private void swatch_DoubleClick(object sender, System.EventArgs e)
{
SystemLayer.Tracing.Ping((sender as Control).Name);
UnaryPixelOps.Level levels = ((LevelsEffectConfigToken)theEffectToken).Levels;
using (ColorDialog cd = new ColorDialog())
{
if ((sender is Panel))
{
cd.Color = ((Panel)sender).BackColor;
cd.AnyColor = true;
if (cd.ShowDialog(this) == DialogResult.OK)
{
ColorBgra col = ColorBgra.FromColor(cd.Color);
if (sender == swatchInLow)
{
levels.ColorInLow = col;
}
else if (sender == swatchInHigh)
{
levels.ColorInHigh = col;
}
else if (sender == swatchOutLow)
{
levels.ColorOutLow = col;
}
else if (sender == swatchOutMid)
{
ColorBgra lo = levels.ColorInLow;
ColorBgra md = ((HistogramRgb)histogramInput.Histogram).GetMeanColor();
ColorBgra hi = levels.ColorInHigh;
ColorBgra out_lo = levels.ColorOutLow;
ColorBgra out_hi = levels.ColorOutHigh;
for (int i = 0; i < 3; i++)
{
double logA = (col[i] - out_lo[i]) / (out_hi[i] - out_lo[i]);
double logBase = (md[i] - lo[i]) / (hi[i] - lo[i]);
double logVal = (logBase == 1.0) ? 0.0 : Math.Log(logA, logBase);
levels.SetGamma(i, (float)Utility.Clamp(logVal, 0.1, 10.0));
}
}
else if (sender == swatchOutHigh)
{
levels.ColorOutHigh = col;
}
else if (sender == swatchInHigh)
{
levels.ColorInHigh = col;
}
InitDialogFromToken();
}
}
}
}
IntSliderControl m_V = 100; // [0,100] {!m_UseRgbPicker} Value
#endregion
void Render(Surface dst, Surface src, Rectangle rect)
{
HsvColor hsv = new HsvColor(m_H, m_S, m_V);
var bgra = m_UseRgbPicker ? m_RgbColor : ColorBgra.FromColor(hsv.ToColor());
var white = ColorBgra.FromColor(Color.White);
var colorToUse = ColorBgra.Lerp(white, bgra, m_TintStrength);
ColorBgra currentPixel;
for (int y = rect.Top; y < rect.Bottom; y++)
{
if (IsCancelRequested)
{
return;
}
for (int x = rect.Left; x < rect.Right; x++)
{
currentPixel = src[x, y];
byte r = currentPixel.R;
byte g = currentPixel.G;
byte b = currentPixel.B;
currentPixel.R = (byte)((int)r * (int)colorToUse.R / 255);
currentPixel.G = (byte)((int)g * (int)colorToUse.G / 255);
currentPixel.B = (byte)((int)b * (int)colorToUse.B / 255);
dst[x, y] = currentPixel;
}
}
}
public Level()
: this(ColorBgra.FromColor(System.Drawing.Color.Black),
ColorBgra.FromColor(System.Drawing.Color.White),
new float[] { 1, 1, 1 },
ColorBgra.FromColor(System.Drawing.Color.Black),
ColorBgra.FromColor(System.Drawing.Color.White))
{
}
private DialogResult ShowColorPicker(Control owner, Point location, bool alpha, out ColorBgra color)
{
using (ColorDialog cd = new ColorDialog(alpha))
{
cd.Color = ColorBgra.FromColor(owner.BackColor);
DialogResult result = cd.ShowDialog(owner);
color = cd.Color;
return(result);
}
}
protected override void OnRender(Rectangle[] renderRects, int startIndex, int length)
{
float factor = 255 / (this._upperThres - this._lowerThres);
bool interpolate = this._color != this._color2;
Pair <int, int> hues = this.GetHues(this._hueDirection);
double fHue = (hues.Second - hues.First) / MathUtil.PIOver2;
double fSat = (this._color2.Saturation - this._color.Saturation) / MathUtil.PIOver2;
double fVal = (this._color2.Value - this._color.Value) / MathUtil.PIOver2;
for (int i = startIndex; i < startIndex + length; i++)
{
Rectangle rect = renderRects[i];
