Strange bug with sky...

[CJCutrone9]

So, I created a custom dimension (for like the 5th time now, and unlike all my other ones, this one seems to "glitch out". If I log outwhile in this dimension, and then back in, the sky becomes the "ender sky" and the biome turns into becomes ocean biome (the blocks stay the same, just a different tag on the biome. If I leave the dimension and come back, it is all fixed. I can't seem to figure it out.:

 

World Provider:

 

package net.Cutrone.LegoUniverse.dimension;

 

import net.Cutrone.LegoUniverse.common.LegoUniverse;

import net.minecraft.block.Block;

import net.minecraft.util.ChunkCoordinates;

import net.minecraft.util.MathHelper;

import net.minecraft.util.Vec3;

import net.minecraft.world.WorldProvider;

import net.minecraft.world.biome.BiomeGenBase;

 

import net.minecraft.world.chunk.IChunkProvider;

import cpw.mods.fml.relauncher.Side;

import cpw.mods.fml.relauncher.SideOnly;

 

public class WorldProviderNimbus extends WorldProvider

{

    /**

    * creates a new world chunk manager for WorldProvider

    */

    public void registerWorldChunkManager()

    {

        this.worldChunkMgr = new WorldChunkManagerNimbus(LegoUniverse.BiomeGenForest, 0.5F, 0.0F);

        this.dimensionId = 1;

        this.hasNoSky = false;

    }

    private long j;

   

    /**

    * Returns a new chunk provider which generates chunks for this world

    */

    public IChunkProvider createChunkGenerator()

    {

    j= 7740631;

        return new ChunkProviderNimbus(this.worldObj, j, false);

    }

 

    /**

    * Calculates the angle of sun and moon in the sky relative to a specified time (usually worldTime)

    */

    public float calculateCelestialAngle(long par1, float par3)

    {

        return 0.0F;

    }

 

    @SideOnly(Side.CLIENT)

 

    /**

    * Returns array with sunrise/sunset colors

    */

    public float[] calcSunriseSunsetColors(float par1, float par2)

    {

        return null;

    }

 

    @SideOnly(Side.CLIENT)

 

    /**

    * Return Vec3D with biome specific fog color

    */

    public Vec3 getFogColor(float par1, float par2)

    {

        int i = 10518688;

        float f2 = MathHelper.cos(par1 * (float)Math.PI * 2.0F) * 2.0F + 0.5F;

 

        if (f2 < 0.0F)

        {

            f2 = 0.0F;

        }

 

        if (f2 > 1.0F)

        {

            f2 = 1.0F;

        }

 

        float f3 = (float)(i >> 16 & 255) / 255.0F;

        float f4 = (float)(i >> 8 & 255) / 255.0F;

        float f5 = (float)(i & 255) / 255.0F;

        f3 *= f2 * 0.0F + 0.15F;

        f4 *= f2 * 0.0F + 0.15F;

        f5 *= f2 * 0.0F + 0.15F;

        return this.worldObj.getWorldVec3Pool().getVecFromPool((double)f3, (double)f4, (double)f5);

    }

 

    @SideOnly(Side.CLIENT)

    public boolean isSkyColored()

    {

        return true;

    }

 

    /**

    * True if the player can respawn in this dimension (true = overworld, false = nether).

    */

    public boolean canRespawnHere()

    {

        return false;

    }

 

    /**

    * Returns 'true' if in the "main surface world", but 'false' if in the Nether or End dimensions.

    */

    public boolean isSurfaceWorld()

    {

        return true;

    }

 

    @SideOnly(Side.CLIENT)

 

    /**

    * the y level at which clouds are rendered.

    */

    public float getCloudHeight()

    {

        return 8.0F;

    }

 

    /**

    * Will check if the x, z position specified is alright to be set as the map spawn point

    */

    public boolean canCoordinateBeSpawn(int par1, int par2)

    {

        int k = this.worldObj.getFirstUncoveredBlock(par1, par2);

        return k == 0 ? false : Block.blocksList[k].blockMaterial.blocksMovement();

    }

 

    /**

    * Gets the hard-coded portal location to use when entering this dimension.

