public static Bitmap ConvertToBitmap(FastBitmapHSV bitmap)
{
Bitmap bmp = new Bitmap(bitmap.Width, bitmap.Height);
unsafe
{
BitmapData bitmapData = bmp.LockBits(new Rectangle(0, 0, bmp.Width, bmp.Height), ImageLockMode.WriteOnly, bmp.PixelFormat);
int bytesPerPixel = Image.GetPixelFormatSize(bmp.PixelFormat) / 8;
int bytesPerRow = bitmapData.Width * bytesPerPixel;
for (int IdxY = 0; IdxY < bmp.Height; IdxY++)
{
byte *pixels = (byte *)bitmapData.Scan0 + (IdxY * bitmapData.Stride);
for (int IdxByte = 0; IdxByte < bytesPerRow; IdxByte += bytesPerPixel)
{
FastPixelHSV writePx = bitmap.GetPixel(IdxByte / bytesPerPixel, IdxY);
Color writeColor = Color.FromArgb(writePx.Monochrome, writePx.Monochrome, writePx.Monochrome);
pixels[IdxByte + 3] = writeColor.A;
pixels[IdxByte + 2] = writeColor.R;
pixels[IdxByte + 1] = writeColor.G;
pixels[IdxByte + 0] = writeColor.B;
}
}
bmp.UnlockBits(bitmapData);
}
return(bmp);
}
public static bool TraceLine(FastBitmapHSV bitmap, int posX, int posY, int incX, int incY, int traceLen, FastPixelMatch colorMatch, out Point posHit, bool bDebugMode = false)
{
if (bDebugMode)
{
Logger.WriteLine("TraceLine [" + posX + ", " + posY + "] -> [" + (posX + (incX * traceLen)) + ", " + (posY + (incY * traceLen)) + "]");
}
for (int stepIdx = 0; stepIdx < traceLen; stepIdx++)
{
int scanX = posX + (stepIdx * incX);
int scanY = posY + (stepIdx * incY);
FastPixelHSV testPx = bitmap.GetPixel(scanX, scanY);
bool bIsMatching = colorMatch.IsMatching(testPx);
if (bDebugMode)
{
Logger.WriteLine(" [" + scanX + ", " + scanY + "] " + testPx + " => match:" + bIsMatching);
}
if (bIsMatching)
{
posHit = new Point(scanX, scanY);
return(true);
}
}
if (bDebugMode)
{
Logger.WriteLine(" >> failed");
}
posHit = new Point(posX + (traceLen * incX), posY + (traceLen * incY));
return(false);
}
public static Color GetColorFromHSV(FastPixelHSV pixel)
{
int R = 0, G = 0, B = 0;
HsvToRgb(pixel.GetHue(), pixel.GetSaturation() / 100.0, pixel.GetValue() / 100.0, out R, out G, out B);
return(Color.FromArgb(R, G, B));
}
public static float GetPixelFeaturesM2V2(FastPixelHSV testPx)
{
float monoV = testPx.GetMonochrome() / 255.0f;
float valV = testPx.GetValue() / 100.0f;
float pixelV = monoV * monoV * valV * valV;
return(pixelV);
}
public static Bitmap CreateBitmapWithShapes(FastBitmapHSV bitmap, List <Rectangle> listBounds, List <FastBitmapHash> listHashes)
{
Bitmap bmp = new Bitmap(bitmap.Width, bitmap.Height);
unsafe
{
BitmapData bitmapData = bmp.LockBits(new Rectangle(0, 0, bmp.Width, bmp.Height), ImageLockMode.WriteOnly, bmp.PixelFormat);
int bytesPerPixel = Image.GetPixelFormatSize(bmp.PixelFormat) / 8;
int bytesPerRow = bitmapData.Width * bytesPerPixel;
for (int IdxY = 0; IdxY < bmp.Height; IdxY++)
{
byte *pixels = (byte *)bitmapData.Scan0 + (IdxY * bitmapData.Stride);
for (int IdxByte = 0; IdxByte < bytesPerRow; IdxByte += bytesPerPixel)
{
FastPixelHSV writePx = bitmap.GetPixel(IdxByte / bytesPerPixel, IdxY);
Color writeColor = Color.FromArgb(writePx.Monochrome, writePx.Monochrome, writePx.Monochrome);
pixels[IdxByte + 3] = writeColor.A;
pixels[IdxByte + 2] = writeColor.R;
pixels[IdxByte + 1] = writeColor.G;
pixels[IdxByte + 0] = writeColor.B;
}
}
bmp.UnlockBits(bitmapData);
}
using (Graphics gBmp = Graphics.FromImage(bmp))
{
if (listBounds.Count > 0)
{
Pen boundsPen = new Pen(Color.Cyan);
gBmp.DrawRectangles(boundsPen, listBounds.ToArray());