//Pair<float, float>[,] evs = this._cachedEVs.GetValues(rect);
TensorCharacteristics[,] charact = this._cachedCharacteristics.GetValues(rect);
for (int y = rect.Top; y < rect.Bottom; y++)
{
for (int x = rect.Left; x < rect.Right; x++)
{
float ev;
TensorCharacteristics tChar = charact[x - rect.Left, y - rect.Top];
if (this._mode == Modes.Edge)
{
ev = tChar.MaxEigenvalue;
}
else
{
ev = tChar.MinEigenvalue;
}
ev -= this._lowerThres;
ev *= factor;
ev = Math.Max(0, Math.Min(255, ev));
HsvColor color = this._color;
if (ev > 0 && interpolate)
{
double ang = Utils.NormalizePeriodic(tChar.DominantDirection - this._angle, Math.PI);
if (ang > MathUtil.PIOver2)
{
ang = Math.PI - ang;
}
color.Hue = (int)Utils.NormalizePeriodic(ang * fHue + hues.First, 360);
color.Saturation = (int)Math.Max(0, Math.Min(100, ang * fSat + color.Saturation));
color.Value = (int)Math.Max(0, Math.Min(100, ang * fVal + color.Value));
}
var c = ColorBgra.FromColor(color.ToColor());
this.DstArgs.Surface[x, y] = c.NewAlpha((byte)ev);
}
}
}
}
public static Level AutoFromLoMdHi(ColorBgra lo, ColorBgra md, ColorBgra hi)
{
var gamma = new float[3];
for (int i = 0; i < 3; i++)
{
if (lo[i] < md[i] && md[i] < hi[i])
{
gamma[i] = (float)Math.Log(0.5, (float)(md[i] - lo[i]) / (float)(hi[i] - lo[i])).Clamp(0.1, 10.0);
}
else
{
gamma[i] = 1.0f;
}
}
return(new Level(lo, hi, gamma, ColorBgra.FromColor(System.Drawing.Color.Black), ColorBgra.FromColor(System.Drawing.Color.White)));
}
/// <summary>
/// Renders the effect over rectangular regions automatically
/// determined and handled by Paint.NET for multithreading support.
/// </summary>
/// <param name="parameters">
/// Saved settings used to restore the GUI to the same settings it was
/// saved with last time the effect was applied.
/// </param>
/// <param name="dstArgs">The destination canvas.</param>
/// <param name="srcArgs">The source canvas.</param>
/// <param name="rois">
/// A list of rectangular regions to split this effect into so it can
/// be optimized by worker threads. Determined and managed by
/// Paint.NET.
/// </param>
/// <param name="startIndex">
/// The rectangle to begin rendering with. Used in Paint.NET's effect
/// multithreading process.
/// </param>
/// <param name="length">
/// The number of rectangles to render at once. Used in Paint.NET's
/// effect multithreading process.
/// </param>
public override void Render(
EffectConfigToken parameters,
RenderArgs dstArgs,
RenderArgs srcArgs,
Rectangle[] rois,
int startIndex,
int length)
{
//Renders the effect if the dialog is closed and accepted.
if (!IsCancelRequested && !renderReady)
{
var src = srcArgs.Surface;
var dst = dstArgs.Surface;
PersistentSettings token = (PersistentSettings)dlg.EffectToken;
Rectangle selection = EnvironmentParameters.GetSelection(srcArgs.Bounds).GetBoundsInt();
//Something happened, so this must be the final render.
if (StaticSettings.dialogResult != StaticSettings.DialogResult.Default)
{
renderReady = true;
}
if (StaticSettings.dialogResult ==
StaticSettings.DialogResult.StoringImage)
{
if (selection.Width < 1 || selection.Height < 1)
{
MessageBox.Show("The size of the current selection " +
"must match the size of the stored image to work.");
return;
}
//Copies the data into the token.
