/// <summary>
/// Initializes a new instance of Turbulence.
/// </summary>
public Turbulence()
: base(1)
{
this.m_xDistort = new Perlin();
this.m_yDistort = new Perlin();
this.m_zDistort = new Perlin();
}
public void GenerateHeightMap()
{
var perlin = new LibNoise.Unity.Generator.Perlin(Frequency, Lacunarity, Persistence, Octaves, Seed, LibNoise.Unity.QualityMode.High);
//var ridged = new LibNoise.Unity.Generator.RidgedMultifractal(Frequency, Lacunarity, Octaves, Seed, LibNoise.Unity.QualityMode.Medium);
//var turb = new LibNoise.Unity.Operator.Turbulence(0.25, perlin);
//var layered = new LibNoise.Unity.Operator.Multiply(perlin, ridged);
//var
var scaled = new LibNoise.Unity.Operator.ScaleBias(Scaling, ScaleBias, perlin);
var final = new LibNoise.Unity.Operator.Terrace(false, scaled);
//for (float i = 0; i < 50; i += 10)
final.Add(0f);
final.Add(10f);
final.Add(100f);
var noise = new LibNoise.Unity.Noise2D(TotalSize, final);
noise.GeneratePlanar(ClipX, ClipX + (ClipSize * ChunksPerSide), ClipY, ClipY + (ClipSize * ChunksPerSide));
GameObject.Destroy(HeightMap);
HeightMap = noise.GetTexture(LibNoise.Unity.Gradient.Grayscale);
HeightMap.Apply();
GameObject.Destroy(NormalMap);
NormalMap = noise.GetNormalMap(1f);
NormalMap.Apply();
floatMap = new float[TotalSize * TotalSize];
for (int y = 0; y < TotalSize; y++)
for (int x = 0; x < TotalSize; x++)
floatMap[y * TotalSize + x] = noise[x, y];
}
/// <summary>
/// Initializes a new instance of Turbulence.
/// </summary>
/// <param name="input">The input module.</param>
public Turbulence(ModuleBase input)
: base(1)
{
this.m_xDistort = new Perlin();
this.m_yDistort = new Perlin();
this.m_zDistort = new Perlin();
this.m_modules[0] = input;
}
/// <summary>
/// Initializes a new instance of Turbulence.
/// </summary>
/// <param name="x">The perlin noise to apply on the x-axis.</param>
/// <param name="y">The perlin noise to apply on the y-axis.</param>
/// <param name="z">The perlin noise to apply on the z-axis.</param>
/// <param name="power">The power of the turbulence.</param>
/// <param name="input">The input module.</param>
public Turbulence(Perlin x, Perlin y, Perlin z, double power, ModuleBase input)
: base(1)
{
this.m_xDistort = x;
this.m_yDistort = y;
this.m_zDistort = z;
this.m_modules[0] = input;
this.Power = power;
}
public static float[][] GenerateVertexHeightMap(Vector3[][] vertices, int seed, float scale,
int octaves, float persistance, float lacunarity, Vector3 offset)
{
LibNoise.Unity.Generator.Perlin perlin = new LibNoise.Unity.Generator.Perlin(1f, lacunarity, persistance, octaves, seed, QualityMode.Medium);
float[][] heightMap = new float[vertices.Length][];
if (scale <= 0)
{
scale = 0.0001f;
}
float maxNoiseHeight = float.MinValue;
float minNoiseHeight = float.MaxValue;
for (int f = 0; f < heightMap.Length; f++)
{
heightMap[f] = new float[vertices[f].Length];
for (int v = 0; v < heightMap[f].Length; v++)
{
float amplitude = 1f;
float frequency = 1f;
float noiseHeight = 0f;
for (int i = 0; i < octaves; i++)
{
float sampleX = vertices[f][v].x / scale + offset.x;
float sampleY = vertices[f][v].y / scale + offset.y;
float sampleZ = vertices[f][v].z / scale + offset.z;
