
    }
}

// Example recipe: Fire bricks production (zero EU cost)
GTValues.RA.stdBuilder()
    .itemInputs(
        Materials.Gypsum.getDust(64),
        Materials.Brick.getDust(64),
        Materials.Brick.getDust(32),
        Materials.Clay.getDust(32)
    )
    .itemOutputs(ItemList.Casing_Firebricks.get(32))
    .eut(0)  // No power required
    .duration(20 * 44)
    .addTo(ThTRecipeMap.Kiln);

// Brick firing recipe
GTValues.RA.stdBuilder()
    .itemInputs(Materials.Clay.getDust(64), Materials.Clay.getDust(64), Materials.Coal.getGems(64))
    .itemOutputs(Materials.Brick.getIngots(64), Materials.Brick.getIngots(64))
    .eut(0)
    .duration(20 * 48)
    .addTo(ThTRecipeMap.Kiln);
```

--------------------------------

### Register General Chemical Factory and Example Recipe (Java)

Source: https://context7.com/ol925/thinktech/llms.txt

Registers the General Chemical Factory and demonstrates its multi-mode operation (Chemical Reactor, General Chemical Factory, Chemical Plant). It also shows how parallel recipes scale with coil tier and provides an example recipe for ammonia synthesis.

```java
// Registration
GeneralFactory = new ThT_GeneralChemicalFactory(
    27002,
    "NameGeneralFactory",
    translateToLocalFormatted("mte.SAF")
).getStackForm(1);

// Mode switching implementation
private static final int MACHINEMODE_MTECR = 0;  // Chemical Reactor
private static final int MACHINEMODE_GCF = 1;    // General Chemical Factory
private static final int MACHINEMODE_GTPP = 2;   // Chemical Plant (no catalyst consumption)

@Override
public RecipeMap<?> getRecipeMap() {
    if (machineMode == MACHINEMODE_MTECR) {
        return RecipeMaps.multiblockChemicalReactorRecipes;
    } else if (machineMode == MACHINEMODE_GTPP) {
        return GTPPRecipeMaps.chemicalPlantRecipes;
    }
    return GeneralChemicalFactory;
}

// Parallel and speed bonuses scale with coil tier
@Override
public int getMaxParallelRecipes() {
    return 8 * (mCoilLevel.getTier() + 1);  // 8 parallel per coil tier
}

// Example recipe: Ammonia synthesis
GTValues.RA.stdBuilder()
    .itemInputs(ThTList.IRON_CATALYST.get(0))
    .fluidInputs(Materials.Hydrogen.getGas(240000), Materials.Nitrogen.getGas(80000))
    .fluidOutputs(Materials.Ammonia.getGas(80000))
    .eut(RECIPE_EV)
    .duration(20 * 120)
    .addTo(ThTRecipeMap.GeneralChemicalFactory);
```

--------------------------------

### Register Czochralski Single Crystal Furnace and Example Recipe (Java)

Source: https://context7.com/ol925/thinktech/llms.txt

Registers the Czochralski Single Crystal Furnace and provides an example recipe for phosphorus-doped silicon ingot production. It also includes a snippet for the chip upgrade system, which enhances parallel processing and speed based on tier.

```java
// Registration
CzochralskiSingleCrystalFurnace = new ThT_CzochralskiSingleCrystalFurnace(
    27001,
    "NameIndustrialVaporDeposition",
    translateToLocalFormatted("mte.CSCF")
).getStackForm(1);

// Example recipe: Phosphorus-doped silicon ingot
GTValues.RA.stdBuilder()
    .itemInputs(ThTList.CRYSTALLINESUBSTRATE.get(0))
    .itemOutputs(ItemList.Circuit_Silicon_Ingot2.get(16))
    .fluidInputs(
        Materials.SiliconTetrachloride.getFluid(64000),
        Materials.Hydrogen.getGas(128000),
        Materials.GalliumArsenide.getMolten(4608),
        ThTMaterial.pentachloride.getMolten(8000)
    )
    .fluidOutputs(Materials.HydrochloricAcid.getFluid(64000))
    .eut(RECIPE_EV)
    .duration(20 * 250)
    .addTo(ThTRecipeMap.CzochralskiSingleCrystalFurnace);