    */

    public ChunkCoordinates getEntrancePortalLocation()

    {

        return new ChunkCoordinates(100, 50, 0);

    }

 

    public int getAverageGroundLevel()

    {

        return 50;

    }

 

    @SideOnly(Side.CLIENT)

 

    /**

    * Returns true if the given X,Z coordinate should show environmental fog.

    */

    public boolean doesXZShowFog(int par1, int par2)

    {

        return true;

    }

 

    /**

    * Returns the dimension's name, e.g. "The End", "Nether", or "Overworld".

    */

    public String getDimensionName()

    {

        return "The Nimbus Station";

    }

}

 

 

Chunk Provider:

 

package net.Cutrone.LegoUniverse.dimension;

 

import java.util.List;

import java.util.Random;

 

import net.Cutrone.LegoUniverse.common.LegoUniverseBlocks;

import net.minecraft.block.Block;

import net.minecraft.block.BlockSand;

import net.minecraft.client.main.Main;

import net.minecraft.entity.EnumCreatureType;

import net.minecraft.util.IProgressUpdate;

import net.minecraft.util.MathHelper;

import net.minecraft.world.ChunkPosition;

import net.minecraft.world.SpawnerAnimals;

import net.minecraft.world.World;

import net.minecraft.world.biome.BiomeGenBase;

import net.minecraft.world.chunk.Chunk;

import net.minecraft.world.chunk.IChunkProvider;

import net.minecraft.world.gen.MapGenBase;

 

import net.minecraft.world.gen.MapGenRavine;

import net.minecraft.world.gen.NoiseGeneratorOctaves;

import net.minecraft.world.gen.feature.MapGenScatteredFeature;

import net.minecraft.world.gen.feature.WorldGenLakes;

import net.minecraft.world.gen.structure.MapGenMineshaft;

import net.minecraft.world.gen.structure.MapGenStronghold;

import net.minecraft.world.gen.structure.MapGenVillage;

import net.minecraftforge.common.MinecraftForge;

import net.minecraftforge.event.Event.Result;

import net.minecraftforge.event.terraingen.ChunkProviderEvent;

import net.minecraftforge.event.terraingen.PopulateChunkEvent;

import net.minecraftforge.event.terraingen.TerrainGen;

 

public class ChunkProviderNimbus implements IChunkProvider

{

private Random rand;

private NoiseGeneratorOctaves noiseGen1;

private NoiseGeneratorOctaves noiseGen2;

private NoiseGeneratorOctaves noiseGen3;

private NoiseGeneratorOctaves noiseGen4;

public NoiseGeneratorOctaves noiseGen5;

public NoiseGeneratorOctaves noiseGen6;

public NoiseGeneratorOctaves mobSpawnerNoise;

private World worldObj;

private final boolean mapFeaturesEnabled;

private double[] noiseArray;

private double[] stoneNoise = new double[256];

private MapGenBase caveGenerator = new MapGenCavesNimbus();

private MapGenStronghold strongholdGenerator = new MapGenStronghold();

private MapGenVillage villageGenerator = new MapGenVillage();

private MapGenMineshaft mineshaftGenerator = new MapGenMineshaft();

private MapGenScatteredFeature scatteredFeatureGenerator = new MapGenScatteredFeature();

private MapGenBase ravineGenerator = new MapGenRavinesNimbus();

private BiomeGenBase[] biomesForGeneration;

double[] noiseData1;

double[] noiseData2;

double[] noiseData3;

double[] noiseData4;

double[] noiseData5;

float[] parabolicField;

int[][] field_73219_j = new int[32][32];

private double[] densities;