token.StoredImg = new Bitmap(selection.Width, selection.Height);
for (int i = 0; i < selection.Width; i++)
{
for (int j = 0; j < selection.Height; j++)
{
token.StoredImg.SetPixel(i, j, src[selection.X + i, selection.Y + j]);
}
}
}
else if (StaticSettings.dialogResult ==
StaticSettings.DialogResult.Replacing)
{
if (token.StoredImg.Width != selection.Width ||
token.StoredImg.Height != selection.Height)
{
MessageBox.Show("The unedited image needs to be " +
"stored, and the edited version selected " +
"(with the same size).");
return;
}
for (int y = 0; y < src.Height; y++)
{
for (int x = 0; x < src.Width; x++)
{
Color pix = token.StoredImg.GetPixel(x, y);
if (!src[x, y].Equals(ColorBgra.FromColor(pix)))
{
if (!token.DoInvertArea)
{
if (token.DoInvertPicture)
{
dst[x, y] = pix;
}
else
{
dst[x, y] = src[x, y];
}
}
else
{
dst[x, y] = ColorBgra.Transparent;
}
}
else
{
if (!token.DoInvertArea)
{
dst[x, y] = ColorBgra.Transparent;
}
else
{
if (token.DoInvertPicture)
{
dst[x, y] = pix;
}
else
{
dst[x, y] = src[x, y];
}
}
}
}
}
}
}
StaticSettings.dialogResult = StaticSettings.DialogResult.Default;
}
protected virtual void SecondPass(BitmapData sourceData, Bitmap output, int width, int height, Rectangle bounds)
{
BitmapData outputData = null;
Color[] pallete = output.Palette.Entries;
int weight = ditherLevel;
try
{
outputData = output.LockBits(bounds, ImageLockMode.ReadWrite, PixelFormat.Format8bppIndexed);
byte * pSourceRow = (byte *)sourceData.Scan0.ToPointer();
Int32 *pSourcePixel = (Int32 *)pSourceRow;
byte *pDestinationRow = (byte *)outputData.Scan0.ToPointer();
byte *pDestinationPixel = pDestinationRow;
int[] errorThisRowR = new int[width + 1];
int[] errorThisRowG = new int[width + 1];
int[] errorThisRowB = new int[width + 1];
for (int row = 0; row < height; row++)
{
int[] errorNextRowR = new int[width + 1];
int[] errorNextRowG = new int[width + 1];
int[] errorNextRowB = new int[width + 1];
int ptrInc;
if ((row & 1) == 0)
{
pSourcePixel = (Int32 *)pSourceRow;
pDestinationPixel = pDestinationRow;
ptrInc = +1;
}
else
{
pSourcePixel = (Int32 *)pSourceRow + width - 1;
pDestinationPixel = pDestinationRow + width - 1;
ptrInc = -1;
}
for (int col = 0; col < width; ++col)
{
ColorBgra srcPixel = *(ColorBgra *)pSourcePixel;
ColorBgra target = new ColorBgra();
target.B = Utility.ClampToByte(srcPixel.B - ((errorThisRowB[col] * weight) / 8));
target.G = Utility.ClampToByte(srcPixel.G - ((errorThisRowG[col] * weight) / 8));
target.R = Utility.ClampToByte(srcPixel.R - ((errorThisRowR[col] * weight) / 8));
target.A = srcPixel.A;
byte pixelValue = QuantizePixel(&target);
* pDestinationPixel = pixelValue;
ColorBgra actual = ColorBgra.FromColor(pallete[pixelValue]);
int errorR = actual.R - target.R;
int errorG = actual.G - target.G;
int errorB = actual.B - target.B;
const int a = 7;
const int b = 5;
const int c = 3;
int errorRa = (errorR * a) / 16;
int errorRb = (errorR * b) / 16;
int errorRc = (errorR * c) / 16;
int errorRd = errorR - errorRa - errorRb - errorRc;
int errorGa = (errorG * a) / 16;
int errorGb = (errorG * b) / 16;
int errorGc = (errorG * c) / 16;
int errorGd = errorG - errorGa - errorGb - errorGc;
int errorBa = (errorB * a) / 16;
int errorBb = (errorB * b) / 16;
int errorBc = (errorB * c) / 16;
int errorBd = errorB - errorBa - errorBb - errorBc;
errorThisRowR[col + 1] += errorRa;
