public bufferedLockBitmap EdgeMagnitude()
{
bufferedLockBitmap pic1 = NO.LinearFilter(this.ImageLockBitmap, gn.line_detect_vertical(), 3, 3, 1, 1, "abs");
bufferedLockBitmap pic2 = NO.LinearFilter(this.ImageLockBitmap, gn.line_detect_Horizontal(), 3, 3, 1, 1, "abs");
Bitmap temp = new Bitmap(this.ImageLockBitmap.Width, this.ImageLockBitmap.Height);
bufferedLockBitmap bt = new bufferedLockBitmap(temp);
bt.LockBits();
double sumR = 0, sumG = 0, sumB = 0;
for (int i = 0; i < this.ImageLockBitmap.Height; i++)
{
for (int j = 0; j < this.ImageLockBitmap.Width; j++)
{
sumR += (double)pic1.Getpixel(j, i).R + pic2.Getpixel(j, i).R;
sumG += (double)pic1.Getpixel(j, i).G + pic2.Getpixel(j, i).G;
sumB += (double)pic1.Getpixel(j, i).B + pic2.Getpixel(j, i).B;
if (sumR > 255) sumR = 255;
else if (sumR < 0) sumR = 0;
if (sumG > 255) sumG = 255;
else if (sumG < 0) sumG = 0;
if (sumB > 255) sumB = 255;
else if (sumB < 0) sumB = 0;
bt.SetPixel(j, i, Color.FromArgb(Convert.ToInt32(sumR), Convert.ToInt32(sumG), Convert.ToInt32(sumB)));
sumR = 0;
sumG = 0;
sumB = 0;
}
}
bt.UnlockBits();
this.ImageLockBitmap = bt;
return this.ImageLockBitmap;
}
public Bitmap Addpictures(bufferedLockBitmap pic1, bufferedLockBitmap pic2, double fraction)
{
if (pic1.Width == pic2.Width && pic1.Height == pic2.Height)
{
temp = new Bitmap(pic1.Width, pic1.Height);
bufferedLockBitmap r = new bufferedLockBitmap(temp);
r.LockBits();
int R, G, B = 0;
double f;
for (int i = 0; i < temp.Height; i++)
{
for (int j = 0; j < temp.Width; j++)
{
f = ((((double)pic1.Getpixel(j, i).R)) * fraction) + (((double)pic2.Getpixel(j, i).R) * (1 - fraction));
R = Convert.ToInt32(f);
f = ((((double)pic1.Getpixel(j, i).G)) * fraction) + (((double)pic2.Getpixel(j, i).G) * (1 - fraction));
G = Convert.ToInt32(f);
f = ((((double)pic1.Getpixel(j, i).B)) * fraction) + (((double)pic2.Getpixel(j, i).B) * (1 - fraction));
B = Convert.ToInt32(f);
r.SetPixel(j, i, Color.FromArgb(R, G, B));
}
}
r.UnlockBits();
return r.source;
}
else
MessageBox.Show("picture 1 size is equal to picture 2 size");
return temp;
}
public void drawing(bufferedLockBitmap pixel, Chart chart1)
{
int R, G, B;
for (int i = 0; i < pixel.Height; i++)
{
for (int j = 0; j <pixel.Width; j++)
{
R = pixel.Getpixel(j,i).R;
Rarray[R]++;
G = pixel.Getpixel(j, i).G;
Garray[G]++;
B = pixel.Getpixel(j, i).B;
Barray[B]++;
}
}
chart1.Series["Red"].Points.Clear();
chart1.Series["Green"].Points.Clear();
chart1.Series["Blue"].Points.Clear();
for (int w = 0; w < 256; w++)
{
chart1.Series["Red"].Points.AddXY(w, this.Rarray[w]);
chart1.Series["Green"].Points.AddXY(w, this.Garray[w]);
chart1.Series["Blue"].Points.AddXY(w, this.Barray[w]);
}
chart1.Series["Green"].ChartType = SeriesChartType.SplineArea;
chart1.Series["Green"].Color = Color.Green;
chart1.Series["Red"].ChartType = SeriesChartType.SplineArea;
chart1.Series["Red"].Color = Color.Red;
chart1.Series["Blue"].ChartType = SeriesChartType.SplineArea;
chart1.Series["Blue"].Color = Color.Blue;
}
public void setbt(Bitmap input)
{
this.selectedimage = new bufferedLockBitmap(input);
pictureBox1.Image = input;
pictureBox2.Image = input;
this.selectedimage.LockBits();
this.selectedimage.UnlockBits();
op = new Pixel_logic__Operations(selectedimage);
}
/**
* find 4 adjacent pixels
X1 = floor (OldX) ; X2 = X1 + 1
Y1 = floor (OldY) ; Y2 = Y1 + 1
P1 = OrigBuf[X1,Y1] ; P2 = OrigBuf[X2,Y1]
