Compare commits

..

30 Commits

Author SHA1 Message Date
Samuele Lorefice
c65346aeec Added release build configs 2025-04-07 07:56:23 +02:00
Samuele Lorefice
a74ae1167e Updated gitignore 2025-04-07 07:51:39 +02:00
mm00
d7d2091d64 Merge remote-tracking branch 'origin/ILGpu' into ILGpu 2025-04-04 19:23:20 +02:00
mm00
ea28738280 added border to initial image used in final image calculation 2025-04-04 19:23:02 +02:00
Samuele Lorefice
2faab96a7d Merge remote-tracking branch 'origin/ILGpu' into ILGpu 2025-04-04 19:22:26 +02:00
Samuele Lorefice
8c5ca2ce21 Small kernel fixes 2025-04-04 19:22:05 +02:00
mm00
d0fbd31c1d fixed final image masking 2025-04-04 19:20:43 +02:00
mm00
5cf8612699 Fixed directional blur 2025-04-03 20:49:44 +02:00
mm00
dfa2cf3f31 added luma threshould 2025-04-03 19:28:26 +02:00
mm00
64b7eb9dcc added SDF normalization 2025-04-03 19:28:20 +02:00
Samuele Lorefice
d652c63586 Added editor config 2025-04-03 19:14:58 +02:00
Samuele Lorefice
9614283dc8 Cleanup and added formatting rules. Reformatted 2025-04-03 19:02:50 +02:00
mm00
b072eea732 Merge remote-tracking branch 'origin/ILGpu' into ILGpu 2025-04-03 18:50:57 +02:00
Samuele Lorefice
925e4c9989 Fixed gradient, more cleanup 2025-04-03 18:48:50 +02:00
mm00
69d3b517f3 Merge remote-tracking branch 'origin/ILGpu' into ILGpu 2025-04-03 18:48:29 +02:00
mm00
2d1368a908 Added directional blur 2025-04-03 18:48:21 +02:00
Samuele Lorefice
3b319da80b Cleaned up main 2025-04-03 18:38:56 +02:00
mm00
db54b80b5a Merge remote-tracking branch 'origin/ILGpu' into ILGpu 2025-04-03 18:09:29 +02:00
mm00
281e0f4aee Fixed sdf calculation via ILGPU 2025-04-03 18:09:17 +02:00
Samuele Lorefice
366a5c1cab Added Gradient Kernel 2025-04-03 18:02:43 +02:00
Samuele Lorefice
86c0e97672 Added gradient kernel 2025-04-03 17:55:11 +02:00
Samuele Lorefice
6fd430a670 misc fixes 2025-04-03 17:06:50 +02:00
Samuele Lorefice
664c5e02fe Added SDF kernel 2025-04-02 20:26:28 +02:00
Samuele Lorefice
1d64749e76 Started converting the methods to parallel processing enabled kernels 2025-04-02 19:54:38 +02:00
Samuele Lorefice
0ef4ad1c4a Added ILGpu 2025-04-02 19:54:01 +02:00
mm00
1bdead0750 Added first image to start SDF and fixed blending 2025-04-01 19:49:39 +02:00
mm00
8173327c79 Multiplied channels by alpha when less than Vector4 2025-04-01 19:49:21 +02:00
mm00
7c484a9af3 completed refactoring, added 32x32 test images 2025-04-01 18:48:58 +02:00
mm00
f954a77cc5 Merge remote-tracking branch 'origin/master' 2025-04-01 17:49:00 +02:00
mm00
f7561c77b4 Added new test image 2025-04-01 17:48:49 +02:00
18 changed files with 4668 additions and 233 deletions

4012
.editorconfig Normal file

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.gitignore vendored
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@@ -3,3 +3,4 @@ obj/
/packages/
riderModule.iml
/_ReSharper.Caches/
publish/

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@@ -0,0 +1,5 @@
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<state>
<option name="PREFERRED_PROJECT_CODE_STYLE" value="Default" />
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@@ -0,0 +1,6 @@
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<method v="2" />
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</component>

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@@ -0,0 +1,6 @@
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<configuration default="false" name="Release Build Win-x64" type="DotNetFolderPublish" factoryName="Publish to folder">
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<method v="2" />
</configuration>
</component>

