protected override ProTeGe_Texture GetBandNoise(int i, int resolution)
{
int noiseSize = (int)(resolution / Mathf.Pow(2, i));
ProTeGe_Texture noise = white.Generate(noiseSize);
noise.size = noiseSize;
if (noise.size >= 4)
{
ProTeGe_Texture scaledNoise = new ProTeGe_Texture(noise.size / 2);
scaledNoise.CopyFrom(noise, true);
scaledNoise.upscaleMode = ProTeGe_Texture.UpscaleModes.Bicubic;
scaledNoise.size *= 2;
matDiff.SetTexture("_Tex2", scaledNoise.renderTexture);
noise.ApplyMaterial(matDiff);
scaledNoise.Release();
}
noise.upscaleMode = ProTeGe_Texture.UpscaleModes.Bicubic;
noise.size = Globals.instance.textureSize_preview;
return(noise);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
perlin ["Fractal"] = this ["Fractal"];
perlin ["Big"] = this ["Big"];
perlin ["Small"] = this ["Small"];
ProTeGe_Texture noiseTex = perlin.Generate(resolution);
float qualityCoef = Mathf.Lerp(0.001f, 0.07f, this ["Quality"]);
float strength = this ["Strength"];
strength = strength * 1024 * 16;
float step = 1.0f / Globals.instance.textureSize_preview;
m.SetFloat("_step", step / qualityCoef);
m.SetFloat("_iterations", strength * qualityCoef + 1);
m.SetInt("_Mode", 0);
curl.SetFloat("_step", step);
noiseTex.ApplyMaterial(curl);
m.SetTexture("_curlNoiseTex", noiseTex.renderTexture);
ProTeGe_Texture t = inputs [0].Generate(resolution);
t.ApplyMaterial(m);
noiseTex.Release();
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
ProTeGe_Texture t = inputs [0].Generate(resolution);
t.ApplyMaterial(m);
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
ProTeGe_Texture NormalTexture = inputs [0].Generate(resolution);
normal.SetInt("_Size", Globals.instance.textureSize_preview);
normal.SetFloat("_Noise", 0);
normal.SetFloat("_Intensity", Mathf.Lerp(0.01f, 1f, this ["Intensity"]) * 0.01f);
NormalTexture.ApplyMaterial(normal);
float sampleSize = this ["Range"] * this ["Quality"] / 16.0f + 8.0f;
float step = 1.0f / resolution;
float angleStep = Mathf.PI * 2 / sampleSize;
m.SetTexture("_NormalTexture", NormalTexture.renderTexture);
m.SetFloat("_Range", this ["Range"]);
m.SetFloat("_Intensity", Mathf.Lerp(0.01f, 1f, this ["Intensity"]) * 0.01f);
m.SetInt("_Quality", (int)sampleSize);
m.SetFloat("_angleStep", angleStep);
m.SetFloat("_step", step);
ProTeGe_Texture t = inputs [0].Generate(resolution);
t.ApplyMaterial(m);
NormalTexture.Release();
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
m.SetInt("_selectiveSampling", this ["Selective Sampling"] == 1 ? 1 : 0);
float qualityCoef = Mathf.Lerp(1.0f / 16, 1, this ["Quality"]);
float range = this ["Range"] * qualityCoef * resolution / 1024;
range = range * 12.5f; //for visual consistency with same range bokeh with 4 + 0 sides
float radius = range * 3 * Mathf.Lerp(1, 0.625f, this["Undersampling"]);
float step = 1.0f / Globals.instance.textureSize_preview / qualityCoef;
ProTeGe_Texture rangeCoefTex = inputs [1].Generate(resolution);
m.SetFloat("_Iterations", radius);
m.SetFloat("_Range", range);
m.SetFloat("_Ox", step);
m.SetFloat("_Oy", 0);
m.SetTexture("_RangeCoefTex", rangeCoefTex.renderTexture);
m.SetFloat("_RangeVariance", this["Range variance"]);
ProTeGe_Texture t = inputs [0].Generate(resolution);
t.ApplyMaterial(m);
m.SetFloat("_Ox", 0);
m.SetFloat("_Oy", step);
t.ApplyMaterial(m);
rangeCoefTex.Release();
return(t.renderTexture);