P3 = OrigBuf[X1,Y2] ; P4 = OrigBuf[X2,Y2]
Calculate X, Y fractions
Xfraction = OldX – X1
Yfraction = OldY – Y1
Interpolate in X-Direction
Z1 = P1 × (1 – Xfraction) + P2 × Xfraction
Z2 = P3 × (1 – Xfraction) + P4 × Xfraction
Interpolate in Y-Direction
NewPixel = Z1 × (1 – Yfraction) + Z2 × Yfraction
*/
public Color calculate(bufferedLockBitmap _original_buffer, float _old_x, float _old_y,int _new_width, int _new_height)
{
int new_red, new_green, new_blue;
Color ret;
int x_1 = (int)Math.Floor(_old_x);
int x_2 = x_1 + 1;
int y_1 = (int)Math.Floor(_old_y);
int y_2 = y_1 + 1;
Color p_1 = Color.FromArgb(0);
Color p_2 = Color.FromArgb(0);
Color p_3 = Color.FromArgb(0);
Color p_4 = Color.FromArgb(0);
if (x_2 < _new_width && y_2 < _new_height)
{
p_1 = _original_buffer.Getpixel(x_1, y_1);
p_2 = _original_buffer.Getpixel(x_2, y_2);
p_3 = _original_buffer.Getpixel(x_1, y_2);
p_4 = _original_buffer.Getpixel(x_2, y_2);
}
float x_fraction = _old_x - x_1;
float y_fraction = _old_y - y_1;
// Interpolate in X-Direction
// Red
int r_1 = (int)Math.Floor(p_1.R * (1 - x_fraction) + p_2.R * x_fraction);
int r_2 = (int)Math.Floor(p_3.R * (1 - x_fraction) + p_4.R * x_fraction);
// Green
int g_1 = (int)Math.Floor(p_1.G * (1 - x_fraction) + p_2.G * x_fraction);
int g_2 = (int)Math.Floor(p_3.G * (1 - x_fraction) + p_4.G * x_fraction);
// Blue
int b_1 = (int)Math.Floor(p_1.B * (1 - x_fraction) + p_2.B * x_fraction);
int b_2 = (int)Math.Floor(p_3.B * (1 - x_fraction) + p_4.B * x_fraction);
// Interpolate in Y-Direction
new_red = (int)Math.Floor(r_1 * (1 - y_fraction) + r_2 * y_fraction);
new_green = (int)Math.Floor(g_1 * (1 - y_fraction) + g_2 * y_fraction);
new_blue = (int)Math.Floor(b_1 * (1 - y_fraction) + b_2 * y_fraction);
ret = Color.FromArgb(new_red, new_green, new_blue);
return ret;
}
private void comboBox3_SelectedIndexChanged(object sender, EventArgs e)
{
if (comboBox3.SelectedValue == (object)"S")
{
returned_image = new bufferedLockBitmap(image[comboBox1.SelectedIndex].subtraction(image[comboBox2.SelectedIndex].ImageLockBitmap));
pictureBox3.Image = returned_image.source;
}
else if (comboBox3.SelectedValue == (object)"A")
{
if (!string.IsNullOrEmpty(textBox1.Text))
{
returned_image = new bufferedLockBitmap(image[comboBox1.SelectedIndex].addtion(image[comboBox2.SelectedIndex].ImageLockBitmap, Convert.ToDouble(textBox1.Text)));
pictureBox3.Image = returned_image.source;
}
else
MessageBox.Show("please Enter Addition Fraction");
}
}
public Pixel_logic__Operations(bufferedLockBitmap input)
{
int te = 0;
for (int i = 0; i < input.Height; i++)
{
for (int j = 0; j < input.Width; j++)
{
te = input.Getpixel(j, i).R;
if (te > maxR) maxR = te;
te = input.Getpixel(j, i).G;
if (te > maxG) maxG = te;
te = input.Getpixel(j, i).B;
if (te > maxb) maxb = te;
te = input.Getpixel(j, i).R;
if (te < minR) minR = te;
te = input.Getpixel(j, i).G;
if (te < minG) minG = te;
te = input.Getpixel(j, i).B;
if (te < minb) minb = te;
}
}
Word = new byte[8];
Word[0] = 1;
Word[1] = 2;
Word[2] = 4;
Word[3] = 8;
Word[4] = 16;
Word[5] = 32;
Word[6] = 64;
Word[7] = 128;
}
/**
For each pixel location in the new buffer P' (NewX, NewY), do:
Find corresponding old location, P = W-1.P'
Validate that this old location lie inside the original image boundary (i.e. 0 ≤ OldX < W, 0 ≤ Old Y < H). Otherwise, set the new empty pixel to 0 and continue to next location.