}
Pen hashPen = new Pen(Color.Magenta);
foreach (FastBitmapHash hashData in listHashes)
{
gBmp.DrawRectangle(hashPen, hashData.SourceBounds);
if (hashData.Pixels != null)
{
for (int HashX = 0; HashX < hashData.Width; HashX++)
{
for (int HashY = 0; HashY < hashData.Height; HashY++)
{
byte writeValue = hashData.Pixels[HashX + (HashY * hashData.Width)];
int writeValueInt = Math.Min(255, writeValue * 16);
Color writeColor = Color.FromArgb(writeValueInt, 0, 0);
bmp.SetPixel(HashX + hashData.DrawPos.X, HashY + hashData.DrawPos.Y, writeColor);
}
}
}
}
}
return(bmp);
}
public static List <Point> TraceSpansH(FastBitmapHSV bitmap, Rectangle box, FastPixelMatch colorMatch, int minSize, bool bDebugMode = false)
{
List <Point> result = new List <Point>();
int lastX = -1;
bool bHasMatch = false;
for (int IdxX = box.Left; IdxX <= box.Right; IdxX++)
{
bHasMatch = false;
for (int IdxY = box.Top; IdxY <= box.Bottom; IdxY++)
{
FastPixelHSV testPx = bitmap.GetPixel(IdxX, IdxY);
bHasMatch = colorMatch.IsMatching(testPx);
if (bHasMatch)
{
if (bDebugMode)
{
Logger.WriteLine("[" + IdxX + ", " + IdxY + "] " + testPx + " => match!");
}
break;
}
}
if (lastX == -1 && bHasMatch)
{
lastX = IdxX;
}
else if (lastX >= 0 && !bHasMatch)
{
int spanSize = IdxX - lastX;
if (spanSize > minSize)
{
if (bDebugMode)
{
Logger.WriteLine(">> adding span: " + lastX + ", size:" + spanSize);
}
result.Add(new Point(lastX, spanSize));
}
lastX = -1;
}
}
if (lastX >= 0 && bHasMatch)
{
int spanSize = box.Right - lastX + 1;
if (spanSize > minSize)
{
if (bDebugMode)
{
Logger.WriteLine(">> adding span: " + lastX + ", size:" + spanSize);
}
result.Add(new Point(lastX, spanSize));
}
}
return(result);
}
public override bool IsMatching(FastPixelHSV pixel)
{
int Hue = pixel.GetHue();
int Saturation = pixel.GetSaturation();
return((Hue >= HueMin) && (Hue <= HueMax) &&
(Saturation >= SaturationMin) && (Saturation <= SaturationMax) &&
(pixel.Value >= ValueMin) && (pixel.Value <= ValueMax));
}
public override bool IsMatching(FastPixelHSV pixel)
{
if ((pixel.Monochrome >= MonoMin) && (pixel.Monochrome <= MonoMax))
{
int Hue = pixel.GetHue();
return((Hue >= HueMin) && (Hue <= HueMax));
}
return(false);
}
public static void FindColorRange(FastBitmapHSV bitmap, Rectangle box, out int minMono, out int maxMono)
{
minMono = 255;
maxMono = 0;
for (int IdxY = box.Top; IdxY <= box.Bottom; IdxY++)
{
for (int IdxX = box.Left; IdxX <= box.Right; IdxX++)
{
FastPixelHSV testPx = bitmap.GetPixel(IdxX, IdxY);
minMono = Math.Min(minMono, testPx.Monochrome);
maxMono = Math.Max(maxMono, testPx.Monochrome);
}
}
}
public static float GetPixelFeaturesHueMono(FastPixelHSV testPx)
{
const int hueSteps = 16;
const int monoSteps = 16;
const float monoScale = 1.0f / monoSteps;
const float hueScale = monoScale / hueSteps;
int hueV = testPx.GetHue() / (360 / hueSteps);
int monoV = testPx.GetMonochrome() / (256 / monoSteps);
float pixelV = (hueV * hueScale) + (monoV * monoScale);
return(pixelV);
}
public static float CountFillPct(FastBitmapHSV bitmap, Rectangle box, FastPixelMatch colorMatch)
{
int totalPixels = (box.Width + 1) * (box.Height + 1);
int matchPixels = 0;
for (int IdxY = box.Top; IdxY <= box.Bottom; IdxY++)
{
for (int IdxX = box.Left; IdxX <= box.Right; IdxX++)
{
FastPixelHSV testPx = bitmap.GetPixel(IdxX, IdxY);
matchPixels += colorMatch.IsMatching(testPx) ? 1 : 0;
}
}