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<s:Boolean x:Key="/Default/Environment/SettingsMigration/IsMigratorApplied/=JetBrains_002EReSharper_002EPsi_002ECSharp_002ECodeStyle_002ECSharpPlaceEmbeddedOnSameLineMigration/@EntryIndexedValue">True</s:Boolean>
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@@ -7,10 +7,6 @@ namespace SDFMapCreator;
public static class ImageUtil {
public static T[,] LoadImage<T>(string path) where T : struct, IEquatable<T> {
var image = SixLabors.ImageSharp.Image.Load(path);
using var image16 = image as Image<Rgba64> ?? throw new NotSupportedException($"Image format not supported");
int width = image.Width;
int height = image.Height;
//result = new T[image.Width, image.Height];
return image switch {
Image<Rgba64> img => img.ProcessPixelsRgba64<T>(),
Image<Rgb24> img => img.ProcessPixelsRgb24<T>(),
@@ -21,26 +17,27 @@ public static class ImageUtil {
}
static T[,] ProcessPixelsRgba64<T>(this Image<Rgba64> image) where T : struct, IEquatable<T> {
int width = image.Width;
int height = image.Height;
var max = 65535f;
var width = image.Width;
var height = image.Height;
var result = new T[image.Width, image.Height];
image.ProcessPixelRows(accessor => {
//we use Y as the row index and X as the column index
for (int y = 0; y < height; y++) {
for (var y = 0; y < height; y++) {
var span = accessor.GetRowSpan(y);
for (int x = 0; x < width; x++) {
for (var x = 0; x < width; x++) {
switch (result) {
case float[,] f:
f[x, y] = span[x].R;
f[x, y] = span[x].R / max * (span[x].A / max);
break;
case Vector2[,] f:
f[x, y] = new(span[x].R, span[x].G);
f[x, y] = new Vector2(span[x].R / max, span[x].G / max) * new Vector2(span[x].A / max);
break;
case Vector3[,] f:
f[x, y] = new(span[x].R, span[x].G, span[x].B);
f[x, y] = new Vector3(span[x].R / max, span[x].G / max, span[x].B / max) * new Vector3(span[x].A / max);
break;
case Vector4[,] f:
f[x, y] = new(span[x].R, span[x].G, span[x].B, 1f);
f[x, y] = new(span[x].R / max, span[x].G / max, span[x].B / max, span[x].A / max);
break;
}
}
@@ -50,26 +47,27 @@ public static class ImageUtil {
}
static T[,] ProcessPixelsRgb24<T>(this Image<Rgb24> image) where T : struct, IEquatable<T> {
int width = image.Width;
int height = image.Height;
var max = 255f;
var width = image.Width;
var height = image.Height;
var result = new T[image.Width, image.Height];
image.ProcessPixelRows(accessor => {
//we use Y as the row index and X as the column index
for (int y = 0; y < height; y++) {
for (var y = 0; y < height; y++) {
var span = accessor.GetRowSpan(y);
for (int x = 0; x < width; x++) {
for (var x = 0; x < width; x++) {
switch (result) {
case float[,] f:
f[x, y] = span[x].R;
f[x, y] = span[x].R / max;
break;
case Vector2[,] f:
f[x, y] = new(span[x].R, span[x].G);
f[x, y] = new(span[x].R / max, span[x].G / max);
break;
case Vector3[,] f:
f[x, y] = new(span[x].R, span[x].G, span[x].B);
f[x, y] = new(span[x].R / max, span[x].G / max, span[x].B / max);
break;
case Vector4[,] f:
f[x, y] = new(span[x].R, span[x].G, span[x].B, 1f);
f[x, y] = new(span[x].R / max, span[x].G / max, span[x].B / max, 1f);
break;
}
}
@@ -79,26 +77,27 @@ public static class ImageUtil {
}
static T[,] ProcessPixelsRgba32<T>(this Image<Rgba32> image) where T : struct, IEquatable<T> {
int width = image.Width;
int height = image.Height;
var max = 255f;
var width = image.Width;
var height = image.Height;
var result = new T[image.Width, image.Height];
image.ProcessPixelRows(accessor => {
//we use Y as the row index and X as the column index
for (int y = 0; y < height; y++) {
for (var y = 0; y < height; y++) {
var span = accessor.GetRowSpan(y);
for (int x = 0; x < width; x++) {
for (var x = 0; x < width; x++) {
switch (result) {
case float[,] f:
f[x, y] = span[x].R;
f[x, y] = span[x].R / max * (span[x].A / max);
break;
case Vector2[,] f:
f[x, y] = new(span[x].R, span[x].G);
f[x, y] = new Vector2(span[x].R / max, span[x].G / max) * new Vector2(span[x].A / max);
break;
case Vector3[,] f:
f[x, y] = new(span[x].R, span[x].G, span[x].B);
f[x, y] = new Vector3(span[x].R / max, span[x].G / max, span[x].B / max) * new Vector3(span[x].A / max);
break;
case Vector4[,] f:
f[x, y] = new(span[x].R, span[x].G, span[x].B, 1f);
f[x, y] = new(span[x].R / max, span[x].G / max, span[x].B / max, span[x].A / max);
break;
}
}
@@ -108,27 +107,27 @@ public static class ImageUtil {
}
static T[,] ProcessPixelsRgb48<T>(this Image<Rgb48> image) where T : struct, IEquatable<T> {
using var image16 = image as Image<Rgb48> ?? throw new NotSupportedException($"Image format not supported");
int width = image.Width;
int height = image.Height;
var max = 65535f;
var width = image.Width;
var height = image.Height;
var result = new T[image.Width, image.Height];
image16.ProcessPixelRows(accessor => {
image.ProcessPixelRows(accessor => {
//we use Y as the row index and X as the column index
for (int y = 0; y < height; y++) {
for (var y = 0; y < height; y++) {
var span = accessor.GetRowSpan(y);
for (int x = 0; x < width; x++) {
for (var x = 0; x < width; x++) {
switch (result) {
case float[,] f:
f[x, y] = span[x].R;
f[x, y] = span[x].R / max;
break;
case Vector2[,] f:
f[x, y] = new(span[x].R, span[x].G);
f[x, y] = new(span[x].R / max, span[x].G / max);
break;
case Vector3[,] f:
f[x, y] = new(span[x].R, span[x].G, span[x].B);
f[x, y] = new(span[x].R / max, span[x].G / max, span[x].B / max);
break;
case Vector4[,] f:
f[x, y] = new(span[x].R, span[x].G, span[x].B, 1f);
f[x, y] = new(span[x].R / max, span[x].G / max, span[x].B / max, 1f);
break;
}
}
@@ -150,21 +149,21 @@ public static class ImageUtil {
Console.Write($"Writing image {path}...");
using Image<Rgb48> image = new(width, height);
image.ProcessPixelRows(accessor => {
for (int y = 0; y < height; y++) {
for (var y = 0; y < height; y++) {
var span = accessor.GetRowSpan(y);
for (int x = 0; x < width; x++) {
for (var x = 0; x < width; x++) {
switch (array) {
case float[,] f:
span[x] = new Rgb48((ushort)f[x, y], (ushort)f[x, y], (ushort)f[x,y]);
span[x] = new((ushort)(f[x, y] * 65535), (ushort)(f[x, y] * 65535), (ushort)(f[x, y] * 65535));
break;
case Vector2[,] f:
span[x] = new Rgb48((ushort)f[x,y].X, (ushort)f[x,y].Y, 0);
span[x] = new((ushort)(f[x, y].X * 65535), (ushort)(f[x, y].Y * 65535), 0);
break;
case Vector3[,] f:
span[x] = new Rgb48((ushort)f[x,y].X, (ushort)f[x,y].Y, (ushort)f[x,y].Z);
span[x] = new((ushort)(f[x, y].X * 65535), (ushort)(f[x, y].Y * 65535), (ushort)(f[x, y].Z * 65535));
break;
case Vector4[,] f:
span[x] = new Rgb48((ushort)f[x,y].X, (ushort)f[x,y].Y, (ushort)f[x,y].Z);
span[x] = new((ushort)(f[x, y].X * 65535), (ushort)(f[x, y].Y * 65535), (ushort)(f[x, y].Z * 65535));
break;
}
}
@@ -174,12 +173,12 @@ public static class ImageUtil {
image.Save(path);
}
private static void ImageData(SixLabors.ImageSharp.Image image1, string path) {
static void ImageData(SixLabors.ImageSharp.Image image1, string path) {
Console.WriteLine(
$"""
Image file: {path}
Resolution: {image1.Width}x{image1.Height}
Total Pixels: {image1.Width*image1.Height} |{"NaN"} channels, {image1.PixelType.BitsPerPixel/4} bits per channel
Total Pixels: {image1.Width * image1.Height} |{"NaN"} channels, {image1.PixelType.BitsPerPixel / 4} bits per channel
""");
}