If Validated, apply Bilinear Interpolation Algorithm to get the new pixel value, as follows:(Refer to above figure)
*/
public bufferedLockBitmap apply_transformation_matrix_to_bitmap_or_buffer(Matrix _transformations_matrix, bufferedLockBitmap _src_img, int _new_width, int _new_height)
{
Bitmap temp = new Bitmap(_new_width, _new_height);
bufferedLockBitmap ret = new bufferedLockBitmap(temp);
ret.LockBits();
BilinearInterpolation obj_bi_lin_interpol = new BilinearInterpolation();
for (int i = 0; i < _new_width; i++)
{
for (int j = 0; j < _new_height; j++)
{
PointF[] points = {
new PointF(i, j)
};
_transformations_matrix.TransformPoints(points);
Color _color = Color.FromArgb(0);
if (points[0].X >= 0 && points[0].X < _src_img.source.Width && points[0].Y >= 0 && points[0].Y < _src_img.source.Height)
_color = obj_bi_lin_interpol.calculate(_src_img, points[0].X, points[0].Y, _new_width, _new_height);
ret.SetPixel(i, j, _color);
}
}
ret.UnlockBits();
return ret;
}
public Bitmap subtraction(bufferedLockBitmap input1)
{
return op.Subtraction(input1, this.ImageLockBitmap);
}
public Bitmap Read(String path)
{
String[] pa = path.Split('.');
if (pa[pa.Length - 1] == "ppm" || pa[pa.Length - 1] == "PPM")
{
PP36File = new PP36FileReading(path);
ImageBitmap = PP36File.ImageBitmap;
ImageHigh = ImageBitmap.Height;
ImageWidth = ImageBitmap.Width;
}
else
{
PP36File = new PP36FileReading();
PP36File.readbitmap(path);
ImageBitmap = PP36File.ImageBitmap;
ImageHigh = ImageBitmap.Height;
ImageWidth = ImageBitmap.Width;
}
ImageLockBitmap = new bufferedLockBitmap(ImageBitmap);
ImageLockBitmap.LockBits();
op = new Pixel_logic__Operations(this.ImageLockBitmap);
return ImageLockBitmap.source;
}
public bufferedLockBitmap meanfilter(int w, int h, int x, int y)
{
this.ImageLockBitmap = NO.LinearFilter(this.ImageLockBitmap, gn.Generatingmean(w, h), w, h, x, y, "NO");
return this.ImageLockBitmap;
}
private void numericUpDown2_ValueChanged(object sender, EventArgs e)
{
picbox = (PictureBox)tabControl1.TabPages[tabControl1.SelectedIndex].Controls[0];
bf = image[tabControl1.SelectedIndex].Gamma(dif);
his = new Histogramdrawing();
his.drawing(bf, chart1);
picbox = (PictureBox)tabControl1.TabPages[tabControl1.SelectedIndex].Controls[0];
picbox.Image = bf.source;
}
public bufferedLockBitmap Grayscale(bufferedLockBitmap input)
{
input.LockBits();
int sum = 0;
for (int i = 0; i < input.Height; i++)
{
for (int j = 0; j < input.Width; j++)
{
sum = 0;
sum = input.Getpixel(j, i).R + input.Getpixel(j, i).G + input.Getpixel(j, i).B;
sum /= 3;
input.SetPixel(j, i, Color.FromArgb(sum, sum, sum));
}
}
input.UnlockBits();
return input;
}
public bufferedLockBitmap Flipping()
{
this.ImageLockBitmap = op.FlippingHorizontal(this.ImageLockBitmap);
return this.ImageLockBitmap;
}
public bufferedLockBitmap Brightness(int dif)
{
this.ImageLockBitmap = op.Brightness(this.ImageLockBitmap, dif);
return this.ImageLockBitmap;
}
public bufferedLockBitmap Gamma(double dif)
{
this.ImageLockBitmap = op.Gamma(this.ImageLockBitmap, dif);
return this.ImageLockBitmap;
}
/**
You can use this matrix as follows:
1 - Create new object with identity matrix (empty constructor)
2 - Apply a set of transformations that you want to this matrix
3 - Transform the four corners of the original image to calculate
4 - The min X and min Y of the transformed image