return((float)matchPixels / totalPixels);
}
public static FastPixelHSV GetAverageColor(FastBitmapHSV bitmap, Rectangle bounds)
{
float scale = 1.0f / (bounds.Width * bounds.Height);
float accR = 0.0f;
float accG = 0.0f;
float accB = 0.0f;
for (int idxY = 0; idxY < bounds.Height; idxY++)
{
for (int idxX = 0; idxX < bounds.Width; idxX++)
{
FastPixelHSV testPx = bitmap.GetPixelRaw(bounds.X + idxX, bounds.Y + idxY);
accR += testPx.RawR;
accG += testPx.RawG;
accB += testPx.RawB;
}
}
FastPixelHSV avgPx = new FastPixelHSV((byte)(accR * scale), (byte)(accG * scale), (byte)(accB * scale));
avgPx.ExpandHSV();
return(avgPx);
}
public override bool IsMatching(FastPixelHSV pixel)
{
return((pixel.Monochrome >= MonoMin) && (pixel.Monochrome <= MonoMax));
}
public static Point TraceBoundsH(FastBitmapHSV bitmap, Rectangle box, FastPixelMatch colorMatch, int maxGapSize, bool bDebugMode = false)
{
int boxCenter = (box.Right + box.Left) / 2;
int minX = -1;
int gapStart = -1;
bool bPrevMatch = false;
for (int IdxX = box.Left; IdxX < boxCenter; IdxX++)
{
bool bHasMatch = false;
for (int IdxY = box.Top; IdxY <= box.Bottom; IdxY++)
{
FastPixelHSV testPx = bitmap.GetPixel(IdxX, IdxY);
bHasMatch = colorMatch.IsMatching(testPx);
if (bHasMatch)
{
if (bDebugMode)
{
Logger.WriteLine("[" + IdxX + ", " + IdxY + "] " + testPx + " => match!");
}
break;
}
}
if (bHasMatch)
{
int gapSize = IdxX - gapStart;
if ((gapSize > maxGapSize && gapStart > 0) || (minX < 0))
{
minX = IdxX;
gapStart = -1;
}
if (bDebugMode)
{
Logger.WriteLine(">> gapSize:" + gapSize + ", gapStart:" + gapStart + ", bPrevMatch:" + bPrevMatch + " => minX:" + minX);
}
}
else
{
if (bPrevMatch)
{
gapStart = IdxX;
if (bDebugMode)
{
Logger.WriteLine(">> gapStart:" + gapStart);
}
}
}
bPrevMatch = bHasMatch;
}
if (minX >= 0)
{
int maxX = -1;
gapStart = -1;
bPrevMatch = false;
for (int IdxX = box.Right; IdxX > boxCenter; IdxX--)
{
bool bHasMatch = false;
for (int IdxY = box.Top; IdxY <= box.Bottom; IdxY++)
{
FastPixelHSV testPx = bitmap.GetPixel(IdxX, IdxY);
bHasMatch = colorMatch.IsMatching(testPx);
if (bHasMatch)
{
if (bDebugMode)
{
Logger.WriteLine("[" + IdxX + ", " + IdxY + "] " + testPx + " => match!");
}
break;
}
}
if (bHasMatch)
{
int gapSize = gapStart - IdxX;
if ((gapSize > maxGapSize && gapStart > 0) || (maxX < 0))
{
maxX = IdxX;
gapStart = -1;
}
if (bDebugMode)
{
Logger.WriteLine(">> gapSize:" + gapSize + ", gapStart:" + gapStart + ", bPrevMatch:" + bPrevMatch + " => maxX:" + maxX);
}
}
else
{
if (bPrevMatch)
{
gapStart = IdxX;
if (bDebugMode)
{
Logger.WriteLine(">> gapStart:" + gapStart);
}
}
}
bPrevMatch = bHasMatch;
}
if (maxX > minX)
{
return(new Point(minX, maxX - minX));
}
else
{
if (bDebugMode)
{
Logger.WriteLine(">> TraceBoundsH: no match on right side!");
}
}
}
else
{
if (bDebugMode)
{
Logger.WriteLine(">> TraceBoundsH: no match on left side!");
}
}
return(new Point());
}
public abstract bool IsMatching(FastPixelHSV pixel);
public static float GetPixelFeaturesMono(FastPixelHSV testPx)
{
return(testPx.GetMonochrome() / 255.0f);
}
public static float GetPixelFeaturesHue(FastPixelHSV testPx)
{
return(testPx.GetHue() / 360.0f);
}
public static List <int> TraceLineSegments(FastBitmapHSV bitmap, int posX, int posY, int incX, int incY, int traceLen,
FastPixelMatch colorMatch, int minSegSize, int segLimit, bool bDebugMode = false)
{
FastPixelHSV[] streakBuffer = new FastPixelHSV[minSegSize];
