public BitmapSource RenderImageSource(ILUT lut)
{
bool render = false;
if (_bitmap == null)
{
_pixels = new PinnedIntArray(ScaledData.Width * ScaledData.Height);
_bitmap = new WriteableBitmap(ScaledData.Width, ScaledData.Height);
render = true;
}
if (_applyLut && lut != null && !lut.IsValid)
{
lut.Recalculate();
render = true;
}
if (render)
{
ScaledData.Render((_applyLut ? lut : null), _pixels.Data);
}
MultiThread.For(0, _pixels.Count, delegate(int i) { _bitmap.Pixels[i] = _pixels.Data[i]; });
_bitmap.Rotate(_rotation);
if (_flipX)
{
_bitmap.Flip(WriteableBitmapExtensions.FlipMode.Horizontal);
}
if (_flipY)
{
_bitmap.Flip(WriteableBitmapExtensions.FlipMode.Vertical);
}
_bitmap.Invalidate();
return(_bitmap);
}
public void Render(int[] pixels, int width, int height)
{
byte[] data = null;
if (_scaledData == null)
{
if (_scale == 1.0)
{
_scaledData = _originalData;
}
else
{
int w = (int)(_originalData.Width * _scale);
int h = (int)(_originalData.Height * _scale);
data = BilinearInterpolation.RescaleGrayscale(_originalData.Data, _originalData.Width, _originalData.Height, w, h);
_scaledData = new GrayscalePixelDataU8(w, h, data);
}
}
data = _scaledData.Data;
int ox = (int)(_offsetX * _scale);
int oy = (int)(_offsetY * _scale);
MultiThread.For(0, _scaledData.Height, y => {
for (int i = _scaledData.Width * y, e = i + _scaledData.Width; i < e; i++)
{
if (data[i] > 0)
{
int p = (oy * width) + ox + i;
pixels[p] = _color;
}
}
});
}
public static byte[] RescaleColor32(byte[] input, int inputWidth, int inputHeight, int outputWidth, int outputHeight)
{
byte[] output = new byte[outputWidth * outputHeight * 4];
double xF = (double)inputWidth / (double)outputWidth;
double yF = (double)inputHeight / (double)outputHeight;
int xMax = inputWidth - 1;
int yMax = inputHeight - 1;
unchecked {
MultiThread.For(0, outputHeight, 1, delegate(int y) {
double oy0 = y * yF;
int oy1 = (int)oy0; // rounds down
int oy2 = (oy1 == yMax) ? oy1 : oy1 + 1;
double dy1 = oy0 - oy1;
double dy2 = 1.0 - dy1;
int yo0 = outputWidth * y * 4;
int yo1 = inputWidth * oy1 * 4;
int yo2 = inputWidth * oy2 * 4;
double ox0, dx1, dx2;
int ox1, ox2;
for (int x = 0, px = 0; x < outputWidth; x++)
{
ox0 = x * xF;
ox1 = (int)ox0;
ox2 = (ox1 == xMax) ? ox1 : ox1 + 1;
dx1 = ox0 - ox1;
dx2 = 1.0 - dx1;
output[yo0 + px] =
(byte)((dy2 * ((dx2 * input[yo1 + ox1]) + (dx1 * input[yo1 + ox2]))) +
(dy1 * ((dx2 * input[yo2 + ox1]) + (dx1 * input[yo2 + ox2]))));
px++; ox1++; ox2++;
output[yo0 + px] =
(byte)((dy2 * ((dx2 * input[yo1 + ox1]) + (dx1 * input[yo1 + ox2]))) +
(dy1 * ((dx2 * input[yo2 + ox1]) + (dx1 * input[yo2 + ox2]))));
px++; ox1++; ox2++;
output[yo0 + px] =
(byte)((dy2 * ((dx2 * input[yo1 + ox1]) + (dx1 * input[yo1 + ox2]))) +
(dy1 * ((dx2 * input[yo2 + ox1]) + (dx1 * input[yo2 + ox2]))));
px++; ox1++; ox2++;
output[yo0 + px] =
(byte)((dy2 * ((dx2 * input[yo1 + ox1]) + (dx1 * input[yo1 + ox2]))) +