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@@ -1,131 +1,177 @@
using System.Diagnostics;
using System.Numerics;
using System.Runtime.CompilerServices;
using SDFMapCreator;
public class Program {
private const float MAX = 65535f;
private const float MIN = 0f;
private static readonly int MAX_THREADS = Environment.ProcessorCount - 2;
private const bool outputMasks = true;
private const bool outputSDFs = true;
private const bool outputGradients = true;
namespace SDFMapCreator;
public static class Program {
const float MAX = 1f;
const float MIN = 0f;
static readonly int MAX_THREADS = Environment.ProcessorCount - 2;
static bool debug = true;
static readonly ParallelOptions parallelOptions = new() { MaxDegreeOfParallelism = MAX_THREADS };
static List<Image> Images = new();
static List<MaskData> ImageMasks = new();
static List<TransitionMaskData> TransitionMasks = new();
static List<SDFData> SDFs = new();
static List<Vector3[,]> Gradients = new();
static readonly SdfKernels kernels = new();
static uint width;
static uint height;
static void ConsoleUpdateLine(string s) => Console.Write("\r" + s);
public static void Main(string[] args) {
Console.WriteLine("Reading images...");
var imagesPath = "images";
if (debug) {
if (!Directory.Exists("Debug")) Directory.CreateDirectory("Debug");
Console.WriteLine("Debug mode enabled.");
}
for (int i = 0; i < 8; i++) {
var imagesPath = "images";
for (var i = 0; i < 8; i++) {
var pixels = ImageUtil.LoadImage<Vector3>($"./{imagesPath}{Path.DirectorySeparatorChar}{i + 1:00}.png");
Images.Add(new(pixels, pixels.GetLength(0), pixels.GetLength(1)));
}
/*
var pixels = ImageUtil.LoadImage<Vector3>($"./sphereempty.png");
Images.Add(new(pixels, pixels.GetLength(0), pixels.GetLength(1)));
pixels = ImageUtil.LoadImage<Vector3>($"./spherehalf.png");
Images.Add(new(pixels, pixels.GetLength(0), pixels.GetLength(1)));
pixels = ImageUtil.LoadImage<Vector3>($"./spherecut.png");
Images.Add(new(pixels, pixels.GetLength(0), pixels.GetLength(1)));
pixels = ImageUtil.LoadImage<Vector3>($"./spherefull.png");
Images.Add(new(pixels, pixels.GetLength(0), pixels.GetLength(1)));
*/
//check if all the images in Images are the same resolution
if (Images.Select(img => (img.Width, img.Height)).Distinct().Count() > 1) {
Console.WriteLine("Error: Not all images have the same resolution.");
Environment.Exit(1);
}
width = (uint)Images[0].Width;
height = (uint)Images[0].Height;
// sum all images together
if(debug) Images[0].Pixels.SaveImage("Debug/Sum0.png");
for (int i = 1; i < Images.Count; i++) {
for (int x = 0; x < Images[i].Width; x++) {
for (int y = 0; y < Images[i].Height; y++) {
Images[i].Pixels[x, y].X = MathF.Min(Images[i - 1].Pixels[x, y].X + Images[i].Pixels[x, y].X, MAX);
Images[i].Pixels[x, y].Y = MathF.Min(Images[i - 1].Pixels[x, y].Y + Images[i].Pixels[x, y].X, MAX);
Images[i].Pixels[x, y].Z = MathF.Min(Images[i - 1].Pixels[x, y].Z + Images[i].Pixels[x, y].X, MAX);
}
}
if(debug)Images[i].Pixels.SaveImage($"Debug/Sum{i}.png");
}
Console.WriteLine("Creating masks...");
//for each image pair, create a mask
var width = (uint)Images[0].Width;
var height = (uint)Images[0].Height;
for (int i = 0; i < Images.Count; i++) {
ImageMasks.Add(new(SelfMask(Images[i].Pixels, width, height), Images[i], new()));
if (i < Images.Count - 1) {
Console.WriteLine($"Creating mask {i}...");
var mask = GetABMask(Images[i].Pixels, Images[i + 1].Pixels, width, height);
for (var i = 0; i < Images.Count; i++) { //for each image pair, create a mask
var selfMask = SelfMask(Images[i].Pixels);
ImageMasks.Add(new(selfMask, Images[i], new()));
if (debug) selfMask.SaveImage($"Debug/selfMask{i}.png");
if (i >= Images.Count - 1) continue;
ConsoleUpdateLine($"Creating mask {i}...");
var mask = GetABMask(Images[i].Pixels, Images[i + 1].Pixels);
TransitionMasks.Add(new(mask, Images[i], Images[i + 1]));
}
}
Console.WriteLine("Edge detecting masks...");
//EdgeDetect all masks
foreach (var t in ImageMasks) EdgeDetect(t);
if (outputMasks) {
Console.WriteLine("Writing masks...");
for (int i = 0; i < TransitionMasks.Count; i++) ImageMasks[i].Mask.SaveImage($"mask{i}.png");
Console.WriteLine("\nEdge detecting masks...");
foreach (var mask in ImageMasks) {
ConsoleUpdateLine($"Edge detecting mask {ImageMasks.IndexOf(mask)}...");
EdgeDetect(mask);
}
if (debug)
for (var i = 0; i < TransitionMasks.Count; i++)
ImageMasks[i].Mask.SaveImage($"Debug/mask{i}.png");
Console.WriteLine("Creating SDFs...");