int bufferIdx = 0;
for (int Idx = 0; Idx < streakBuffer.Length; Idx++)
{
streakBuffer[Idx] = new FastPixelHSV(255, 255, 255);
}
List <int> result = new List <int>();
bool bWasMatch = false;
if (bDebugMode)
{
Logger.WriteLine("TraceLineSegments [" + posX + ", " + posY + "] -> [" + (posX + (incX * traceLen)) + ", " + (posY + (incY * traceLen)) + "]");
}
for (int stepIdx = 0; stepIdx < traceLen; stepIdx++)
{
int scanX = posX + (stepIdx * incX);
int scanY = posY + (stepIdx * incY);
FastPixelHSV testPx = bitmap.GetPixel(scanX, scanY);
streakBuffer[bufferIdx] = testPx;
bufferIdx = (bufferIdx + 1) % minSegSize;
bool bBufferMatching = true;
for (int Idx = 0; Idx < streakBuffer.Length; Idx++)
{
bBufferMatching = bBufferMatching && colorMatch.IsMatching(streakBuffer[Idx]);
}
if (bDebugMode)
{
Logger.WriteLine(" [" + scanX + ", " + scanY + "] " + testPx + " => match:" + colorMatch.IsMatching(testPx) + ", buffer:" + bBufferMatching);
}
if (bBufferMatching != bWasMatch)
{
bWasMatch = bBufferMatching;
int segPos = bBufferMatching ?
(incX != 0) ? (scanX - (incX * minSegSize)) : (scanY - (incY * minSegSize)) :
(incX != 0) ? scanX : scanY;
result.Add(segPos);
if (bDebugMode)
{
Logger.WriteLine(" >> mark segment:" + segPos);
}
if (result.Count >= segLimit && segLimit > 0)
{
break;
}
}
}
return(result);
}
public static float[] ExtractImageFeaturesScaled(FastBitmapHSV bitmap, Rectangle bounds, int destWidth, int destHeight, Func <FastPixelHSV, float> pxFunc)
{
float[] values = new float[destWidth * destHeight];
// scale to requested size
float scaleX = (float)destWidth / bounds.Width;
float scaleY = (float)destHeight / bounds.Height;
float endY = 0.0f;
for (int hashY = 0; hashY < destHeight; hashY++)
{
float startY = endY;
endY = (hashY + 1) / scaleY;
if (endY >= bounds.Height)
{
endY = bounds.Height - 0.00001f;
}
float endX = 0.0f;
for (int hashX = 0; hashX < destWidth; hashX++)
{
float startX = endX;
endX = (hashX + 1) / scaleX;
if (endX >= bounds.Width)
{
endX = bounds.Width - 0.00001f;
}
float sum = 0.0f;
float sumDiv = 0.00001f;
for (int srcY = (int)startY; srcY <= (int)endY; srcY++)
{
float partY = 1.0f;
if (srcY == (int)startY)
{
partY -= startY - srcY;
}
if (srcY == (int)endY)
{
partY -= srcY + 1 - endY;
}
for (int srcX = (int)startX; srcX <= (int)endX; srcX++)
{
float partX = 1.0f;
if (srcX == (int)startX)
{
partX -= startX - srcX;
}
if (srcX == (int)endX)
{
partX -= srcX + 1 - endX;
}
FastPixelHSV testPx = bitmap.GetPixel(bounds.Left + srcX, bounds.Top + srcY);
float testPxValue = pxFunc(testPx);
sum += testPxValue * partY * partX;
sumDiv += partY * partX;
}
}
values[hashX + (hashY * destWidth)] = sum / sumDiv;
}
}
return(values);
}
public void SetPixel(int X, int Y, FastPixelHSV pixel)
{
Pixels[X + (Y * Width)] = pixel;
}
private bool HasCactpotCircleEdgeV(FastBitmapHSV bitmap, int posX, int posY, int sideX, bool bDebugDetection = false)
{
const int spreadY = 2;
const int offsetDeepX = 5;
FastPixelHSV testPx = bitmap.GetPixel(posX, posY);
if (!colorMatchCircleOut.IsMatching(testPx) && !colorMatchCircleOutH.IsMatching(testPx))
{
if (bDebugDetection)
{
Logger.WriteLine("HasCactpotCircleEdgeV[" + posX + "," + posY + "] failed: edge center " + testPx);
}
return(false);
}
testPx = bitmap.GetPixel(posX - (sideX * offsetDeepX), posY);
if (!colorMatchCircleOut.IsMatching(testPx) && !colorMatchCircleOutH.IsMatching(testPx))