 

public ChunkProviderNimbus(World par1World, long par2, boolean par4) {

    this.worldObj = par1World;

    this.rand = new Random(par2);

    this.noiseGen1 = new NoiseGeneratorOctaves(this.rand, 16);

    this.noiseGen2 = new NoiseGeneratorOctaves(this.rand, 16);

    this.noiseGen3 = new NoiseGeneratorOctaves(this.rand, ;

    this.noiseGen4 = new NoiseGeneratorOctaves(this.rand, 10);

    this.noiseGen5 = new NoiseGeneratorOctaves(this.rand, 16);

    this.mapFeaturesEnabled = par4;

   

    NoiseGeneratorOctaves[] noiseGens = {noiseGen1, noiseGen2, noiseGen3, noiseGen4, noiseGen5};

    noiseGens = TerrainGen.getModdedNoiseGenerators(par1World, this.rand, noiseGens);

    this.noiseGen1 = noiseGens[0];

    this.noiseGen2 = noiseGens[1];

    this.noiseGen3 = noiseGens[2];

    this.noiseGen4 = noiseGens[3];

    this.noiseGen5 = noiseGens[4];

}

/**

* Generates the shape of the terrain for the chunk though its all stone though the water is frozen if the

* temperature is low enough

*/

public void generateTerrain(int par1, int par2, byte[] par3ArrayOfByte)

{

  byte b0 = 2;

    int k = b0 + 1;

    byte b1 = 33;

    int l = b0 + 1;

    this.densities = this.initializeNoiseField(this.densities, par1 * b0, 0, par2 * b0, k, b1, l);

 

    for (int i1 = 0; i1 < b0; ++i1)

    {

        for (int j1 = 0; j1 < b0; ++j1)

        {

            for (int k1 = 0; k1 < 32; ++k1)

            {

                double d0 = 0.25D;

                double d1 = this.densities[((i1 + 0) * l + j1 + 0) * b1 + k1 + 0];

                double d2 = this.densities[((i1 + 0) * l + j1 + 1) * b1 + k1 + 0];

                double d3 = this.densities[((i1 + 1) * l + j1 + 0) * b1 + k1 + 0];

                double d4 = this.densities[((i1 + 1) * l + j1 + 1) * b1 + k1 + 0];

                double d5 = (this.densities[((i1 + 0) * l + j1 + 0) * b1 + k1 + 1] - d1) * d0;

                double d6 = (this.densities[((i1 + 0) * l + j1 + 1) * b1 + k1 + 1] - d2) * d0;

                double d7 = (this.densities[((i1 + 1) * l + j1 + 0) * b1 + k1 + 1] - d3) * d0;

                double d8 = (this.densities[((i1 + 1) * l + j1 + 1) * b1 + k1 + 1] - d4) * d0;

 

                for (int l1 = 0; l1 < 4; ++l1)

                {

                    double d9 = 0.125D;

                    double d10 = d1;

                    double d11 = d2;

                    double d12 = (d3 - d1) * d9;

                    double d13 = (d4 - d2) * d9;

 

                    for (int i2 = 0; i2 < 8; ++i2)

                    {

                        int j2 = i2 + i1 * 8 << 11 | 0 + j1 * 8 << 7 | k1 * 4 + l1;

                        short short1 = 128;

                        double d14 = 0.125D;

                        double d15 = d10;

                        double d16 = (d11 - d10) * d14;

 

                        for (int k2 = 0; k2 < 8; ++k2)

                        {

                            int l2 = 0;

 

                            if (d15 > 0.0D)

                            {

                                l2 = LegoUniverseBlocks.Asteroid.blockID;

                            }

 

                            par3ArrayOfByte[j2] = (byte)l2;

                            j2 += short1;

                            d15 += d16;

                        }

 

                        d10 += d12;

                        d11 += d13;

                    }

 

                    d1 += d5;

                    d2 += d6;

                    d3 += d7;

                    d4 += d8;

                }

            }

        }

    }

 

}

 

private double[] initializeNoiseField(double[] par1ArrayOfDouble, int par2, int par3, int par4, int par5, int par6, int par7)