(dy1 * ((dx2 * input[yo2 + ox1]) + (dx1 * input[yo2 + ox2]))));
px++; ox1++; ox2++;
}
});
}
return(output);
}
public static IGTResults IGTCheckParallel <Gb>(Gb[] gbs, RbyIntroSequence intro, int numIgts, Func <GameBoy, bool> fn = null, int ss = 0, int ssOverwrite = -1) where Gb : Rby
{
intro.ExecuteUntilIGT(gbs[0]);
byte[] igtState = gbs[0].SaveState();
byte[][] states = new byte[numIgts][];
MultiThread.For(numIgts, gbs, (gb, i) => {
states[i] = gb.MakeIGTState(intro, igtState, i);
});
return(IGTCheckParallel(gbs, states, fn, ss, ssOverwrite));
}
public static IGTResults IGTCheckParallel <Gb>(Gb[] gbs, int timesec, GscIntroSequence intro, int numIgts, Func <Gb, bool> fn = null, int ss = 0, int igtOffset = 0) where Gb : Gsc
{
gbs[0].SetTimeSec(timesec);
intro.ExecuteUntilIGT(gbs[0]);
byte[] igtState = gbs[0].SaveState();
IGTResults introStates = new IGTResults(numIgts);
MultiThread.For(numIgts, gbs, (gb, i) => {
introStates[i] = gb.MakeIGTState(intro, igtState, i + igtOffset);
});
return(IGTCheckParallel(gbs, introStates, x => fn == null || fn((Gb)x), ss));
}
public static short[] RescaleGrayscale(short[] input, int inputWidth, int inputHeight, int outputWidth, int outputHeight)
{
short[] output = new short[outputWidth * outputHeight];
double xF = (double)inputWidth / (double)outputWidth;
double yF = (double)inputHeight / (double)outputHeight;
int xMax = inputWidth - 1;
int yMax = inputHeight - 1;
unchecked
{
MultiThread.For(0, outputHeight, y =>
{
double oy0 = y * yF;
int oy1 = (int)oy0; // rounds down
int oy2 = (oy1 == yMax) ? oy1 : oy1 + 1;
double dy1 = oy0 - oy1;
double dy2 = 1.0 - dy1;
int yo0 = outputWidth * y;
int yo1 = inputWidth * oy1;
int yo2 = inputWidth * oy2;
double ox0, dx1, dx2;
int ox1, ox2;
for (int x = 0; x < outputWidth; x++)
{
ox0 = x * xF;
ox1 = (int)ox0;
ox2 = (ox1 == xMax) ? ox1 : ox1 + 1;
dx1 = ox0 - ox1;
dx2 = 1.0 - dx1;
output[yo0 + x] =
(short)((dy2 * ((dx2 * input[yo1 + ox1]) + (dx1 * input[yo1 + ox2]))) +
(dy1 * ((dx2 * input[yo2 + ox1]) + (dx1 * input[yo2 + ox2]))));
}
});
}
return(output);
}
public void Render(ILUT lut, int[] output)
{
if (lut == null)
{
MultiThread.For(0, Height, delegate(int y) {
for (int i = Width * y, e = i + Width; i < e; i++)
{
output[i] = _data[i];
}
});
}
else
{
MultiThread.For(0, Height, delegate(int y) {
for (int i = Width * y, e = i + Width; i < e; i++)
{
output[i] = lut[_data[i]];
}
});
}
}
public void Render(ILUT lut, int[] output)
{
if (lut == null)
{
MultiThread.For(0, Height, delegate(int y) {
for (int i = Width * y, e = i + Width, p = i * 3; i < e; i++)
{
output[i] = (_data[p++] << 16) | (_data[p++] << 8) | _data[p++];
}
});
}
else
{
MultiThread.For(0, Height, delegate(int y) {
for (int i = Width * y, e = i + Width, p = i * 3; i < e; i++)
{
output[i] = (lut[_data[p++]] << 16) | (lut[_data[p++]] << 8) | lut[_data[p++]];
}
});
}
}