{
if (bDebugDetection)
{
Logger.WriteLine("HasCactpotCircleEdgeV[" + posX + "," + posY + "] failed: deep center " + testPx);
}
return(false);
}
testPx = bitmap.GetPixel(posX, posY - spreadY);
if (!colorMatchCircleOut.IsMatching(testPx) && !colorMatchCircleOutH.IsMatching(testPx))
{
if (bDebugDetection)
{
Logger.WriteLine("HasCactpotCircleEdgeV[" + posX + "," + posY + "] failed: edge top " + testPx);
}
return(false);
}
testPx = bitmap.GetPixel(posX, posY + spreadY);
if (!colorMatchCircleOut.IsMatching(testPx) && !colorMatchCircleOutH.IsMatching(testPx))
{
if (bDebugDetection)
{
Logger.WriteLine("HasCactpotCircleEdgeV[" + posX + "," + posY + "] failed: edge bottom " + testPx);
}
return(false);
}
testPx = bitmap.GetPixel(posX + sideX, posY);
if (!colorMatchBack.IsMatching(testPx) && !colorMatchCircleFade.IsMatching(testPx) && !colorMatchCircleFadeH.IsMatching(testPx))
{
if (bDebugDetection)
{
Logger.WriteLine("HasCactpotCircleEdgeV[" + posX + "," + posY + "] failed: edge center prev " + testPx);
}
return(false);
}
testPx = bitmap.GetPixel(posX + sideX, posY - spreadY);
if (!colorMatchBack.IsMatching(testPx) && !colorMatchCircleFade.IsMatching(testPx) && !colorMatchCircleFadeH.IsMatching(testPx))
{
if (bDebugDetection)
{
Logger.WriteLine("HasCactpotCircleEdgeV[" + posX + "," + posY + "] failed: edge top prev " + testPx);
}
return(false);
}
testPx = bitmap.GetPixel(posX + sideX, posY + spreadY);
if (!colorMatchBack.IsMatching(testPx) && !colorMatchCircleFade.IsMatching(testPx) && !colorMatchCircleFadeH.IsMatching(testPx))
{
if (bDebugDetection)
{
Logger.WriteLine("HasCactpotCircleEdgeV[" + posX + "," + posY + "] failed: edge bottom prev " + testPx);
}
return(false);
}
return(true);
}
public void SetPixel(int Idx, FastPixelHSV pixel)
{
Pixels[Idx] = pixel;
}
public static bool CreateFloodFillBitmap(FastBitmapHSV srcBitmap, Point floodOrigin, Size floodExtent, FastPixelMatch colorMatch,
out FastBitmapHSV floodBitmap, out Rectangle floodBounds, bool bDebugMode = false)
{
List <Point> floodPoints = new List <Point>();
int minX = floodOrigin.X;
int maxX = floodOrigin.X;
int minY = floodOrigin.Y;
int maxY = floodOrigin.Y;
Rectangle boundRect = new Rectangle(floodOrigin.X - floodExtent.Width, floodOrigin.Y - floodExtent.Height, floodExtent.Width * 2, floodExtent.Height * 2);
Stack <Point> openList = new Stack <Point>();
openList.Push(floodOrigin);
while (openList.Count > 0)
{
Point testPoint = openList.Pop();
if (floodPoints.Contains(testPoint))
{
continue;
}
FastPixelHSV testPx = srcBitmap.GetPixel(testPoint.X, testPoint.Y);
if (bDebugMode)
{
Logger.WriteLine("[" + testPoint.X + ", " + testPoint.Y + "] " + testPx + ", match:" + colorMatch.IsMatching(testPx) + ", inBounds:" + boundRect.Contains(testPoint));
}
if (colorMatch.IsMatching(testPx) && boundRect.Contains(testPoint))
{
floodPoints.Add(testPoint);
minX = Math.Min(minX, testPoint.X);
maxX = Math.Max(maxX, testPoint.X);
minY = Math.Min(minY, testPoint.Y);
maxY = Math.Max(maxY, testPoint.Y);
openList.Push(new Point(testPoint.X - 1, testPoint.Y));
openList.Push(new Point(testPoint.X + 1, testPoint.Y));
openList.Push(new Point(testPoint.X, testPoint.Y - 1));
openList.Push(new Point(testPoint.X, testPoint.Y + 1));
openList.Push(new Point(testPoint.X - 1, testPoint.Y - 1));
openList.Push(new Point(testPoint.X + 1, testPoint.Y - 1));