errorThisRowG[col + 1] += errorGa;
errorThisRowB[col + 1] += errorBa;
errorNextRowR[width - col] += errorRb;
errorNextRowG[width - col] += errorGb;
errorNextRowB[width - col] += errorBb;
if (col != 0)
{
errorNextRowR[width - (col - 1)] += errorRc;
errorNextRowG[width - (col - 1)] += errorGc;
errorNextRowB[width - (col - 1)] += errorBc;
}
errorNextRowR[width - (col + 1)] += errorRd;
errorNextRowG[width - (col + 1)] += errorGd;
errorNextRowB[width - (col + 1)] += errorBd;
unchecked
{
pSourcePixel += ptrInc;
pDestinationPixel += ptrInc;
}
}
pSourceRow += sourceData.Stride;
pDestinationRow += outputData.Stride;
errorThisRowB = errorNextRowB;
errorThisRowG = errorNextRowG;
errorThisRowR = errorNextRowR;
}
}
finally
{
output.UnlockBits(outputData);
}
}
private unsafe void DrawOverPoints(Point start, Point finish, ColorBgra colorToReplaceWith, ColorBgra colorBeingReplaced)
{
ColorBgra colorAdjusted = ColorBgra.FromColor(Color.Empty);
byte dstAlpha;
ColorBgra colorLifted;
Rectangle[] rectSelRegions;
Rectangle rectBrushArea;
Rectangle rectBrushRelativeOffset = new Rectangle(0, 0, 0, 0);
// special condition for a canvas with no active selection
// create an array of rectangles with a single rectangle
// specifying the size of the canvas
if (Selection.IsEmpty)
{
rectSelRegions = new Rectangle[] { DocumentWorkspace.Document.Bounds };
}
else
{
rectSelRegions = clipRegion.GetRegionScansReadOnlyInt();
}
// code ripped off from clone stamp tool
Point direction = new Point(finish.X - start.X, finish.Y - start.Y);
float length = Utility.Magnitude(direction);
float bw = AppEnvironment.PenInfo.Width / 2;
float fInc;
if (length == 0.0f)
{
fInc = float.PositiveInfinity;
}
else
{
fInc = (float)Math.Sqrt(bw) / length;
}
// iterate through all points in the linear stroke
for (float f = 0; f < 1; f += fInc)
{
PointF q = new PointF(finish.X * (1 - f) + f * start.X,
finish.Y * (1 - f) + f * start.Y);
Point p = Point.Round(q);
// iterate through all rectangles
foreach (Rectangle rectSel in rectSelRegions)
{
// set the perimeter values for the rectBrushRegion rectangle
// so the area can be intersected with the active
// selection individual recSelRegion rectangle.
rectBrushArea = new Rectangle(p.X - halfPenWidth, p.Y - halfPenWidth, ceilingPenWidth, ceilingPenWidth);
// test the intersection...
// the perimeter values of rectBrushRegion (above)
// may calculate negative but
// *should* always be clipped to acceptable values by
// by the following intersection.
if (rectBrushArea.IntersectsWith(rectSel))
{
// a valid intersection was found.
// prune the brush rectangle to fit the intersection.
rectBrushArea.Intersect(rectSel);
for (int y = rectBrushArea.Top; y < rectBrushArea.Bottom; y++)
{
// create a new rectangle for an offset relative to the
// the brush mask
rectBrushRelativeOffset.X = Math.Max(rectSel.X - (p.X - halfPenWidth), 0);
rectBrushRelativeOffset.Y = Math.Max(rectSel.Y - (p.Y - halfPenWidth), 0);
rectBrushRelativeOffset.Size = rectBrushArea.Size;
ColorBgra *srcBgra;
ColorBgra *dstBgra;
try
{
// get the source address of the first pixel from the brush mask.
srcBgra = (ColorBgra *)brushRenderArgs.Surface.GetPointAddress(rectBrushRelativeOffset.Left,
rectBrushRelativeOffset.Y + (y - rectBrushArea.Y));
// get the address of the pixel we want to change on the canvas.