{

    ChunkProviderEvent.InitNoiseField event = new ChunkProviderEvent.InitNoiseField(this, par1ArrayOfDouble, par2, par3, par4, par5, par6, par7);

    MinecraftForge.EVENT_BUS.post(event);

    if (event.getResult() == Result.DENY) return event.noisefield;

 

    if (par1ArrayOfDouble == null)

    {

        par1ArrayOfDouble = new double[par5 * par6 * par7];

    }

 

    double d0 = 684.412D;

    double d1 = 684.412D;

    this.noiseData4 = this.noiseGen4.generateNoiseOctaves(this.noiseData4, par2, par4, par5, par7, 1.121D, 1.121D, 0.5D);

    this.noiseData5 = this.noiseGen5.generateNoiseOctaves(this.noiseData5, par2, par4, par5, par7, 200.0D, 200.0D, 0.5D);

    d0 *= 2.0D;

    this.noiseData1 = this.noiseGen3.generateNoiseOctaves(this.noiseData1, par2, par3, par4, par5, par6, par7, d0 / 80.0D, d1 / 160.0D, d0 / 80.0D);

    this.noiseData2 = this.noiseGen1.generateNoiseOctaves(this.noiseData2, par2, par3, par4, par5, par6, par7, d0, d1, d0);

    this.noiseData3 = this.noiseGen2.generateNoiseOctaves(this.noiseData3, par2, par3, par4, par5, par6, par7, d0, d1, d0);

    int k1 = 0;

    int l1 = 0;

 

    for (int i2 = 0; i2 < par5; ++i2)

    {

        for (int j2 = 0; j2 < par7; ++j2)

        {

            double d2 = (this.noiseData4[l1] + 256.0D) / 512.0D;

 

            if (d2 > 1.0D)

            {

                d2 = 1.0D;

            }

 

            double d3 = this.noiseData5[l1] / 8000.0D;

 

            if (d3 < 0.0D)

            {

                d3 = -d3 * 0.3D;

            }

 

            d3 = d3 * 3.0D - 2.0D;

            float f = (float)(i2 + par2 - 0) / 1.0F;

            float f1 = (float)(j2 + par4 - 0) / 1.0F;

            float f2 = 100.0F - MathHelper.sqrt_float(f * f + f1 * f1) * 8.0F;

 

            if (f2 > 80.0F)

            {

                f2 = 80.0F;

            }

 

            if (f2 < -100.0F)

            {

                f2 = -100.0F;

            }

 

            if (d3 > 1.0D)

            {

                d3 = 1.0D;

            }

 

            d3 /= 8.0D;

            d3 = 0.0D;

 

            if (d2 < 0.0D)

            {

                d2 = 0.0D;

            }

 

            d2 += 0.5D;

            d3 = d3 * (double)par6 / 16.0D;

            ++l1;

            double d4 = (double)par6 / 2.0D;

 

            for (int k2 = 0; k2 < par6; ++k2)

            {

                double d5 = 0.0D;

                double d6 = ((double)k2 - d4) * 8.0D / d2;

 

                if (d6 < 0.0D)

                {

                    d6 *= -1.0D;

                }

 

                double d7 = this.noiseData2[k1] / 512.0D;

                double d8 = this.noiseData3[k1] / 512.0D;

                double d9 = (this.noiseData1[k1] / 10.0D + 1.0D) / 2.0D;

 

                if (d9 < 0.0D)

                {

                    d5 = d7;

                }

                else if (d9 > 1.0D)

                {

                    d5 = d8;

                }

                else

                {

                    d5 = d7 + (d8 - d7) * d9;

                }

 

                d5 -= 8.0D;

                d5 += (double)f2;

                byte b0 = 2;

                double d10;

 

                if (k2 > par6 / 2 - b0)

                {

                    d10 = (double)((float)(k2 - (par6 / 2 - b0)) / 64.0F);

 

                    if (d10 < 0.0D)

                    {

                        d10 = 0.0D;

                    }

 

                    if (d10 > 1.0D)

                    {

                        d10 = 1.0D;