openList.Push(new Point(testPoint.X - 1, testPoint.Y + 1));
openList.Push(new Point(testPoint.X + 1, testPoint.Y + 1));
}
}
floodBounds = new Rectangle(minX, minY, maxX - minX + 1, maxY - minY + 1);
if (floodPoints.Count > 0)
{
FastPixelHSV[] bitmapPixels = new FastPixelHSV[floodBounds.Width * floodBounds.Height];
for (int Idx = 0; Idx < bitmapPixels.Length; Idx++)
{
bitmapPixels[Idx] = new FastPixelHSV(false);
}
foreach (Point p in floodPoints)
{
int Idx = (p.X - minX) + ((p.Y - minY) * floodBounds.Width);
bitmapPixels[Idx] = new FastPixelHSV(true);
}
floodBitmap = new FastBitmapHSV()
{
Pixels = bitmapPixels,
Width = floodBounds.Width,
Height = floodBounds.Height,
};
}
else
{
floodBitmap = null;
}
return(floodBitmap != null);
}
public static int FindPatternMatch(FastBitmapHSV bitmap, Point pos, FastPixelMatch colorMatch, List <ImagePatternDigit> patterns, out ImageDataDigit digitData, bool bDebugMode = false)
{
int bestValue = 0;
int bestValueExact = 0;
float totalBestScore = 0;
float totalBestScoreExact = 0;
const int offsetSize = 5;
const int cacheWidth = offsetSize + 10 + offsetSize;
const int cacheHeight = offsetSize + 8 + offsetSize;
byte[] PixelMatch = new byte[cacheWidth * cacheHeight];
int bestPatternMatchX = 0;
int bestPatternExactX = 0;
int bestPatternMatchY = 0;
int bestPatternExactY = 0;
foreach (ImagePatternDigit pattern in patterns)
{
float bestScore = 0;
float bestScoreExact = 0;
int bestPosX = 0;
int bestPosXExact = 0;
int bestPosY = 0;
int bestPosYExact = 0;
int ByteIdx = 0;
for (int IdxY = 0; IdxY < cacheHeight; IdxY++)
{
for (int IdxX = 0; IdxX < cacheWidth; IdxX++)
{
FastPixelHSV testPx = bitmap.GetPixel(pos.X + IdxX - offsetSize, pos.Y + IdxY - offsetSize);
PixelMatch[ByteIdx] = colorMatch.IsMatching(testPx) ? (byte)1 : (byte)0;
ByteIdx++;
}
}
/*if (bDebugMode)
* {
* bestPosX = 894;
* bestPosY = 615;
* bestScore = HasPatternMatch(PixelMatch, bestPosX - pos.X + offsetSize, bestPosY - pos.Y + offsetSize, cacheWidth,
* pattern, pattern.Value == 3 || pattern.Value == 5 || pattern.Value == 8);
* }
* else*/
{
for (int offsetX = -offsetSize; offsetX <= offsetSize; offsetX++)
{
for (int offsetY = -offsetSize; offsetY <= offsetSize; offsetY++)
{
float testScore = HasPatternMatch(PixelMatch, offsetX + offsetSize, offsetY + offsetSize, cacheWidth, false, pattern);
if (testScore > bestScore)
{
bestPosX = pos.X + offsetX;
bestPosY = pos.Y + offsetY;
bestScore = testScore;
}
float testScoreExact = HasPatternMatch(PixelMatch, offsetX + offsetSize, offsetY + offsetSize, cacheWidth, true, pattern);
if (testScoreExact > bestScoreExact)
{
bestPosXExact = pos.X + offsetX;
bestPosYExact = pos.Y + offsetY;
bestScoreExact = testScoreExact;
}
}
}
}
if (bestScore > totalBestScore)
{
totalBestScore = bestScore;
bestValue = pattern.Value;
bestPatternMatchX = bestPosX - pos.X + offsetSize;
bestPatternMatchY = bestPosY - pos.Y + offsetSize;
}
if (bestScoreExact > totalBestScoreExact)
{
totalBestScoreExact = bestScoreExact;
bestValueExact = pattern.Value;
bestPatternExactX = bestPosXExact - pos.X + offsetSize;
bestPatternExactY = bestPosYExact - pos.Y + offsetSize;
}
if (bDebugMode)
{
Logger.WriteLine("FindPatternMatch: " + pattern.Value +
" best at (" + bestPosX + ", " + bestPosY + ") = " + (int)(100 * bestScore) + "%," +
" exact at (" + bestPosXExact + ", " + bestPosYExact + ") = " + (int)(100 * bestScoreExact) + "%");
}
}