float perlinValue = (float)perlin.GetValue(sampleX, sampleY, sampleZ);
noiseHeight += perlinValue * amplitude;
amplitude *= persistance;
}
if (noiseHeight > maxNoiseHeight)
{
maxNoiseHeight = noiseHeight;
}
else if (noiseHeight < minNoiseHeight)
{
minNoiseHeight = noiseHeight;
}
heightMap[f][v] = noiseHeight;
}
}
for (int f = 0; f < vertices.Length; f++)
{
for (int v = 0; v < heightMap[f].Length; v++)
{
heightMap[f][v] = Mathf.InverseLerp(minNoiseHeight, maxNoiseHeight, heightMap[f][v]);
}
}
return(heightMap);
}
public void Prepare()
{
LibNoise.Unity.Generator.Perlin perlin = new LibNoise.Unity.Generator.Perlin(1f, 1f, 1f, 4, parentBody.parentBody.biome.terrainGenData.seed,
QualityMode.Medium);
actualRadius = Mathf.Lerp(parentBody.parentBody.biome.terrainGenData.lowRadius, parentBody.parentBody.biome.terrainGenData.highRadius,
(float)perlin.GetValue(transform.position.x, transform.position.y, transform.position.z));
gameObject.AddComponent <MeshFilter>();
GetComponent <MeshFilter>().mesh = mesh = new Mesh();
mesh.name = "Procedural Sphere Side " + face;
Rigidbody body = GetComponent <Rigidbody>();
body.isKinematic = true;
body.useGravity = false;
biome = parentBody.parentBody.biome;
}
private GameObject setFace(float unit)
{
LibNoise.Unity.Generator.Perlin pl = new LibNoise.Unity.Generator.Perlin();
pl.Lacunarity = 1;
pl.OctaveCount = 2;
pl.Persistence = 1.96f;
pl.Seed = 1;
pl.Quality = LibNoise.Unity.QualityMode.High;
pl.Frequency = 1 / 80.0f;
GameObject obj = new GameObject();
for (uint j = 0; j < size; j++)
{
for (uint i = 0; i < size; i++)
{
GameObject tmp = (GameObject)Instantiate(plan, new Vector3(unit * (1 + i) - (unit / 2) * size - (unit / 2), unit * (1 + j) - (unit / 2) * size - (unit / 2), (-unit / 2) * size), Quaternion.identity);
tmp.transform.parent = obj.transform;
tmp.GetComponent<InfosCase>().Percent = (int)(((pl.GetValue(tmp.transform.position) + 1.7f) / 3.0f ) * 100);
cubes.Add(tmp);
if (terrainProps.Length > 0)
{
GameObject go = (GameObject) Instantiate(terrainProps[0], tmp.transform.position, Quaternion.Euler(tmp.transform.right));
go.transform.parent = tmp.transform;
if (tmp.GetComponent<InfosCase>().Percent >= 50)
{
go.GetComponentInChildren<MeshRenderer>().enabled = false;
// go.GetComponentInChildren<MeshRenderer>().material = prefabProps[0].material;
// go.GetComponentInChildren<MeshFilter>().mesh = prefabProps[0].mesh;
}
else
{
go.GetComponentInChildren<MeshRenderer>().enabled = true;
}
}
// if (terrainProps.Length > 0)
// {
// int yolo = (terrainProps.Length - 1) * Mathf.RoundToInt(tmp.GetComponent<InfosCase>().Percent / 100f);
// GameObject go = (GameObject) Instantiate(terrainProps[yolo], tmp.transform.position, Quaternion.Euler(tmp.transform.right));
// go.transform.parent = tmp.transform;
// }
}
}
return obj;
}
private float[,] GetHardness(int width, int height)
{
LibNoise.Unity.Generator.Perlin generator = new LibNoise.Unity.Generator.Perlin();
generator.Frequency = 1.0 / 6;
generator.OctaveCount = 4;
generator.Seed = 123498765;
generator.Quality = LibNoise.Unity.QualityMode.Low;
float[,] values = new float[width, height];
for (int i = 0; i < width; i++)
{
for (int j = 0; j < height; j++)
{
values[i, j] = (float)generator.GetValue(i, j, 0) * 0.4f + 0.5f;
}