for (var i = 0; i < ImageMasks.Count; i++) {
var mask = ImageMasks[i];
SDFs.Add(SDF(mask));
if (outputSDFs) mask.Mask.SaveImage($"sdf{i}.png");
if (debug) SDFs[i].SDF.SaveImage($"Debug/sdf{i}.png");
}
Console.WriteLine("Creating gradients...");
for (var i = 0; i < TransitionMasks.Count; i++) {
Console.WriteLine($"Generating gradient {i}...");
ConsoleUpdateLine($"Generating gradient {i}...");
var gradientData = Gradient(TransitionMasks[i], SDFs[i], SDFs[i + 1]);
Gradients.Add(gradientData);
if (outputGradients) gradientData.SaveImage($"gradient{i}.png");
if (debug) gradientData.SaveImage($"Debug/gradient{i}.png");
}
// generate final image
var finalImage = new Vector3[width, height];
var currStep = 0f;
var stepIncrement = MAX / (Gradients.Count + 1);
var stepIncrement = MAX / Gradients.Count;
for (var x = 0; x < width; x++)
for (var y = 0; y < height; y++)
finalImage[x, y] = new(ImageMasks[0].Mask[x, y].X != 0 || ImageMasks[0].Mask[x, y].Y > 0 ? MAX : MIN);
for (var i = 0; i < Gradients.Count; i++) {
var mask = ImageMasks[i + 1];
var gradient = Gradients[i];
Console.WriteLine($"Applying gradient {i}..., {currStep} -> {currStep + stepIncrement}");
for (var x = 0; x < mask.Mask.GetLength(0); x++) {
for (var y = 0; y < mask.Mask.GetLength(1); y++) {
if (mask.Mask[x, y].X == 0 || mask.Mask[x, y].Y > 0) continue;
finalImage[x, y] = new(Remap(gradient[x, y].X, MAX, MIN, currStep, currStep + stepIncrement));
if (mask.Mask[x,y].X == 0) continue;
var pixel = new Vector3(Remap(gradient[x, y].X, MIN, MAX, 1.0f - currStep,
1.0f - (currStep + stepIncrement)));
if (pixel.X > finalImage[x, y].X) finalImage[x, y] = pixel;
}
}
currStep += stepIncrement;
}
finalImage.SaveImage("final.png");
finalImage.SaveImage("Debug/Final.png");
// apply directional blur
var iterations = 1;
var radius = 100f;
var step = .5f;
var sigma = 1f;
var totalMask = SelfMask(Images[^1].Pixels);
totalMask.SaveImage("Debug/TotalMask.png");
for (var i = 0; i < iterations; i++) {
Console.WriteLine($"Applying directional blur {i + 1}/{iterations}...");
finalImage = DirectionalBlur(finalImage, totalMask, radius, step, sigma);
}
finalImage.SaveImage("finalBlur.png");
Console.WriteLine("Done!");
}
private static void EdgeDetect(MaskData maskData) {
uint width = (uint)maskData.Image.Width;
uint height = (uint)maskData.Image.Height;
int iterCount = 0;
static void EdgeDetect(MaskData maskData) {
var sw = new Stopwatch();
sw.Start();
Console.WriteLine("Running edge detection...");
Parallel.For(0, width * height, parallelOptions, (i) =>
{
int x = (int)(i % width);
int y = (int)(i / width);
if (!EdgeKernel(maskData.Mask, x, y, width, height)) return;
var color = maskData.Mask[x, y];
color.Y = MAX;
maskData.Mask[x, y] = color;
lock (maskData.Edges) maskData.Edges.Add(new(x, y));
iterCount++;
if (iterCount % (width * height / 100) == 0) {
ConsoleUpdateLine(
$"Progress: {iterCount / (float)(width * height):P} | {iterCount / (sw.Elapsed.TotalSeconds):N0} pixels/s");
}
kernels.EdgeDetect(maskData.Mask, out var temp);
maskData.Mask = temp;
Parallel.For(0, width * height, parallelOptions, (i) => {
if (maskData.Mask[i % width, i / width].Y == 0) return;
// ReSharper disable once PossibleLossOfFraction
lock (maskData.Edges) maskData.Edges.Add(new(i % width, i / width));
});
sw.Stop();
Console.WriteLine(
$"\nEdge pixels: {maskData.Edges.Count} | {maskData.Edges.Count / sw.ElapsedMilliseconds} pixels/s\n Time: {sw.Elapsed.TotalSeconds:F4}s");
$"\nEdge pixels: {maskData.Edges.Count} | {width * height / (sw.ElapsedMilliseconds + 1)} pixels/s\n Time: {sw.Elapsed.TotalSeconds:F4}s");
}
static Vector3[,] Gradient(TransitionMaskData mask, SDFData sdfA, SDFData sdfB) {
uint width = (uint)mask.ImageA.Width;
uint height = (uint)mask.ImageA.Height;
int iterCount = 0;
var sw = new Stopwatch();
sw.Start();
Vector3[,] temp = new Vector3[width, height];
/*Vector3[,] temp = new Vector3[width, height];
var min = MAX;
var max = MIN;
@@ -146,117 +192,62 @@ public class Program {
if (gradient < min) min = gradient;
if (gradient > max) max = gradient;
});
});*/
Console.WriteLine(
$"Gradient Time: {sw.Elapsed.TotalSeconds:N4}s ({iterCount / (float)sw.Elapsed.TotalSeconds:N0} pixels/s)");
Console.WriteLine($"Min: {min} | Max: {max}");
kernels.Gradient(mask.Mask, sdfA.SDF, sdfB.SDF, out var temp);
Console.WriteLine($"Gradient Time: {sw.Elapsed.TotalSeconds:N4}s ({width * height / (float)sw.Elapsed.TotalSeconds:N0} pixels/s)");
return temp;
}