// Chip upgrade system (checked every 20 ticks)
// Tier 1-4 chips provide: parallel = 4 + 8 * tier, speed bonus = 20% per tier
@Override
public void onPostTick(IGregTechTileEntity aBaseMetaTileEntity, long aTick) {
    if (aTick % 20 == 0 && !mUpgraded) {
        ItemStack aGuiStack = this.getControllerSlot();
        if (GTUtility.areStacksEqual(aGuiStack, ThTList.CHIPTIER1.get(1))) {
            this.mUpgraded = true;
            this.mMachineTier = 1;
        }
        // ... additional tier checks
    }
}
```

--------------------------------

### Recipe Map Integration with ThTRecipeMap

Source: https://context7.com/ol925/thinktech/llms.txt

Demonstrates how to extend recipe maps in `ThTRecipeMap` for custom machine recipes using GregTech's standard `GTValues.RA.stdBuilder()` pattern. This is crucial for adding new recipes or modifying existing ones for ThinkTech machines.

```java
GTValues.RA.stdBuilder()....
    .buildAndRegister();
```

--------------------------------

### Custom Item and Chip Registration (Java)

Source: https://context7.com/ol925/thinktech/llms.txt

This Java code snippet outlines the registration process for custom items and high-performance computing chips within the ThinkTech project. It includes the initialization of items like Briquette, Methane Clathrate, and Iron Catalyst, as well as tiered chips (CHIPTIER1 to CHIPTIER4) used for machine upgrades.

```java
// ThTItemLoader - Item registration
public static void loadItem(){
    BRIQUETTE = new Briquette("briquette").setTextureName("thinktech:briquette");
    METHANE_CLATHRATE = new MethaneClathrate("methaneClathrate");
    IRON_CATALYST = new IronCatalyst("ironCatalyst");

    // High Computing Power Chips for machine upgrades
    CHIPTIER1 = new HighComputingCowerChipTier1("chipTier1");
    CHIPTIER2 = new HighComputingCowerChipTier2("chipTier2");
    CHIPTIER3 = new HighComputingCowerChipTier3("chipTier3");
    CHIPTIER4 = new HighComputingCowerChipTier4("chipTier4");

    CRYSTALLINESUBSTRATE = new crystallineSubstrate("crystallineSubstrate");
    PROTEIN_BLOCK = new ProteinBlock("proteinBlock");
}

// ThTList - Item list for recipe references
public enum ThTList implements IItemContainer {
    BRIQUETTE, METHANE_CLATHRATE, SUPER_OREO, IRON_CATALYST,
    CHIPTIER1, CHIPTIER2, CHIPTIER3, CHIPTIER4,
    CRYSTALLINESUBSTRATE, PROTEIN_BLOCK, PWAFER,
    ExplosiveGenerator, CzochralskiSingleCrystalFurnace,
    GeneralFactory, Kiln, NobleGasEnrichmentSystem;
}
```

--------------------------------

### Structure Definition for Auto-Construction

Source: https://context7.com/ol925/thinktech/llms.txt

Shows the implementation of structure definitions using GregTech's StructureLib pattern with `IStructureDefinition`. This enables both creative and survival mode auto-construction of ThinkTech machines.

```java
public class MyStructure implements IStructureDefinition<MyMachine> {
    @Override
    public void defineStructure(StructureBuilder<MyMachine> builder) {
        // Define machine structure here
    }
}
```

--------------------------------

### Noble Gas Enrichment System Registration and Recipes (Java)

Source: https://context7.com/ol925/thinktech/llms.txt

This snippet demonstrates the registration of the NobleGasEnrichmentSystem and defines recipes for different tiers of noble gas enrichment. It includes logic for determining maximum parallel recipes based on controller tier and specifies inputs and outputs for Argon, Neon, Helium, Krypton, Xenon, and Oganesson production.