}
public System.Tuple <ProTeGe_Texture, long> Generate_with_cacheID(int resolution)
{
ProTeGe_Texture t = Generate(resolution);;
var result = new System.Tuple <ProTeGe_Texture, long> (t, currentCacheID);
return(result);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
ProTeGe_Texture tex2;
tex2 = inputs [1].Generate(resolution);
m.SetTexture("_RangeCoefTex", tex2.renderTexture);
m.SetInt("_selectiveSampling", this ["Selective Sampling"] == 1 ? 1 : 0);
m.SetFloat("_RangeVariance", this ["Range variance"]);
float qualityCoef = Mathf.Lerp(0.3f, 1, this ["Quality"]);
float step = 1.0f / Globals.instance.textureSize_preview;
float radius = 16 * this["Range"] + 1;
radius = radius * resolution / 1024;
m.SetFloat("_Iterations", radius * qualityCoef);
qualityCoef = Mathf.Ceil(radius * qualityCoef) / radius;
m.SetFloat("_Ox", (Mathf.Cos(this["Angle"]) * step) / qualityCoef);
m.SetFloat("_Oy", (Mathf.Sin(this["Angle"]) * step) / qualityCoef);
ProTeGe_Texture t = inputs [0].Generate(resolution);
t.ApplyMaterial(m);
tex2.Release();
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
m.SetFloat("_RandomSeed", this ["Seed"]);
ProTeGe_Texture t = new ProTeGe_Texture(resolution);
t.ApplyMaterial(m);
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
m.SetFloat("_" + name, this[name]);
ProTeGe_Texture t = inputs [0].Generate(resolution);
t.ApplyMaterial(m);
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
m.SetFloat("_Low", this ["Low"]);
m.SetFloat("_Mid", this ["Mid"]);
m.SetFloat("_High", this ["High"]);
ProTeGe_Texture t = inputs [0].Generate(resolution);
t.ApplyMaterial(m);
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
matCellular.SetInt("_Invert", this ["Invert"] == 0 ? 0 : 1);
matCellular.SetInt("_Mode", Mathf.RoundToInt(this ["Mode"]));
ProTeGe_Texture seedTexture = inputs [0].Generate(resolution);
seedTexture.ApplyMaterial(matCellular);
return(seedTexture.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
ProTeGe_Texture t = inputs [0].Generate(resolution);
float step = 1.0f / Globals.instance.textureSize_preview;
diffuse.SetFloat("_step", step);
diffuse.SetFloat("_Range", this["Range"] + 1);
t.ApplyMaterial(diffuse);
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
float step = 1.0f / Globals.instance.textureSize_preview;
m.SetFloat("_step", step);
ProTeGe_Texture t = inputs [0].Generate(resolution);
t.ApplyMaterial(m);
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
m.SetInt("_Size", Globals.instance.textureSize_preview);
m.SetFloat("_Intensity", 0.01f * this["Intensity"]);
m.SetFloat("_Noise", this ["Noise"]);
ProTeGe_Texture t = inputs [0].Generate(resolution);
t.ApplyMaterial(m);
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
m.SetFloat("_Noise", this ["Noise"]);
m.SetFloat("_Frequency", this ["Frequency"]);
m.SetFloat("_Thickness", this ["Thickness"]);
m.SetFloat("_Flatness", this ["Flatness"]);
ProTeGe_Texture t = inputs [0].Generate(resolution);
t.ApplyMaterial(m);
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
m.SetFloat("_Thickness", 1.0f - this ["Thickness"]);
m.SetFloat("_Flatness", this ["Flatness"]);
//m.SetFloat ("_Length", this ["Length"]);
m.SetFloat("_Length", (int)this ["Length"] * 2 + 4.0f);
m.SetFloat("_Size", (int)this ["Size"] + 1.0f);
ProTeGe_Texture t = new ProTeGe_Texture(resolution);