static SDFData SDF(MaskData mask) {
var width = (uint)mask.Mask.GetLength(0);
var height = (uint)mask.Mask.GetLength(1);
var temp = new Vector3[width, height];
float AbsMax = MIN;
int iterCount = 0;
var sw = new Stopwatch();
sw.Start();
Parallel.For(0, width * height, parallelOptions, (i) =>
{
//convert 1D index to 2D index
var x = (int)(i % width);
var y = (int)(i / width);
Vector2 p = new(x, y);
kernels.Sdf(mask.Edges.ToArray(), (int)width, (int)height, out var temp);
Console.WriteLine($"\nSDF Generation Time: {sw.Elapsed.TotalSeconds:N4}s ({width * height / sw.Elapsed.TotalSeconds:N0} pixels/s)");
float minDist = MAX; //initialize the minimum distance to the maximum possible value
//loop through all the pixels in the mask
foreach (var edge in mask.Edges) {
float dist = Vector2.DistanceSquared(p, edge);
if (dist < minDist) minDist = mask.Mask[x, y].X == 0 ? dist : dist;
}
temp[x, y] = new(minDist);
if (minDist > AbsMax) AbsMax = minDist;
iterCount++;
if (iterCount % (width * height / 100) == 0) {
ConsoleUpdateLine(
$"Progress: {iterCount / (float)(width * height):P}% | {iterCount / (sw.Elapsed.TotalSeconds):N0} pixels/s");
}
});
Console.WriteLine(
$"\nSDF Generation Time: {sw.Elapsed.TotalSeconds:N4}s ({iterCount / sw.Elapsed.TotalSeconds:N0} pixels/s)");
sw.Restart();
Parallel.For(0, width * height, parallelOptions, (i) =>
{
var absMax = 0f;
foreach (var pixel in temp) {
if (pixel.X > absMax) absMax = pixel.X;
}
Parallel.For(0, width * height, parallelOptions, (i) => {
//convert 1D index to 2D index
var x = (int)(i % width);
var y = (int)(i / width);
temp[x, y] = new(Remap(temp[x, y].X, 0, AbsMax, MIN, MAX));
temp[x, y] = new(Remap(temp[x, y].X, 0, absMax, MIN, MAX));
});
sw.Stop();
Console.WriteLine(
$"SDF Normalization Time: {sw.Elapsed.TotalSeconds:N4}s ({iterCount / sw.Elapsed.TotalSeconds:N0} pixels/s)");
Console.WriteLine("AbsMax: " + AbsMax);
$"SDF Normalization Time: {sw.Elapsed.TotalSeconds:N4}s ({width * height / sw.Elapsed.TotalSeconds:N0} pixels/s)");
return new(temp);
}
static Vector3[,] DirectionalBlur(Vector3[,] image, Vector3[,] mask, float radius = 3f, float step = .5f, float sigma = 1f) {
var sw = new Stopwatch();
sw.Start();
kernels.DirectionalBlur(image, mask, out var temp, radius, step, sigma);
Console.WriteLine(
$"Directional Blur Time: {sw.Elapsed.TotalSeconds:N4}s ({width * height / sw.Elapsed.TotalSeconds:N0} pixels/s)");
return temp;
}
[MethodImpl(MethodImplOptions.AggressiveInlining)]
private static float EuclideanDistance(Vector2 a, Vector2 b) =>
static float EuclideanDistance(Vector2 a, Vector2 b) =>
MathF.Sqrt(MathF.Pow(a.X - b.X, 2) + MathF.Pow(a.Y - b.Y, 2));
static Vector3[,] GetABMask(Vector3[,] A, Vector3[,] B, uint resX, uint resY) {
var temp = new Vector3[resX, resY];
Parallel.For(0, resX * resY, parallelOptions, (i) =>
{
uint x = (uint)(i % resX);
uint y = (uint)(i / resX);
var pixelA = A[x, y];
var pixelB = B[x, y];
float lumaA = (pixelA.X + pixelA.Y + pixelA.Z) / 3;
float lumaB = (pixelB.X + pixelB.Y + pixelB.Z) / 3;
float resultPixel = lumaB > lumaA ? MAX : MIN;
temp[x, y] = new(resultPixel, 0, 0);
});
static Vector3[,] GetABMask(Vector3[,] A, Vector3[,] B) {
kernels.ABMask(A, B, out var temp);
return temp;
}
static Vector3[,] SelfMask(Vector3[,] A, uint resX, uint resY) {
var temp = new Vector3[resX, resY];
Parallel.For(0, resX * resY, parallelOptions, (i) =>
{
uint x = (uint)(i % resX);
uint y = (uint)(i / resX);
var pixelA = A[x, y];
float lumaA = (pixelA.X + pixelA.Y + pixelA.Z) / 3;
float resultPixel = lumaA > 0 ? MAX : MIN;
temp[x, y] = new(resultPixel, 0, 0);
});
static Vector3[,] SelfMask(Vector3[,] A) {
kernels.SelfMask(A, out var temp);
return temp;
}
static bool EdgeKernel(Vector3[,] mask, int x, int y, uint width, uint height) {
//if we are already empty, return false
if (mask[x, y].X == 0) return false;
//if we are on the edge of the image, return false
if (x == 0 || y == 0 || x == width - 1 || y == height - 1) return false;
//check the 3x3 kernel
for (int xi = x - 1; xi <= x + 1; xi++) {
for (int yi = y - 1; yi <= y + 1; yi++) {
if (xi < 0 || xi >= width || yi < 0 || yi >= height)
continue; //skip out of bounds pixels
if (mask[xi, yi].X == 0)
return true; //if we find a black pixel, return true
}
}
//if we didn't find any black pixels, return false
return false;
}
static T Lerp<T>(T a, T b, float t)
where T : INumber<T>, IMultiplyOperators<T, float, T>, IAdditionOperators<T, T, T>
=> a * (1 - t) + b * t;