```java
// Registration
NobleGasEnrichmentSystem = new ThT_NobleGasEnrichmentSystem(
    27004,
    "NameNobleGasEnrichmentSystem",
    translateToLocalFormatted("mte.NGES")
).getStackForm(1);

// Controller tier system affects parallel recipes
@Override
public int getMaxParallelRecipes() {
    switch (controllerTier) {
        case 1: return 16;
        case 2: return 32;
        case 3: return 64;
    }
    return 1;
}

// Tier 1 enrichment recipe (EV tier)
GTValues.RA.stdBuilder()
    .itemInputs(GTUtility.getIntegratedCircuit(1), CHIPTIER1.get(0))
    .fluidOutputs(
        Materials.Argon.getGas(32000),
        WerkstoffLoader.Neon.getFluidOrGas(16000),
        Materials.Helium.getGas(8000),
        WerkstoffLoader.Krypton.getFluidOrGas(4000),
        WerkstoffLoader.Xenon.getFluidOrGas(2000)
    )
    .eut(RECIPE_EV)
    .duration(20 * 90)
    .addTo(ThTRecipeMap.NobleGasEnrichmentSystem);

// Tier 3 Oganesson production (ZPM tier)
GTValues.RA.stdBuilder()
    .itemInputs(
        GTUtility.getIntegratedCircuit(4),
        GregtechItemList.Compressed_Fusion_Reactor.get(0),
        CHIPTIER3.get(0)
    )
    .fluidOutputs(WerkstoffLoader.Oganesson.getFluidOrGas(64000))
    .eut(RECIPE_ZPM)
    .duration(20 * 150)
    .addTo(ThTRecipeMap.NobleGasEnrichmentSystem);
```

--------------------------------

### Define Custom Recipe Maps for ThinkTech Machines (Java)

Source: https://context7.com/ol925/thinktech/llms.txt

This Java code defines custom recipe maps for various ThinkTech machines using GregTech's API. It specifies input/output slots, progress bar textures, and NEI integration for each machine, enabling unique processing capabilities.

```java
package com.OL925.ThinkTech.Recipe;

import gregtech.api.recipe.RecipeMap;
import gregtech.api.recipe.RecipeMapBackend;
import gregtech.api.recipe.RecipeMapBuilder;

public class ThTRecipeMap {
    // Implosion Generator - Fluid explosive power generation
    public static final RecipeMap<RecipeMapBackend> implosionGeneratorFuels = RecipeMapBuilder
        .of("tht.recipe.implosion_generator")
        .maxIO(0, 0, 1, 1)  // 0 item in/out, 1 fluid in/out
        .minInputs(0, 1)
        .build();

    // Czochralski Single Crystal Furnace - Crystal growing
    public static final RecipeMap<RecipeMapBackend> CzochralskiSingleCrystalFurnace = RecipeMapBuilder
        .of("tht.recipe.CSCF")
        .maxIO(3, 2, 4, 1)  // 3 items in, 2 out, 4 fluids in, 1 out
        .build();

    // General Chemical Factory - Multi-mode chemical processing
    public static final RecipeMap<RecipeMapBackend> GeneralChemicalFactory = RecipeMapBuilder
        .of("tht.recipe.SAF")
        .maxIO(12, 12, 9, 9)  // Large capacity for complex recipes
        .build();

    // Kiln - Steam-powered high-temperature processing
    public static final RecipeMap<RecipeMapBackend> Kiln = RecipeMapBuilder
        .of("tht.recipe.kiln")
        .maxIO(6, 6, 0, 0)  // Item-only processing
        .build();

    // Noble Gas Enrichment System - Atmospheric gas extraction
    public static final RecipeMap<RecipeMapBackend> NobleGasEnrichmentSystem = RecipeMapBuilder
        .of("tht.recipe.NGES")
        .maxIO(3, 0, 9, 9)  // 3 items in, 9 fluids in/out
        .build();
}

```

--------------------------------

### Register Implosion Generator Machine (Java)

Source: https://context7.com/ol925/thinktech/llms.txt

This Java code snippet demonstrates the registration of the Implosion Generator multiblock machine within the ThinkTech mod. It initializes the machine with specific parameters and makes it available as an item stack.

```java
// Machine registration in ThTMachineLoader
public static void loadMachine() {
    ExplosiveGenerator = new ThT_ImplosionGenerator(
        27000,
        "NameExplosiveGenerator",
        translateToLocalFormatted("mte.ImplosionGenerator")
    ).getStackForm(1);
    ThTList.ExplosiveGenerator.set(ExplosiveGenerator);
}

```

--------------------------------

### Define Implosion Generator Fuel Recipes (Java)

Source: https://context7.com/ol925/thinktech/llms.txt

This Java code defines the fuel recipes for the Implosion Generator, specifying various fluid explosive inputs and their corresponding energy outputs (voltage). It utilizes GregTech's standard builder to add these recipes to the custom recipe map.