dstBgra = (ColorBgra *)renderArgs.Surface.GetPointAddress(rectBrushArea.Left, y);
}
catch
{
return;
}
for (int x = rectBrushArea.Left; x < rectBrushArea.Right; x++)
{
if (srcBgra->A != 0)
{
colorLifted = *dstBgra;
// hasDrawn is set if a pixel endures color replacement so that
// the placed surface will be left alone, otherwise, the placed
// surface will be discarded
// adjust the channel color up and down based on the difference calculated
// from the source. These values are clamped to a byte. It's possible
// that the new color is too dark or too bright to take the whole range
bool boolCIT = this.IsColorInTolerance(colorLifted, colorBeingReplaced);
bool boolPAAA = false;
if (AppEnvironment.AntiAliasing)
{
boolPAAA = this.IsPointAlreadyAntiAliased(x, y);
}
if (boolCIT || boolPAAA)
{
if (boolPAAA)
{
colorAdjusted = (ColorBgra)AAPoints(x, y);
if (penWidth < 2.0f)
{
colorAdjusted.B = Utility.ClampToByte(colorToReplaceWith.B + (colorAdjusted.B - colorBeingReplaced.B));
colorAdjusted.G = Utility.ClampToByte(colorToReplaceWith.G + (colorAdjusted.G - colorBeingReplaced.G));
colorAdjusted.R = Utility.ClampToByte(colorToReplaceWith.R + (colorAdjusted.R - colorBeingReplaced.R));
colorAdjusted.A = Utility.ClampToByte(colorToReplaceWith.A + (colorAdjusted.A - colorBeingReplaced.A));
}
}
else
{
colorAdjusted.B = Utility.ClampToByte(colorLifted.B + (colorToReplaceWith.B - colorBeingReplaced.B));
colorAdjusted.G = Utility.ClampToByte(colorLifted.G + (colorToReplaceWith.G - colorBeingReplaced.G));
colorAdjusted.R = Utility.ClampToByte(colorLifted.R + (colorToReplaceWith.R - colorBeingReplaced.R));
colorAdjusted.A = Utility.ClampToByte(colorLifted.A + (colorToReplaceWith.A - colorBeingReplaced.A));
}
if ((srcBgra->A != 255) && AppEnvironment.AntiAliasing)
{
colorAdjusted.A = srcBgra->A;
dstAlpha = dstBgra->A;
*dstBgra = blendOp.Apply(*dstBgra, colorAdjusted);
dstBgra->A = dstAlpha;
if (!this.IsPointAlreadyAntiAliased(x, y))
{
AAPointsAdd(x, y, colorAdjusted);
}
}
else
{
colorAdjusted.A = (*dstBgra).A;
*dstBgra = colorAdjusted;
if (boolPAAA)
{
AAPointsRemove(x, y);
}
}
hasDrawn = true;
}
}
++srcBgra;
++dstBgra;
}
}
}
}
}
}
/// <summary>
/// Execute a second pass through the bitmap
/// </summary>
/// <param name="sourceData">The source bitmap, locked into memory</param>
/// <param name="output">The output bitmap</param>
/// <param name="width">The width in pixels of the image</param>
/// <param name="height">The height in pixels of the image</param>
/// <param name="bounds">The bounding rectangle</param>
protected virtual void SecondPass(BitmapData sourceData, Bitmap output, int width, int height, Rectangle bounds, ProgressEventHandler progressCallback)
{
BitmapData outputData = null;
Color[] pallete = output.Palette.Entries;
int weight = ditherLevel;
try
{
// Lock the output bitmap into memory
outputData = output.LockBits(bounds, ImageLockMode.ReadWrite, PixelFormat.Format8bppIndexed);
// Define the source data pointers. The source row is a byte to
// keep addition of the stride value easier (as this is in bytes)
byte * pSourceRow = (byte *)sourceData.Scan0.ToPointer();
Int32 *pSourcePixel = (Int32 *)pSourceRow;
// Now define the destination data pointers
byte *pDestinationRow = (byte *)outputData.Scan0.ToPointer();
byte *pDestinationPixel = pDestinationRow;
int[] errorThisRowR = new int[width + 1];
int[] errorThisRowG = new int[width + 1];
int[] errorThisRowB = new int[width + 1];
for (int row = 0; row < height; row++)
{
int[] errorNextRowR = new int[width + 1];
int[] errorNextRowG = new int[width + 1];
int[] errorNextRowB = new int[width + 1];
int ptrInc;