View File

@@ -3,6 +3,12 @@ using System.Numerics;
namespace SDFMapCreator;
public record Image(Vector3[,] Pixels, int Width, int Height);
public record MaskData(Vector3[,] Mask, Image Image, List<Vector2> Edges);
public record MaskData(Vector3[,] Mask, Image Image, List<Vector2> Edges) {
public Vector3[,] Mask { get; set; } = Mask;
public List<Vector2> Edges { get; set; } = Edges;
}
public record SDFData(Vector3[,] SDF);
public record TransitionMaskData(Vector3[,] Mask, Image ImageA, Image ImageB);

View File

@@ -8,8 +8,10 @@
</PropertyGroup>
<ItemGroup>
<PackageReference Include="SixLabors.ImageSharp" Version="3.1.7" />
<PackageReference Include="System.Numerics.Vectors" Version="4.6.1" />
<PackageReference Include="ILGPU" Version="1.5.2"/>
<PackageReference Include="ILGPU.Algorithms" Version="1.5.2"/>
<PackageReference Include="SixLabors.ImageSharp" Version="3.1.7"/>
<PackageReference Include="System.Numerics.Vectors" Version="4.6.1"/>
</ItemGroup>
<ItemGroup>
@@ -52,6 +54,21 @@
<None Update="spherefull.png">
<CopyToOutputDirectory>Always</CopyToOutputDirectory>
</None>
<None Update="spherehalf.png">
<CopyToOutputDirectory>Always</CopyToOutputDirectory>
</None>
<None Update="spherehalf32.png">
<CopyToOutputDirectory>Always</CopyToOutputDirectory>
</None>
<None Update="spherefull32.png">
<CopyToOutputDirectory>Always</CopyToOutputDirectory>
</None>
<None Update="spherecut32.png">
<CopyToOutputDirectory>Always</CopyToOutputDirectory>
</None>
<None Update="sphereempty.png">
<CopyToOutputDirectory>Always</CopyToOutputDirectory>
</None>
</ItemGroup>
</Project>