```java
// Fuel recipe definition (implosionGeneratorFlueRecipe.java)
FluidStack[] inputs = new FluidStack[] {
    ThTMaterial.trinitrotoluene.getMolten(1000),  // HV tier
    ThTMaterial.PETN.getMolten(1000),             // EV tier
    Materials.Glyceryl.getFluid(1000),            // IV tier
    ThTMaterial.HMX.getMolten(1000),              // LuV tier
    ThTMaterial.HNIW.getMolten(1000)              // ZPM tier
};
int[] IGFuelVoltage = new int[] { 8192, 32768, 131072, 524288, 2097152 };

// Adding fuel recipes
for (int i = 0; i < 5; i++) {
    GTValues.RA.stdBuilder()
        .fluidInputs(inputs[i])
        .metadata(IMPLOSION_GENERATOR_BASIC_OUTPUT, IGFuelVoltage[i])
        .duration(IGFuelTime[i])
        .addTo(ThTRecipeMap.implosionGeneratorFuels);
}

```

--------------------------------

### Machine Upgrade Chip Insertion Check

Source: https://context7.com/ol925/thinktech/llms.txt

Illustrates the method for checking chip insertion in machine controller slots for upgrades. This code snippet is used within the `onPostTick` method to verify if a controller chip has been inserted.

```java
if (getControllerSlot() != null) {
    // Chip is present, process upgrade
}
```

--------------------------------

### Custom Explosive Material Definitions (Java)

Source: https://context7.com/ol925/thinktech/llms.txt

This Java code defines custom explosive materials like TNT, PETN, HMX, and CL-20 using the Bartworks Werkstoff system. Each material is configured with specific properties including RGB color values, chemical formulas, melting points, and texture sets, intended for use in the Implosion Generator.

```java
package com.OL925.ThinkTech.common.Material;

import bartworks.system.material.Werkstoff;
import gregtech.api.enums.TextureSet;

public class ThTMaterial implements Runnable {
    protected static final int OffsetID = 18100;

    // TNT - HV tier explosive
    public static final Werkstoff trinitrotoluene = new Werkstoff(
        new short[] { 191, 104, 50 },
        "2,4,6-trinitrotoluene",
        subscriptNumbers("C7H5N3O6"),
        new Werkstoff.Stats().setMeltingPoint(354),
        Werkstoff.Types.MATERIAL,
        new Werkstoff.GenerationFeatures().disable().onlyDust().addMolten(),
        OffsetID + 1,
        TextureSet.SET_RUBY
    );

    // PETN - EV tier explosive
    public static final Werkstoff PETN = new Werkstoff(
        new short[] { 221, 221, 221 },
        "PETN",
        subscriptNumbers("C5H8N4O12"),
        new Werkstoff.Stats().setMeltingPoint(139),
        Werkstoff.Types.MATERIAL,
        new Werkstoff.GenerationFeatures().disable().onlyDust().addMolten(),
        OffsetID + 3,
        TextureSet.SET_RUBY
    );

    // HMX (Octogen) - LuV tier explosive
    public static final Werkstoff HMX = new Werkstoff(
        new short[] { 226, 226, 228 },
        "HMX",
        subscriptNumbers("C4H8N8O8"),
        new Werkstoff.Stats().setMeltingPoint(275),
        Werkstoff.Types.MATERIAL,
        new Werkstoff.GenerationFeatures().disable().onlyDust().addMolten(),
        OffsetID + 4,
        TextureSet.SET_RUBY
    );

    // CL-20 (HNIW) - ZPM tier explosive
    public static final Werkstoff HNIW = new Werkstoff(
        new short[] { 230, 230, 230 },
        "HNIW",
        subscriptNumbers("C6N12H6O12"),
        new Werkstoff.Stats().setMeltingPoint(275),
        Werkstoff.Types.MATERIAL,
        new Werkstoff.GenerationFeatures().disable().onlyDust().addMolten(),
        OffsetID + 5,
        TextureSet.SET_RUBY
    );
}
```

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