t.ApplyMaterial(m);
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
m.SetFloat("_Frequency_H", 1.0f - this ["Width"]);
m.SetFloat("_Frequency_V", 1.0f - this ["Height"]);
m.SetFloat("_Size", this ["Size"]);
m.SetFloat("_Flatness", this ["Flatness"]);
ProTeGe_Texture t = new ProTeGe_Texture();
t.ApplyMaterial(m);
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
m.SetInt("_Resolution", (int)this["Resolution"]);
m.SetInt("_Modulus", this["Cracks"] == 0 ? 0 : 1);
m.SetFloat("_RandomSeed", this ["Seed"]);
this["Generate"] = this["Generate"] * 0;
ProTeGe_Texture t = new ProTeGe_Texture();
t.ApplyMaterial(m);
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
ProTeGe_Texture tex2;
tex2 = inputs [1].Generate(resolution);
matMax.SetInt("_Luminance", this ["Luminance"] == 0 ? 0 : 1);
matMax.SetTexture("_Tex2", tex2.renderTexture);
ProTeGe_Texture t = inputs [0].Generate(resolution).ApplyMaterial(matMax);
tex2.Release();
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
int numCells = (int)(Mathf.Pow(2, this ["Density"])) + 1;
m.SetFloat("_Density", numCells);
m.SetFloat("_Randomness", 1.0f - this ["Order"]);
m.SetFloat("_Seed", this["Seed"] / 100);
m.SetInt("_DistanceMode", Mathf.RoundToInt(this ["Distance mode"]));
ProTeGe_Texture t = new ProTeGe_Texture();
t.ApplyMaterial(m);
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
ProTeGe_Texture t = inputs[0].Generate(resolution);
UpdateNoise(resolution);
m.SetTexture("_NoiseTex", noise.renderTexture);
m.SetInt("_Grayscale", this ["Grayscale"] > 0 ? 1 : 0);
m.SetFloat("_Strength", this ["Strength"]);
t.ApplyMaterial(m);
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
ProTeGe_Texture hor, ver;
hor = inputs [1].Generate(resolution);
ver = inputs [2].Generate(resolution);
matPush.SetFloat("_Horizontal", this ["Horizontal"]);
matPush.SetFloat("_Vertical", this ["Vertical"]);
matPush.SetTexture("_Tex2", hor.renderTexture);
matPush.SetTexture("_Tex3", ver.renderTexture);
ProTeGe_Texture t = inputs [0].Generate(resolution).ApplyMaterial(matPush);
hor.Release();
ver.Release();
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
ProTeGe_Texture t = inputs [0].Generate(resolution);
ProTeGe_Texture t2 = inputs [1].Generate(resolution);
ProTeGe_Texture t3 = inputs [2].Generate(resolution);
m.SetFloat("_Opacity", this["Opacity"]);
m.SetTexture("_Tex2", t2.renderTexture);
m.SetTexture("_TexCoef", t3.renderTexture);
t.ApplyMaterial(m);
t2.Release();
t3.Release();
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
AO ["Range"] = this ["Range"];
AO ["Quality"] = this ["Quality"];
AO ["Intensity"] = this ["Intensity"];
AO.inputs [0].connectedProcessor = this.inputs[0].connectedProcessor;
blur ["Range"] = this ["Range Blur"];
blur ["Quality"] = this ["Quality Blur"];
blur ["Undersampling"] = this ["Undersampling Blur"];
blur.inputs [0].connectedProcessor = AO;
ProTeGe_Texture t2 = blur.Generate(resolution);
return(t2.renderTexture);
}
protected sealed override RenderTexture GenerateRenderTexture(int resolution)
{
UpdateBandValues();
ProTeGe_Texture t = new ProTeGe_Texture(resolution);
t.ApplyMaterial(matValue);
if (Globals.instance.lowMemoryMode == false)
{
CreateBandNoises(resolution);
for (int i = 0; i < bandValues.Length; i++)
{
if (bandValues [i] != 0)
{
matGather.SetFloat("_Opacity", bandValues [i]);