View File

@@ -0,0 +1,167 @@
using System.Numerics;
using ILGPU;
using ILGPU.Runtime;
namespace SDFMapCreator;
public partial class SdfKernels {
private const float LUMA_THRESHOLD = 0.0f;
static void SelfMaskKernel(Index2D index, ArrayView2D<Vector3, Stride2D.DenseX> input, ArrayView2D<Vector3, Stride2D.DenseX> mask) {
var x = index.X;
var y = index.Y;
var value = input[x, y];
var lumaA = value.X;
var r = lumaA > LUMA_THRESHOLD ? 1f : 0f;
mask[x, y] = new(r, 0f, 0f);
}
static void ABMaskKernel(Index2D index,
ArrayView2D<Vector3, Stride2D.DenseX> A,
ArrayView2D<Vector3, Stride2D.DenseX> B,
ArrayView2D<Vector3, Stride2D.DenseX> mask
) {
var x = index.X;
var y = index.Y;
var valueA = A[x, y];
var valueB = B[x, y];
var lumaA = valueA.X;
var lumaB = valueB.X;
var r = lumaB - lumaA > LUMA_THRESHOLD ? 1f : 0f;
mask[x, y] = new(r, 0f, 0f);
}
static void EdgeKernel(Index2D index,
ArrayView2D<Vector3, Stride2D.DenseX> mask,
uint width, uint height
) { // early exit if not on mask
if (mask[index].X == 0f) return;
var x = index.X;
var y = index.Y;
//if we are on the edge of the image, return false
if (x == 0 || y == 0 || x == width - 1 || y == height - 1) {
mask[index].Y = 1f; //set the edge flag
return;
}
//check the 3x3 kernel
for (var xi = x - 1; xi <= x + 1; xi++) {
for (var yi = y - 1; yi <= y + 1; yi++) {
if (xi < 0 || xi >= width || yi < 0 || yi >= height)
continue; //skip out of bounds pixels
if (mask[xi, yi].X == 0f)
mask[index].Y = 1f; //if we find a black pixel, return true
}
}
}
static void SdfKernel(Index2D index,
ArrayView2D<Vector3, Stride2D.DenseX> sdf,
ArrayView1D<Vector2, Stride1D.Dense> edges,
int width, int height
) {
Vector2 pos = new((float)index.X / width, (float)index.Y / height);
var minDist = 2f;
var count = edges.IntExtent.Size;
for (var i = 0; i < count; i++) {
Vector2 edgeNrm = new(edges[i].X / width, edges[i].Y / height);
var dist = Vector2.Distance(pos, edgeNrm);
if (dist < minDist) minDist = dist;
}
if (minDist > 1f) minDist = 1f;
sdf[index] = new(minDist);
}
static void GradientKernel(Index2D index,
ArrayView2D<Vector3, Stride2D.DenseX> mask,
ArrayView2D<Vector3, Stride2D.DenseX> sdfa,
ArrayView2D<Vector3, Stride2D.DenseX> sdfb,
ArrayView2D<Vector3, Stride2D.DenseX> gradient
) { //early exit if not on mask
if (mask[index].X == 0f) return;
var a = sdfa[index].X;
var b = sdfb[index].X;
gradient[index] = new(a / (a + b));
}
static Vector3 SampleBilinear(ArrayView2D<Vector3, Stride2D.DenseX> image, float x, float y) {
int width = image.IntExtent.X;
int height = image.IntExtent.Y;
var x0 = (int)x;
var y0 = (int)y;
var x1 = x0 + 1;
var y1 = y0 + 1;
if (x0 < 0 || x1 >= width || y0 < 0 || y1 >= height) return Vector3.Zero;
var a = new Vector2(x - x0, y - y0);
var b = new Vector2(1f - a.X, 1f - a.Y);
return Vector3.Lerp(
Vector3.Lerp(image[x0, y0], image[x1, y0], a.X),
Vector3.Lerp(image[x0, y1], image[x1, y1], a.X),
a.Y
);
}
static void DirectionalBlurKernel(Index2D index,
ArrayView2D<Vector3, Stride2D.DenseX> image,
ArrayView2D<Vector3, Stride2D.DenseX> mask,
ArrayView2D<Vector3, Stride2D.DenseX> output,
float radius, float step, float sigma,
int width, int height
) {
var x = index.X;
var y = index.Y;
var value = image[x, y];
var maskValue = mask[x, y];
if (maskValue.X == 0f) {
output[x, y] = value;
return;
}
var gradient = Vector2.Zero;
// calculate the gradient
for (int i = -1; i <= 1; i++) {
if (x + i < 0 || x + i >= width || y + i < 0 || y + i >= height) continue;
gradient.X += i * image[x + i, y].X;
gradient.Y += i * image[x, y + i].X;
}
/*
output[x, y] = new Vector3(float.Abs((gradient.X * 0.5f) + 0.5f),
float.Abs((gradient.Y * 0.5f) + 0.5f), 0.5f);
return;
*/
if (gradient == Vector2.Zero) {
output[x, y] = value;
return;
}
gradient = Vector2.Normalize(gradient);
float sum = 0;
// now we follow the direction line and sample the image for length;
for (var l = -radius; l <= radius; l += step) {
var xOffset = (gradient.X * l);
var yOffset = (gradient.Y * l);
var xSample = x + xOffset;
var ySample = y + yOffset;
if (xSample < 0 || xSample >= width || ySample < 0 || ySample >= height) continue;
var sampleValue = SampleBilinear(image, xSample, ySample);
var weight = MathF.Exp(-(l * l) / (2f * sigma * sigma));
output[x, y] += sampleValue * weight;
sum += weight;
}
output[x, y] = output[x, y] / sum;
}
}