                    }

 

                    d5 = d5 * (1.0D - d10) + -3000.0D * d10;

                }

 

                b0 = 8;

 

                if (k2 < b0)

                {

                    d10 = (double)((float)(b0 - k2) / ((float)b0 - 1.0F));

                    d5 = d5 * (1.0D - d10) + -30.0D * d10;

                }

 

                par1ArrayOfDouble[k1] = d5;

                ++k1;

            }

        }

    }

 

    return par1ArrayOfDouble;

}

 

public void replaceBlocksForBiome(int par1, int par2, byte[] par3ArrayOfByte, BiomeGenBase[] par4ArrayOfBiomeGenBase)

{

byte var5 = 63;

double var6 = 0.03125D;

this.stoneNoise = this.noiseGen4.generateNoiseOctaves(this.stoneNoise, par1 * 16, par2 * 16, 0, 16, 16, 1, var6 * 2.0D, var6 * 2.0D, var6 * 2.0D);

for (int var8 = 0; var8 < 16; var8++)

{

for (int var9 = 0; var9 < 16; var9++)

{

BiomeGenBase var10 = par4ArrayOfBiomeGenBase[(var9 + var8 * 16)];

float var11 = var10.getFloatTemperature();

int var12 = (int)(this.stoneNoise[(var8 + var9 * 16)] / 3.0D + 3.0D + this.rand.nextDouble() * 0.25D);

int var13 = -1;

byte var14 = var10.topBlock;

byte var15 = var10.fillerBlock;

for (int var16 = 127; var16 >= 0; var16--)

{

        int var17 = (var9 * 16 + var8) * 128 + var16;

        if (var16 <= 0 + this.rand.nextInt(5))

        {

        par3ArrayOfByte[var17] = ((byte)0);

        }

        else

        {

        byte var18 = par3ArrayOfByte[var17];

        if (var18 == 0)

        {

        var13 = -1;

        }

        /** Main filler block fill's all the underground, replaces block stone **/

        else if (var18 != 253)

        {

        if (var13 == -1)

        {

        if (var12 == 0)

        {

                var14 = (byte)Block.grass.blockID;

               

                /** change to custom dirt **/

                var15 = (byte)LegoUniverseBlocks.Asteroid.blockID;//

        }

        else if ((var16 >= var5 - 4) && (var16 <= var5 + 1))

        {

                var14 = (byte)Block.grass.blockID;

                var15 = (byte)LegoUniverseBlocks.Asteroid.blockID;

        }

        if ((var16 < var5) && (var14 == 0))

        {

                if (var11 < 0.15F)

                {

                var14 = (byte)Block.ice.blockID;

                }

                else

                {

                var14 = (byte)Block.waterStill.blockID;

                }

        }

        var13 = var12;

        if (var16 >= var5 - 1)

        {

                par3ArrayOfByte[var17] = var14;

        }

        else

        {

                par3ArrayOfByte[var17] = var15;

        }

        }

        else if (var13 > 0)

        {

        var13--;

        par3ArrayOfByte[var17] = var15;

        if ((var13 == 0) && (var15 == Block.sand.blockID))

        {

                var13 = this.rand.nextInt(4);

                var15 = (byte)Block.sandStone.blockID;

        }

        }

        }

        }

}

}

}

}

public Chunk loadChunk(int par1, int par2)

{

return provideChunk(par1, par2);

}

public Chunk provideChunk(int par1, int par2)

{

this.rand.setSeed(par1 * 341873128712L + par2 * 132897987541L);

byte[] var3 = new byte[32768];

generateTerrain(par1, par2, var3);

this.biomesForGeneration = this.worldObj.getWorldChunkManager().loadBlockGeneratorData(this.biomesForGeneration, par1 * 16, par2 * 16, 16, 16);

replaceBlocksForBiome(par1, par2, var3, this.biomesForGeneration);

this.caveGenerator.generate(this, this.worldObj, par1, par2, var3);

this.ravineGenerator.generate(this, this.worldObj, par1, par2, var3);

if (this.mapFeaturesEnabled)