{
byte[] digitDataPixels = new byte[10];
for (int IdxX = 0; IdxX < 10; IdxX++)
{
int Value = 0;
int ByteIdx = (bestPatternMatchY * cacheWidth) + bestPatternMatchX + IdxX;
for (int IdxY = 0; IdxY < 8; IdxY++)
{
Value |= (PixelMatch[ByteIdx + (IdxY * cacheWidth)] != 0) ? (1 << IdxY) : 0;
}
digitDataPixels[IdxX] = (byte)Value;
}
digitData = new ImageDataDigit(digitDataPixels);
if (bDebugMode)
{
for (int IdxY = 0; IdxY < 8; IdxY++)
{
string debugDesc = "";
for (int IdxX = 0; IdxX < 10; IdxX++)
{
byte ColValue = digitDataPixels[IdxX];
byte RowMask = (byte)(1 << IdxY);
debugDesc += ((ColValue & RowMask) != 0 ? "#" : ".") + " ";
}
Logger.WriteLine(debugDesc);
}
}
}
return((totalBestScoreExact > 0.95) ? bestValueExact : (totalBestScore > 0.8) ? bestValue : 0);
}
public static FastBitmapHash CalculateImageHash(FastBitmapHSV bitmap, Rectangle box, Rectangle contextBox, FastPixelMatch colorMatch, int hashWidth, int hashHeight, bool bNormalizeColors = false)
{
byte[] hashImage = new byte[hashWidth * hashHeight];
// scale to requested size
float scaleX = (float)hashWidth / box.Width;
float scaleY = (float)hashHeight / box.Height;
float endY = 0.0f;
for (int hashY = 0; hashY < hashHeight; hashY++)
{
float startY = endY;
endY = (hashY + 1) / scaleY;
if (endY >= box.Height)
{
endY = box.Height - 0.00001f;
}
float endX = 0.0f;
for (int hashX = 0; hashX < hashWidth; hashX++)
{
float startX = endX;
endX = (hashX + 1) / scaleX;
if (endX >= box.Width)
{
endX = box.Width - 0.00001f;
}
float sum = 0.0f;
int sumDivNum = 0;
for (int srcY = (int)startY; srcY <= (int)endY; srcY++)
{
float partY = 1.0f;
if (srcY == (int)startY)
{
partY -= startY - srcY;
}
if (srcY == (int)endY)
{
partY -= srcY + 1 - endY;
}
for (int srcX = (int)startX; srcX <= (int)endX; srcX++)
{
float partX = 1.0f;
if (srcX == (int)startX)
{
partX -= startX - srcX;
}
if (srcX == (int)endX)
{
partX -= srcX + 1 - endX;
}
FastPixelHSV valuePx = bitmap.GetPixel(box.Left + srcX, box.Top + srcY);
float srcValueNorm = colorMatch.IsMatching(valuePx) ? (bNormalizeColors ? 1.0f : (valuePx.Monochrome / 255.0f)) : 0.0f;
sum += srcValueNorm * partY * partX;
sumDivNum++;
}
}
float storeValueNorm = sum / sumDivNum;
hashImage[hashX + (hashY * hashWidth)] = (byte)Math.Min(15, 15 * storeValueNorm);
}
}
TlshBuilder hashBuilder = new TlshBuilder();
hashBuilder.Update(hashImage);
TlshHash complexHash = hashBuilder.IsValid(false) ? hashBuilder.GetHash(false) : null;
ScanLineHash simpleHash = ScanLineHash.CreateFromImage(hashImage, hashWidth, hashHeight);
HashCollection hashCollection = new HashCollection(complexHash, simpleHash);
return(new FastBitmapHash
{
Hash = hashCollection,
Height = hashHeight,
Width = hashWidth,
Pixels = hashImage,
SourceBounds = box,
ContextBounds = contextBox,
DrawPos = new Point(box.Right + 1, box.Top),
});
}
private bool HasCactpotCircleMatch(FastBitmapHSV bitmap, int posX, int posY, int cellSize, int offsetIn, bool bDebugDetection = false)
{
int sizeA = cellSize;
int offsetB = Math.Max(5, offsetIn - 2);
int sizeB = sizeA - (offsetB * 2);
Point[] testPoints = new Point[4];
int numHighlights = 0;
// 4 points: corners of cell => dark background
{
testPoints[0].X = posX; testPoints[0].Y = posY;
testPoints[1].X = posX + sizeA; testPoints[1].Y = posY;
testPoints[2].X = posX; testPoints[2].Y = posY + sizeA;
testPoints[3].X = posX + sizeA; testPoints[3].Y = posY + sizeA;