if ((row & 1) == 0)
{
pSourcePixel = (Int32 *)pSourceRow;
pDestinationPixel = pDestinationRow;
ptrInc = +1;
}
else
{
pSourcePixel = (Int32 *)pSourceRow + width - 1;
pDestinationPixel = pDestinationRow + width - 1;
ptrInc = -1;
}
// Loop through each pixel on this scan line
for (int col = 0; col < width; ++col)
{
// Quantize the pixel
ColorBgra srcPixel = *(ColorBgra *)pSourcePixel;
ColorBgra target = new ColorBgra();
target.B = Utility.ClampToByte(srcPixel.B - ((errorThisRowB[col] * weight) / 8));
target.G = Utility.ClampToByte(srcPixel.G - ((errorThisRowG[col] * weight) / 8));
target.R = Utility.ClampToByte(srcPixel.R - ((errorThisRowR[col] * weight) / 8));
target.A = srcPixel.A;
byte pixelValue = QuantizePixel(&target);
* pDestinationPixel = pixelValue;
ColorBgra actual = ColorBgra.FromColor(pallete[pixelValue]);
int errorR = actual.R - target.R;
int errorG = actual.G - target.G;
int errorB = actual.B - target.B;
// Floyd-Steinberg Error Diffusion:
// a) 7/16 error goes to x+1
// b) 5/16 error goes to y+1
// c) 3/16 error goes to x-1,y+1
// d) 1/16 error goes to x+1,y+1
const int a = 7;
const int b = 5;
const int c = 3;
int errorRa = (errorR * a) / 16;
int errorRb = (errorR * b) / 16;
int errorRc = (errorR * c) / 16;
int errorRd = errorR - errorRa - errorRb - errorRc;
int errorGa = (errorG * a) / 16;
int errorGb = (errorG * b) / 16;
int errorGc = (errorG * c) / 16;
int errorGd = errorG - errorGa - errorGb - errorGc;
int errorBa = (errorB * a) / 16;
int errorBb = (errorB * b) / 16;
int errorBc = (errorB * c) / 16;
int errorBd = errorB - errorBa - errorBb - errorBc;
errorThisRowR[col + 1] += errorRa;
errorThisRowG[col + 1] += errorGa;
errorThisRowB[col + 1] += errorBa;
errorNextRowR[width - col] += errorRb;
errorNextRowG[width - col] += errorGb;
errorNextRowB[width - col] += errorBb;
if (col != 0)
{
errorNextRowR[width - (col - 1)] += errorRc;
errorNextRowG[width - (col - 1)] += errorGc;
errorNextRowB[width - (col - 1)] += errorBc;
}
errorNextRowR[width - (col + 1)] += errorRd;
errorNextRowG[width - (col + 1)] += errorGd;
errorNextRowB[width - (col + 1)] += errorBd;
// unchecked is necessary because otherwise it throws a fit if ptrInc is negative.
unchecked
{
pSourcePixel += ptrInc;
pDestinationPixel += ptrInc;
}
}
// Add the stride to the source row
pSourceRow += sourceData.Stride;
// And to the destination row
pDestinationRow += outputData.Stride;
if (progressCallback != null)
{
progressCallback(this, new ProgressEventArgs(100.0 * (0.5 + ((double)(row + 1) / (double)height) / 2.0)));
}
errorThisRowB = errorNextRowB;
errorThisRowG = errorNextRowG;
errorThisRowR = errorNextRowR;
}
}
finally
{
// Ensure that I unlock the output bits
output.UnlockBits(outputData);
}
}
/// <summary>
/// Renders the effect over rectangular regions automatically
/// determined and handled by Paint.NET for multithreading support.
/// </summary>
/// <param name="parameters">
/// Saved settings used to restore the GUI to the same settings it was
/// saved with last time the effect was applied.
/// </param>
/// <param name="dstArgs">The destination canvas.</param>
/// <param name="srcArgs">The source canvas.</param>
/// <param name="rois">
/// A list of rectangular regions to split this effect into so it can
/// be optimized by worker threads. Determined and managed by
/// Paint.NET.
/// </param>
/// <param name="startIndex">
/// The rectangle to begin rendering with. Used in Paint.NET's effect
/// multithreading process.
/// </param>
/// <param name="length">
/// The number of rectangles to render at once. Used in Paint.NET's
/// effect multithreading process.