200
SDFMapCreator/SdfKernels.cs Normal file
View File

@@ -0,0 +1,200 @@
using System;
using System.Numerics;
using ILGPU;
using ILGPU.Runtime;
using ILGPU.Runtime.CPU;
using ILGPU.Runtime.Cuda;
using ILGPU.Runtime.OpenCL;
using ILGPU.Algorithms;
namespace SDFMapCreator;
public partial class SdfKernels {
Context gpuContext;
public SdfKernels() {
// Initialize the GPU context
gpuContext = Context.Create(builder => builder
.OpenCL()
.Cuda()
.CPU()
.Math(MathMode.Fast32BitOnly)
.EnableAlgorithms()
);
Console.WriteLine("Reading available accelerators (CUDA only)...");
foreach (var device in gpuContext.GetCudaDevices()) {
using var accelerator = device.CreateAccelerator(gpuContext);
Console.WriteLine($"{GetInfoString(accelerator)}");
}
Console.WriteLine("Reading available accelerators (OpenCL only)...");
foreach (var device in gpuContext.GetCLDevices()) {
using var accelerator = device.CreateAccelerator(gpuContext);
Console.WriteLine($"{GetInfoString(accelerator)}");
}
Console.WriteLine("Reading available accelerators (CPU only)...");
foreach (var device in gpuContext.GetCPUDevices()) {
using var accelerator = device.CreateAccelerator(gpuContext);
Console.WriteLine($"{GetInfoString(accelerator)}");
}
}
public void SelfMask(Vector3[,] input, out Vector3[,] mask) {
var dev = gpuContext.GetPreferredDevice(false);
var width = input.GetLength(0);
var height = input.GetLength(1);
mask = new Vector3[width, height];
using var accelerator = dev.CreateAccelerator(gpuContext);
using var buffer = accelerator.Allocate2DDenseX<Vector3>(new(width, height));
buffer.CopyFromCPU(input);
using var maskBuffer = accelerator.Allocate2DDenseX<Vector3>(new(width, height));
var selfMaskKernel = accelerator.LoadAutoGroupedStreamKernel<Index2D, ArrayView2D<Vector3, Stride2D.DenseX>,
ArrayView2D<Vector3, Stride2D.DenseX>>(SelfMaskKernel);
selfMaskKernel(new(width, height), buffer.View, maskBuffer.View);
accelerator.Synchronize();
mask = maskBuffer.GetAsArray2D();
}
public void ABMask(Vector3[,] A, Vector3[,] B, out Vector3[,] mask) {
var dev = gpuContext.GetPreferredDevice(false);
var width = A.GetLength(0);
var height = A.GetLength(1);
mask = new Vector3[width, height];
using var accelerator = dev.CreateAccelerator(gpuContext);
using var bufferA = accelerator.Allocate2DDenseX<Vector3>(new(width, height));
bufferA.CopyFromCPU(A);
using var bufferB = accelerator.Allocate2DDenseX<Vector3>(new(width, height));
bufferB.CopyFromCPU(B);
using var maskBuffer = accelerator.Allocate2DDenseX<Vector3>(new(width, height));
var abMaskKernel = accelerator.LoadAutoGroupedStreamKernel<Index2D,
ArrayView2D<Vector3, Stride2D.DenseX>,
ArrayView2D<Vector3, Stride2D.DenseX>,
ArrayView2D<Vector3, Stride2D.DenseX>>(ABMaskKernel);
abMaskKernel(new(width, height), bufferA.View, bufferB.View, maskBuffer.View);
accelerator.Synchronize();
mask = maskBuffer.GetAsArray2D();
}
public void EdgeDetect(Vector3[,] mask, out Vector3[,] edge) {
var dev = gpuContext.GetPreferredDevice(false);
var width = mask.GetLength(0);
var height = mask.GetLength(1);
edge = new Vector3[width, height];
using var accelerator = dev.CreateAccelerator(gpuContext);
using var buffer = accelerator.Allocate2DDenseX<Vector3>(new(width, height));
buffer.CopyFromCPU(mask);
var edgeKernel = accelerator.LoadAutoGroupedStreamKernel<Index2D,
ArrayView2D<Vector3, Stride2D.DenseX>, uint, uint>(EdgeKernel);
edgeKernel(new(width, height), buffer.View, (uint)width, (uint)height);
accelerator.Synchronize();
edge = buffer.GetAsArray2D();
}
public void Sdf(Vector2[] edges, int width, int height, out Vector3[,] sdf) {
var dev = gpuContext.GetPreferredDevice(false);
using var accelerator = dev.CreateAccelerator(gpuContext);
using var buffer = accelerator.Allocate2DDenseX<Vector3>(new(width, height));
using var edgeBuffer = accelerator.Allocate1D<Vector2>(edges.Length);
edgeBuffer.CopyFromCPU(edges);
var sdfKernel = accelerator.LoadAutoGroupedStreamKernel<Index2D,
ArrayView2D<Vector3, Stride2D.DenseX>,
ArrayView1D<Vector2, Stride1D.Dense>,
int, int>(SdfKernel);
sdfKernel(new(width, height), buffer.View, edgeBuffer.View, width, height);
accelerator.Synchronize();
sdf = buffer.GetAsArray2D();
}
public void Gradient(Vector3[,] mask, Vector3[,] sdfa, Vector3[,] sdfb, out Vector3[,] gradient) {
var dev = gpuContext.GetPreferredDevice(false);
var width = mask.GetLength(0);
var height = mask.GetLength(1);
gradient = new Vector3[width, height];
using var accelerator = dev.CreateAccelerator(gpuContext);
using var bufferMask = accelerator.Allocate2DDenseX<Vector3>(new(width, height));
bufferMask.CopyFromCPU(mask);
using var bufferSdfa = accelerator.Allocate2DDenseX<Vector3>(new(width, height));
bufferSdfa.CopyFromCPU(sdfa);
using var bufferSdfb = accelerator.Allocate2DDenseX<Vector3>(new(width, height));
bufferSdfb.CopyFromCPU(sdfb);
using var bufferGradient = accelerator.Allocate2DDenseX<Vector3>(new(width, height));
var gradientKernel = accelerator.LoadAutoGroupedStreamKernel<Index2D,
ArrayView2D<Vector3, Stride2D.DenseX>,
ArrayView2D<Vector3, Stride2D.DenseX>,
ArrayView2D<Vector3, Stride2D.DenseX>,
ArrayView2D<Vector3, Stride2D.DenseX>>(GradientKernel);
gradientKernel(new(width, height), bufferMask.View, bufferSdfa.View, bufferSdfb.View, bufferGradient.View);
accelerator.Synchronize();
gradient = bufferGradient.GetAsArray2D();
}
public void DirectionalBlur(Vector3[,] image, Vector3[,] mask, out Vector3[,] output, float radius = 3f,
float step = .5f, float sigma = 1f) {
var dev = gpuContext.GetPreferredDevice(false);
var width = image.GetLength(0);
var height = image.GetLength(1);
output = new Vector3[width, height];
using var accelerator = dev.CreateAccelerator(gpuContext);
using var imageBuffer = accelerator.Allocate2DDenseX<Vector3>(new(width, height));
imageBuffer.CopyFromCPU(image);
using var maskBuffer = accelerator.Allocate2DDenseX<Vector3>(new(width, height));
maskBuffer.CopyFromCPU(mask);
using var outputBuffer = accelerator.Allocate2DDenseX<Vector3>(new(width, height));
var blurKernel = accelerator.LoadAutoGroupedStreamKernel<Index2D,
ArrayView2D<Vector3, Stride2D.DenseX>,
ArrayView2D<Vector3, Stride2D.DenseX>,
ArrayView2D<Vector3, Stride2D.DenseX>,
float, float, float, int, int>(DirectionalBlurKernel);
blurKernel(new(width, height), imageBuffer.View, maskBuffer.View, outputBuffer.View,
radius, step, sigma, width, height);
accelerator.Synchronize();
output = outputBuffer.GetAsArray2D();
}
static string GetInfoString(Accelerator a) {
var infoString = new StringWriter();
a.PrintInformation(infoString);
return infoString.ToString();
}
}

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