for (int Idx = 0; Idx < 4; Idx++)
{
FastPixelHSV testPx = bitmap.GetPixel(testPoints[Idx].X, testPoints[Idx].Y);
//if (bDebugDetection) { Logger.WriteLine("[" + posX + ", " + posY + "] testing A[" + testPoints[Idx].X + "," + testPoints[Idx].Y + "]: " + testPx); }
if (!colorMatchBack.IsMatching(testPx))
{
if (bDebugDetection)
{
Logger.WriteLine("[" + posX + ", " + posY + "] failed, not background: A[" + testPoints[Idx].X + "," + testPoints[Idx].Y + "]: " + testPx);
}
return(false);
}
}
}
// 4 points: corners with offset B => dark background
{
testPoints[0].X = posX + offsetB; testPoints[0].Y = posY + offsetB;
testPoints[1].X = posX + sizeA - offsetB; testPoints[1].Y = posY + offsetB;
testPoints[2].X = posX + offsetB; testPoints[2].Y = posY + sizeA - offsetB;
testPoints[3].X = posX + sizeA - offsetB; testPoints[3].Y = posY + sizeA - offsetB;
for (int Idx = 0; Idx < 4; Idx++)
{
FastPixelHSV testPx = bitmap.GetPixel(testPoints[Idx].X, testPoints[Idx].Y);
//if (bDebugDetection) { Logger.WriteLine("[" + posX + ", " + posY + "] testing B1[" + testPoints[Idx].X + "," + testPoints[Idx].Y + "]: " + testPx); }
if (!colorMatchBack.IsMatching(testPx))
{
if (bDebugDetection)
{
Logger.WriteLine("[" + posX + ", " + posY + "] failed, not background: B1[" + testPoints[Idx].X + "," + testPoints[Idx].Y + "]: " + testPx);
}
return(false);
}
}
}
Point[] testPointCloser = new Point[4];
// 4 points: midpoints with offset B => yellow/white
{
testPoints[0].X = posX + offsetB; testPoints[0].Y = posY + (sizeA / 2);
testPoints[1].X = posX + sizeA - offsetB; testPoints[1].Y = posY + (sizeA / 2);
testPoints[2].X = posX + (sizeA / 2); testPoints[2].Y = posY + offsetB;
testPoints[3].X = posX + (sizeA / 2); testPoints[3].Y = posY + sizeA - offsetB;
for (int Idx = 0; Idx < 4; Idx++)
{
FastPixelHSV testPx = bitmap.GetPixel(testPoints[Idx].X, testPoints[Idx].Y);
//if (bDebugDetection) { Logger.WriteLine("[" + posX + ", " + posY + "] testing B2[" + testPoints[Idx].X + "," + testPoints[Idx].Y + "]: " + testPx); }
if (colorMatchCircleOutH.IsMatching(testPx))
{
numHighlights++;
}
else if (!colorMatchCircleOut.IsMatching(testPx))
{
if (bDebugDetection)
{
Logger.WriteLine("[" + posX + ", " + posY + "] failed, not circle: B2[" + testPoints[Idx].X + "," + testPoints[Idx].Y + "]: " + testPx);
}
return(false);
}
}
}
// 4 points: midpoints of diagonal lines between midpoints B (C) => yellow/white
{
testPoints[0].X = posX + offsetB + (sizeB / 4); testPoints[0].Y = posY + offsetB + (sizeB / 4);
testPoints[1].X = posX + sizeA - offsetB - (sizeB / 4); testPoints[1].Y = posY + offsetB + (sizeB / 4);
testPoints[2].X = posX + offsetB + (sizeB / 4); testPoints[2].Y = posY + sizeA - offsetB - (sizeB / 4);
testPoints[3].X = posX + sizeA - offsetB - (sizeB / 4); testPoints[3].Y = posY + sizeA - offsetB - (sizeB / 4);
for (int Idx = 0; Idx < 4; Idx++)
{
FastPixelHSV testPx = bitmap.GetPixel(testPoints[Idx].X, testPoints[Idx].Y);
//if (bDebugDetection) { Logger.WriteLine("[" + posX + ", " + posY + "] testing B3[" + testPoints[Idx].X + "," + testPoints[Idx].Y + "]: " + testPx); }
if (!colorMatchCircleIn.IsMatching(testPx))
{
if (bDebugDetection)
{
Logger.WriteLine("[" + posX + ", " + posY + "] failed, not circle: B3[" + testPoints[Idx].X + "," + testPoints[Idx].Y + "]: " + testPx);
}
return(false);
}
}
}
return((numHighlights == 0) || (numHighlights == 4));
}