/// </param>
public override void Render(
EffectConfigToken parameters,
RenderArgs dstArgs,
RenderArgs srcArgs,
Rectangle[] rois,
int startIndex,
int length)
{
//Renders the effect if the dialog is closed and accepted.
if (!IsCancelRequested && !renderReady)
{
var src = srcArgs.Surface;
var dst = dstArgs.Surface;
PersistentSettings token = (PersistentSettings)dlg.EffectToken;
Rectangle selection = EnvironmentParameters.GetSelection(srcArgs.Bounds).GetBoundsInt();
//Something happened, so this must be the final render.
if (StaticSettings.dialogResult != StaticSettings.DialogResult.Default)
{
renderReady = true;
}
if (StaticSettings.dialogResult ==
StaticSettings.DialogResult.StoringFirstImage)
{
if (selection.Width <= 1 || selection.Height <= 1 ||
((token.BmpReplacing.Width != selection.Width ||
token.BmpReplacing.Height != selection.Height) &&
(token.BmpReplacing.Width != 1 &&
token.BmpReplacing.Height != 1)))
{
MessageBox.Show("The image to replace and its " +
"replacing image must be the same size, and " +
"the selection must be larger than a pixel.");
return;
}
//Copies the data into the token.
token.BmpToReplace = new Bitmap(selection.Width, selection.Height);
for (int i = 0; i < selection.Width; i++)
{
for (int j = 0; j < selection.Height; j++)
{
token.BmpToReplace.SetPixel(i, j, src[selection.X + i, selection.Y + j]);
}
}
}
else if (StaticSettings.dialogResult ==
StaticSettings.DialogResult.StoringSecondImage)
{
if (selection.Width <= 1 || selection.Height <= 1 ||
((token.BmpToReplace.Width != selection.Width ||
token.BmpToReplace.Height != selection.Height) &&
(token.BmpToReplace.Width != 1 &&
token.BmpToReplace.Height != 1)))
{
MessageBox.Show("The image to replace and its " +
"replacing image must be the same size, and " +
"the selection must be larger than a pixel.");
return;
}
//Copies the data into the token.
token.BmpReplacing = new Bitmap(selection.Width, selection.Height);
for (int i = 0; i < selection.Width; i++)
{
for (int j = 0; j < selection.Height; j++)
{
token.BmpReplacing.SetPixel(i, j, src[selection.X + i, selection.Y + j]);
}
}
}
else if (StaticSettings.dialogResult ==
StaticSettings.DialogResult.Replacing)
{
if (token.BmpToReplace.Width != token.BmpReplacing.Width ||
token.BmpToReplace.Height != token.BmpReplacing.Height ||
token.BmpToReplace.Width == 1 ||
token.BmpToReplace.Height == 1)
{
MessageBox.Show("Both images must be selected first.");
return;
}
List <Point> replacedPixels = new List <Point>();
//Looks at each pixel and compares it to the top-left
//corner of the first image. Skips pixels that are too
//far to the right or bottom to contain the entire image.
//Tracks the pixel location. When a match is found, all
//its pixels are checked. If everything matches, those
//pixels are replaced immediately and added to a list of
//pixels to skip over.
dst.CopySurface(src);
for (int y = 0; y <= src.Height - token.BmpToReplace.Height; y++)
{
for (int x = 0; x <= src.Width - token.BmpToReplace.Width; x++)
{
//Skips all pixels that have been replaced.
if (replacedPixels.Count > 0 &&
replacedPixels[0].X == x &&
replacedPixels[0].Y == y)
{
replacedPixels.RemoveAt(0);
continue;
}
//Checks if the first pixel matches.
if (ColorsMatch(ColorBgra.FromColor(
token.BmpToReplace.GetPixel(0, 0)),
src[x, y], token.Tolerance))
{
bool totalMatch = true;
//Checks if every pixel matches.
for (int yy = 0; yy < token.BmpToReplace.Height; yy++)
{
for (int xx = 0; xx < token.BmpToReplace.Width; xx++)
{
if (!ColorsMatch(ColorBgra.FromColor(
token.BmpToReplace.GetPixel(xx, yy)),
src[x + xx, y + yy], token.Tolerance))
{
totalMatch = false;
break;
}
}
if (!totalMatch)
{
break;
}
}
//Replaces the matching pixels. They will be skipped.
if (totalMatch)
{
for (int yy = 0; yy < token.BmpReplacing.Height; yy++)
{
for (int xx = 0; xx < token.BmpReplacing.Width; xx++)
{
dst[x + xx, y + yy] = ColorBgra.FromColor(token.BmpReplacing.GetPixel(xx, yy));
//All pixels except the first should be skipped.