{

this.mineshaftGenerator.generate(this, this.worldObj, par1, par2, var3);

this.villageGenerator.generate(this, this.worldObj, par1, par2, var3);

this.strongholdGenerator.generate(this, this.worldObj, par1, par2, var3);

this.scatteredFeatureGenerator.generate(this, this.worldObj, par1, par2, var3);

}

Chunk var4 = new Chunk(this.worldObj, var3, par1, par2);

byte[] var5 = var4.getBiomeArray();

for (int var6 = 0; var6 < var5.length; var6++)

{

var5[var6] = ((byte)this.biomesForGeneration[var6].biomeID);

}

var4.generateSkylightMap();

return var4;

}

 

public boolean chunkExists(int par1, int par2)

{

return true;

}

public void populate(IChunkProvider par1IChunkProvider, int par2, int par3)

{

    BlockSand.fallInstantly = true;

 

    MinecraftForge.EVENT_BUS.post(new PopulateChunkEvent.Pre(par1IChunkProvider, worldObj, worldObj.rand, par2, par3, false));

 

    int k = par2 * 16;

    int l = par3 * 16;

    BiomeGenBase biomegenbase = this.worldObj.getBiomeGenForCoords(k + 16, l + 16);

   

    WorldGeneratorNimbus n = new WorldGeneratorNimbus();

    n.generate(worldObj, rand, par2/16, 6, par3/16);

 

    MinecraftForge.EVENT_BUS.post(new PopulateChunkEvent.Post(par1IChunkProvider, worldObj, worldObj.rand, par2, par3, false));

 

    BlockSand.fallInstantly = false;

}

public boolean saveChunks(boolean par1, IProgressUpdate par2IProgressUpdate)

{

return true;

}

public boolean unload100OldestChunks()

{

return false;

}

public boolean canSave()

{

return true;

}

public String makeString()

{

return "RandomLevelSource";

}

public List getPossibleCreatures(EnumCreatureType par1EnumCreatureType, int par2, int par3, int par4)

{

BiomeGenBase var5 = this.worldObj.getBiomeGenForCoords(par2, par4);

return var5 == null ? null : var5.getSpawnableList(par1EnumCreatureType);

}

public ChunkPosition findClosestStructure(World par1World, String par2Str, int par3, int par4, int par5)

{

return ("Stronghold".equals(par2Str)) && (this.strongholdGenerator != null) ? this.strongholdGenerator.getNearestInstance(par1World, par3, par4, par5) : null;

}

public int getLoadedChunkCount() {

return 0;

}

public boolean unloadQueuedChunks()

{

return false;

}

 

@Override

public void saveExtraData(){

 

}

@Override

public void recreateStructures(int i, int j) {

  // TODO Auto-generated method stub

 

}

 

}

 

 

World Chunk Manager:

 

package net.Cutrone.LegoUniverse.dimension;

 

import java.util.Arrays;

import java.util.List;

import java.util.Random;

 

import net.minecraft.world.ChunkPosition;

import net.minecraft.world.biome.BiomeGenBase;

import net.minecraft.world.biome.WorldChunkManager;

 

public class WorldChunkManagerNimbus extends WorldChunkManager

{

    /** this is the sole biome to utilize for this world */

    private BiomeGenBase biomeToUse;

    private float temp;

 

    /** The rainfall in the world */

    private float rainfall;

 

    public WorldChunkManagerNimbus(BiomeGenBase par1BiomeGenBase, float par2, float par3)

    {

        this.biomeToUse = par1BiomeGenBase;

        this.temp = par2;

        this.rainfall = par3;

    }

 

    /**

    * Returns the BiomeGenBase related to the x, z position on the world.

    */

    public BiomeGenBase getBiomeGenAt(int par1, int par2)

    {

        return this.biomeToUse;

    }

 

    /**

    * Returns an array of biomes for the location input.