matGather.SetTexture("_Tex2", bandNoises [i].renderTexture);
t.ApplyMaterial(matGather);
}
}
}
else
{
ReleaseBands();
for (int i = 1; i < bandValues.Length; i++)
{
if (bandValues [i] != 0)
{
ProTeGe_Texture temp = GetBandNoise(i, resolution);
matGather.SetFloat("_Opacity", bandValues [i]);
matGather.SetTexture("_Tex2", temp.renderTexture);
t.ApplyMaterial(matGather);
temp.Release();
}
}
}
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
int numCells = (int)(Mathf.Pow(2, this ["Density"])) + 1;
seeder.SetFloat("_Density", numCells);
seeder.SetInt("_DistanceMode", 1);
seeder.SetFloat("_Randomness", 1.0f);
seeder.SetFloat("_Seed", this["Seed"] / 100);
ProTeGe_Texture seed = new ProTeGe_Texture();
seed.ApplyMaterial(seeder);
generator.SetInt("_Invert", 1);
generator.SetFloat("_Seed", this["Seed"] / 100);
generator.SetInt("_Mode", 0);
seed.ApplyMaterial(generator);
return(seed.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
ProTeGe_Texture tex2;
tex2 = inputs [1].Generate(resolution);
m.SetTexture("_RangeCoefTex", tex2.renderTexture);
m.SetInt("_selectiveSampling", this ["Selective Sampling"] == 1 ? 1 : 0);
float qualityCoef = Mathf.Lerp(0.3f, 1, this ["Quality"]);
float radius = 16 * this["Range"] + 1;
m.SetFloat("_Iterations", radius * qualityCoef);
m.SetFloat("_RangeVariance", this ["Range variance"]);
qualityCoef = Mathf.Ceil(radius * qualityCoef) / radius;
float step = 1.0f / Globals.instance.textureSize_preview / qualityCoef;
float tmp = (int)(this ["Sides"]);
int sides = 4 + (int)tmp * 2;
float angle = ((sides - 2) * Mathf.PI / sides);
ProTeGe_Texture t = inputs [0].Generate(resolution);
int i;
for (i = 0; i < sides / 2; i++)
{
m.SetFloat("_Ox", (Mathf.Cos(angle * i) * step));
m.SetFloat("_Oy", (Mathf.Sin(angle * i) * step));
t.ApplyMaterial(m);
}
tex2.Release();
return(t.renderTexture);
}
protected override RenderTexture GenerateRenderTexture(int resolution)
{
ProTeGe_Texture t = inputs [0].Generate(resolution);
float step = 1.0f / Globals.instance.textureSize_preview;
bloomH.SetFloat("_step", step);
bloomV.SetFloat("_step", step);
bloomH.SetFloat("_Range", this["Range"] + 1);
bloomV.SetFloat("_Range", this["Range"] + 1);
bloomH.SetFloat("_Threshold", this ["Threshold"]);
t.ApplyMaterial(bloomH);
t.ApplyMaterial(bloomV);
ProTeGe_Texture tmp = inputs [0].Generate(resolution);
if (Mathf.RoundToInt(this ["Mode"]) == 0)
{
matAdd.SetFloat("_Opacity", this ["Strength"]);
matAdd.SetTexture("_Tex2", t.renderTexture);
tmp.ApplyMaterial(matAdd);
}
else
{
matScreen.SetFloat("_Opacity", this["Strength"]);
matScreen.SetTexture("_Tex2", t.renderTexture);
tmp.ApplyMaterial(matScreen);
}
t.Release();
return(tmp.renderTexture);
}
private void UpdateNoise(int resolution)
{
if (noise != null)
{
if (noise.size != Globals.instance.textureSize_preview)
{
noise.Release();
noise = null;
}
}
if (noise == null)
{
p ["Resolution"] = Globals.instance.textureSize_preview / 2;
ProTeGe_Texture r, g, b;
p ["Seed"] = 1;
r = p.Generate(resolution);
p ["Seed"] = 1.2f;
g = p.Generate(resolution);
p ["Seed"] = 1.7f;
b = p.Generate(resolution);
mGather.SetTexture("_TexR", r.renderTexture);
mGather.SetTexture("_TexG", g.renderTexture);
mGather.SetTexture("_TexB", b.renderTexture);
noise = new ProTeGe_Texture();
noise.ApplyMaterial(mGather);
r.Release();
g.Release();
b.Release();
}
}