//The first has been checked already.
if (xx != 0 && yy != 0)
{
replacedPixels.Add(new Point(x + xx, y + yy));
}
}
}
replacedPixels.OrderBy(p => p.X).ThenBy(p => p.Y);
}
}
}
}
}
}
StaticSettings.dialogResult = StaticSettings.DialogResult.Default;
}
private void RenderOutputBackwards(Surface dst, Rectangle[] rects, RectInt32 bounds)
{
var center = new PointInt32(bounds.Left + bounds.Width / 2, bounds.Top + bounds.Height / 2);
double maxValue = 0;
object _lock = new object();
if (this.IsCancelRequested)
{
return;
}
Parallel.For(0, rects.Length, (i, loopStateI) =>
{
if (this.IsCancelRequested)
{
loopStateI.Stop();
return;
}
Rectangle rect = rects[i];
Parallel.For(rect.Top, rect.Bottom, (y, loopStateY) =>
{
if (this.IsCancelRequested)
{
loopStateY.Stop();
return;
}
double mVal = 0;
for (int x = rect.Left; x < rect.Right; x++)
{
Complex val = this._fftPlanBackwards.GetOutput(x - bounds.Left, y - bounds.Top);
mVal = Math.Max(mVal, val.Magnitude);
}
lock (_lock) { maxValue = Math.Max(maxValue, mVal); }
});
});
double factor = 1.0 / maxValue;
Func <double, ColorBgra> getColor = this._valueSource.GetGetColorFunc();
if (this.IsCancelRequested)
{
return;
}
Parallel.For(0, rects.Length, (i, loopStateI) =>
{
if (this.IsCancelRequested)
{
loopStateI.Stop();
return;
}
Rectangle rect = rects[i];
Parallel.For(rect.Top, rect.Bottom, (y, loopStateY) =>
{
if (this.IsCancelRequested)
{
loopStateY.Stop();
return;
}
for (int x = rect.Left; x < rect.Right; x++)
{
Complex val = this._fftPlanBackwards.GetOutput(x - bounds.Left, y - bounds.Top);
ColorBgra color = getColor(val.Magnitude * factor);
dst[x, y] = ColorBgra.FromColor(color);
}
});
});
}
void brushcombobox_DrawItem(object sender, DrawItemEventArgs e)
{
e.DrawBackground();
if (e.State == DrawItemState.Selected)
{
e.DrawFocusRectangle();
}
if (e.Index == brushcombobox.Items.Count - 1)
{
e.Graphics.DrawString(brushcombobox.Items[e.Index].ToString(), e.Font, new SolidBrush(ColorBgra.Blend(new ColorBgra[] { ColorBgra.FromColor(e.ForeColor), ColorBgra.FromColor(e.BackColor) }).ToColor()), e.Bounds.X, e.Bounds.Y + 8);
}
else
{
if (e.Index >= 0)
{
if (droppingdown)
{
var image = brushcollection[e.Index].ThumbnailAlphaOnly.CreateAliasedBitmap();
e.Graphics.DrawImage(image, e.Bounds.X + (32 - image.Width) / 2, e.Bounds.Y + (32 - image.Height) / 2);
e.Graphics.DrawString(brushcollection[e.Index].Name, e.Font, new SolidBrush(e.ForeColor), e.Bounds.X + 32, e.Bounds.Y);
e.Graphics.DrawString(brushcollection[e.Index].NativeSizePrettyString, e.Font, new SolidBrush(ColorBgra.Blend(new ColorBgra[] { ColorBgra.FromColor(e.ForeColor), ColorBgra.FromColor(e.BackColor) }).ToColor()), e.Bounds.X + 64, e.Bounds.Y + 16);
}
else
{
var image = brushcollection[e.Index].ThumbnailAlphaOnly.CreateAliasedBitmap();
e.Graphics.DrawImage(image, e.Bounds.X + (32 - image.Width) / 4, e.Bounds.Y + (32 - image.Height) / 4, image.Width / 2, image.Height / 2);
e.Graphics.DrawString(brushcollection[e.Index].Name, e.Font, new SolidBrush(e.ForeColor), e.Bounds.X + 16, e.Bounds.Y);
}
}
}
}