}
return(values);
}
public void Generate()
{
Biome biome = parentBody.biome;
bool shouldGenerateTerrain = !(biome.terrainGenData.lacunarity == 0f || biome.terrainGenData.persistance == 0f ||
biome.terrainGenData.meshHeightMultiplier == 0f || biome.terrainGenData.octaves == 0);
for (int i = 0; i < faces.Length; i++)
{
faceComponents[i].GenerateSphere();
if (shouldGenerateTerrain)
{
faceVertices[i] = new Vector3[faceComponents[i].vertices.Length];
for (int v = 0; v < faceVertices[i].Length; v++)
{
faceVertices[i][v] = faceComponents[i].vertices[v][0];
}
}
}
heightMap = null;
if (shouldGenerateTerrain)
{
TerrainGenData terrainData = biome.terrainGenData;
LibNoise.Unity.Generator.Perlin perlin = new LibNoise.Unity.Generator.Perlin(1f, 1f, 1f, 4, terrainData.seed,
QualityMode.Medium);
float actualRadius = Mathf.Lerp(terrainData.lowRadius, terrainData.highRadius,
(float)perlin.GetValue(transform.position.x, transform.position.y, transform.position.z));
heightMap = PerlinNoise3D.GenerateVertexHeightMap(faceVertices, terrainData.seed, terrainData.noiseScale * Mathf.Pow(Mathf.Abs((actualRadius - terrainData.lowRadius) / ((terrainData.highRadius - terrainData.lowRadius))), 0.5f),
terrainData.octaves, terrainData.persistance, terrainData.lacunarity, terrainData.offset);
}
for (int i = 0; i < faceComponents.Length; i++)
{
if (shouldGenerateTerrain)
{
faceComponents[i].GenerateTerrain();
}
faceComponents[i].GenerateTrianglesAndColors();
}
}
/// <summary>
/// Returns the output value for the given input coordinates.
/// </summary>
/// <param name="x">The input coordinate on the x-axis.</param>
/// <param name="y">The input coordinate on the y-axis.</param>
/// <param name="z">The input coordinate on the z-axis.</param>
/// <returns>The resulting output value.</returns>
public override double GetValue(double x, double y, double z)
{
float signal;
float value;
int curOctave;
ModuleBase tmpperl = new Perlin(Frequency,Lacunarity,0.5,OctaveCount,Seed,QualityMode.Medium);
x *= this.m_frequency;
y *= this.m_frequency;
z *= this.m_frequency;
// Initialize value : first unscaled octave of function; later octaves are scaled
value = (float)m_offset + (float)tmpperl.GetValue(x, y, z);
x *= this.m_lacunarity;
y *= this.m_lacunarity;
z *= this.m_lacunarity;
// inner loop of spectral construction, where the fractal is built
for(curOctave = 1; curOctave < m_octaveCount; curOctave++) {
// obtain displaced noise value.
signal = (float)m_offset + (float)Utils.GradientCoherentNoise3D(x, y, z, m_seed, this.m_quality);;
//scale amplitude appropriately for this frequency
signal *= (float)m_weights[curOctave];
// scale increment by current altitude of function
signal *= value;
// Add the signal to the output value.
value += signal;
// Go to the next octave.
x *= m_lacunarity;
y *= m_lacunarity;
z *= m_lacunarity;
}//end for
//take care of remainder in _octaveCount
float remainder = m_octaveCount - (int)m_octaveCount;
if(remainder > 0.0f) {
signal = (float)m_offset + (float)tmpperl.GetValue(x, y, z);
signal *= (float)m_weights[curOctave];
signal *= value;
signal *= remainder;
value += signal;
}//end if
return value;
}
/// <summary>
/// Returns the output value for the given input coordinates.