    */

    public BiomeGenBase[] getBiomesForGeneration(BiomeGenBase[] par1ArrayOfBiomeGenBase, int par2, int par3, int par4, int par5)

    {

        if (par1ArrayOfBiomeGenBase == null || par1ArrayOfBiomeGenBase.length < par4 * par5)

        {

            par1ArrayOfBiomeGenBase = new BiomeGenBase[par4 * par5];

        }

 

        Arrays.fill(par1ArrayOfBiomeGenBase, 0, par4 * par5, this.biomeToUse);

        return par1ArrayOfBiomeGenBase;

    }

 

    /**

    * Returns a list of temperatures to use for the specified blocks.  Args: listToReuse, x, y, width, length

    */

    public float[] getTemperatures(float[] par1ArrayOfFloat, int par2, int par3, int par4, int par5)

    {

        if (par1ArrayOfFloat == null || par1ArrayOfFloat.length < par4 * par5)

        {

            par1ArrayOfFloat = new float[par4 * par5];

        }

 

        Arrays.fill(par1ArrayOfFloat, 0, par4 * par5, this.temp);

        return par1ArrayOfFloat;

    }

 

    /**

    * Returns a list of rainfall values for the specified blocks. Args: listToReuse, x, z, width, length.

    */

    public float[] getRainfall(float[] par1ArrayOfFloat, int par2, int par3, int par4, int par5)

    {

        if (par1ArrayOfFloat == null || par1ArrayOfFloat.length < par4 * par5)

        {

            par1ArrayOfFloat = new float[par4 * par5];

        }

 

        Arrays.fill(par1ArrayOfFloat, 0, par4 * par5, this.rainfall);

        return par1ArrayOfFloat;

    }

 

    /**

    * Returns biomes to use for the blocks and loads the other data like temperature and humidity onto the

    * WorldChunkManager Args: oldBiomeList, x, z, width, depth

    */

    public BiomeGenBase[] loadBlockGeneratorData(BiomeGenBase[] par1ArrayOfBiomeGenBase, int par2, int par3, int par4, int par5)

    {

        if (par1ArrayOfBiomeGenBase == null || par1ArrayOfBiomeGenBase.length < par4 * par5)

        {

            par1ArrayOfBiomeGenBase = new BiomeGenBase[par4 * par5];

        }

 

        Arrays.fill(par1ArrayOfBiomeGenBase, 0, par4 * par5, this.biomeToUse);

        return par1ArrayOfBiomeGenBase;

    }

 

    /**

    * Return a list of biomes for the specified blocks. Args: listToReuse, x, y, width, length, cacheFlag (if false,

    * don't check biomeCache to avoid infinite loop in BiomeCacheBlock)

    */

    public BiomeGenBase[] getBiomeGenAt(BiomeGenBase[] par1ArrayOfBiomeGenBase, int par2, int par3, int par4, int par5, boolean par6)

    {

        return this.loadBlockGeneratorData(par1ArrayOfBiomeGenBase, par2, par3, par4, par5);

    }

 

    /**

    * Finds a valid position within a range, that is in one of the listed biomes. Searches {par1,par2} +-par3 blocks.

    * Strongly favors positive y positions.

    */

    public ChunkPosition findBiomePosition(int par1, int par2, int par3, List par4List, Random par5Random)

    {

        return par4List.contains(this.biomeToUse) ? new ChunkPosition(par1 - par3 + par5Random.nextInt(par3 * 2 + 1), 0, par2 - par3 + par5Random.nextInt(par3 * 2 + 1)) : null;

    }

 

    /**

    * checks given Chunk's Biomes against List of allowed ones

    */

    public boolean areBiomesViable(int par1, int par2, int par3, List par4List)

    {

        return par4List.contains(this.biomeToUse);

    }

}

 

 

 

 

 

Any help would be awesome right now. I just can't figure it out.

[GotoLink]

this.dimensionId = 1;

That is the End dimension id.

[CJCutrone9]

Dang do I feel stupid...