/// </summary>
/// <param name="x">The input coordinate on the x-axis.</param>
/// <param name="y">The input coordinate on the y-axis.</param>
/// <param name="z">The input coordinate on the z-axis.</param>
/// <returns>The resulting output value.</returns>
public override double GetValue(double x, double y, double z)
{
float signal;
float value;
int curOctave;
x *= Frequency;
y *= Frequency;
z *= Frequency;
// Initialize value, fBM starts with 0
value = 0;
ModuleBase tmpperl = new Perlin(Frequency,Lacunarity,0.5,OctaveCount,Seed,QualityMode.Medium);
// Inner loop of spectral construction, where the fractal is built
for(curOctave = 0; curOctave < OctaveCount; curOctave++) {
// Get the coherent-noise value.
signal = (float)tmpperl.GetValue(x, y, z) * (float)m_weights[curOctave];
// Add the signal to the output value.
value += signal;
// Go to the next octave.
x *= Lacunarity;
y *= Lacunarity;
z *= Lacunarity;
}//end for
//take care of remainder in _octaveCount
float remainder = OctaveCount - (int)OctaveCount;
if(remainder > 0.0f) {
value += remainder * (float)tmpperl.GetValue(x, y, z) * (float)m_weights[curOctave];
}//end if
return value;
}
public override double GetValue(double x, double y, double z)
{
x *= this.Frequency;
y *= this.Frequency;
z *= this.Frequency;
float num = 0f;
ModuleBase moduleBase = new Perlin(this.Frequency, this.Lacunarity, 0.5, this.OctaveCount, this.Seed, QualityMode.Medium);
int i;
for (i = 0; i < this.OctaveCount; i++)
{
float num2 = (float)moduleBase.GetValue(x, y, z) * (float)this.m_weights[i];
num += num2;
x *= this.Lacunarity;
y *= this.Lacunarity;
z *= this.Lacunarity;
}
float num3 = (float)(this.OctaveCount - this.OctaveCount);
if (num3 > 0f)
{
num += num3 * (float)moduleBase.GetValue(x, y, z) * (float)this.m_weights[i];
}
return (double)num;
}
public void PostApply(ConfigNode node)
{
switch (type)
{
case NoiseType.Perlin:
var perlin = new Perlin ();
perlin.Quality = QualityMode.High;
perlin.Seed = seed;
perlin.OctaveCount = octaves;
perlin.Frequency = frequency;
perlin.Lacunarity = lacunarity;
perlin.Persistence = persistence;
Module = perlin;
break;
case NoiseType.ExDistPerlin:
var exDistPerlin = new ExDistPerlin ();
exDistPerlin.Quality = QualityMode.High;
exDistPerlin.Seed = seed;
exDistPerlin.OctaveCount = octaves;
exDistPerlin.Frequency = frequency;
exDistPerlin.Lacunarity = lacunarity;
exDistPerlin.Persistence = persistence;
exDistPerlin.Mu = mu;
Module = exDistPerlin;
break;
case NoiseType.Billow:
var billow = new Billow ();
billow.Quality = QualityMode.High;
billow.Seed = seed;
billow.OctaveCount = octaves;
billow.Frequency = frequency;
billow.Lacunarity = lacunarity;
billow.Persistence = persistence;
Module = billow;
break;
case NoiseType.RidgedMultiFractal:
var ridgedMultiFractal = new RiggedMultifractal ();
ridgedMultiFractal.Quality = QualityMode.High;
ridgedMultiFractal.Seed = seed;
ridgedMultiFractal.OctaveCount = octaves;
ridgedMultiFractal.Frequency = frequency;
ridgedMultiFractal.Lacunarity = lacunarity;
Module = ridgedMultiFractal;
break;
case NoiseType.Voronoi:
var voronoi = new Voronoi ();
voronoi.Seed = seed;
voronoi.UseDistance = voronoiUseDistance;
voronoi.Displacement = displacement;
voronoi.Frequency = frequency;
Module = voronoi;
break;
case NoiseType.Const:
var constant = new Const ();
constant.Value = constantValue;
Module = constant;
break;
}
}