5 - The width & height of the new image buffer
6 - Translate this matrix by (- min X, - min Y)
7 - Invert the matrix
8 - Use the inverted version to reverse transform all new locations in the new image buffer
**/
public Bitmap perform_concat_matrices_operations(bufferedLockBitmap _src_img, float _shear_x = (float)0, float _shear_y = (float)0, float _scale_x = (float)1, float _scale_y = (float)1, float _rotate_theta = (float)0)
{
bufferedLockBitmap ret;
// 1 - Create new object with identity matrix (empty constructor)
Matrix transformations_matrix = new Matrix();
// 2 - Apply a set of transformations that you want to this matrix
transformations_matrix.Rotate(_rotate_theta, MatrixOrder.Append);
transformations_matrix.Scale(_scale_x, _scale_y, MatrixOrder.Append);
transformations_matrix.Shear(_shear_x, _shear_y, MatrixOrder.Append);
// 3 - Transform the four corners of the original image to calculate
/**
* To get the size of the new (destination) image,
* apply the forward mapping to the four corners of the original image
* ([0,0], [W-1,0], [0,H-1], [W-1,H-1])
* to get their new locations.
* Then use these new four locations to get the width and height of the destination image
* (e.g. to get new width:
* find min X & max X of the four new points and subtract them,
* do the same for Y to get the new height)
*/
Point[] corner_points = {
new Point(0, 0),
new Point(_src_img.source.Width - 1, 0),
new Point(0, _src_img.source.Height - 1),
new Point(_src_img.source.Width - 1, _src_img.source.Height - 1)
};
transformations_matrix.TransformPoints(corner_points);
int min_x = find_min_x(corner_points);
int min_y = find_min_y(corner_points);
int max_x = find_max_x(corner_points);
int max_y = find_max_y(corner_points);
int new_width =Math.Abs(Math.Abs(max_x) - Math.Abs(min_x));//edited
int new_height = Math.Abs(max_y) - Math.Abs(min_y);//edited
// 4 - The min X and min Y of the transformed image
/**
* To make the transformed image totally fit inside the buffer, a translation with (- min X, - min Y) should be appended to the original transformation matrix (W) before inverting it.
*/
// 6 - Translate this matrix by (- min X, - min Y)
transformations_matrix.Translate(-min_x, -min_y, MatrixOrder.Append);
// 7 - Invert the matrix
transformations_matrix.Invert();
// 8 - Use the inverted version to reverse transform all new locations in the new image buffer
return apply_transformation_matrix_to_bitmap_or_buffer(transformations_matrix, _src_img, new_width, new_height).source;
}
public void Quantization(bufferedLockBitmap input, int num)
{
int sum = 0;
double f = 2;
int math = Convert.ToInt32(Math.Log(Convert.ToDouble(num), f));
for (int w = 7; w > 7 - math; w--)
{
sum = sum + Convert.ToInt32(Math.Pow(f, Convert.ToInt32(w)));
}
temp = new Bitmap(input.Width, input.Height);
bf = new bufferedLockBitmap(temp);
input.LockBits();
int R, G, B;
for (int i = 0; i < input.Height; i++)
{
for (int j = 0; j < input.Width; j++)
{
R = input.Getpixel(j, i).R & sum;
G = input.Getpixel(j, i).G & sum;
B = input.Getpixel(j, i).B & sum;
input.SetPixel(j, i, Color.FromArgb(R, G, B));
}
}
input.UnlockBits();
}
public Bitmap Subtraction(bufferedLockBitmap pic1, bufferedLockBitmap pic2)
{
temp = new Bitmap(pic1.Width, pic1.Height);
bufferedLockBitmap bf = new bufferedLockBitmap(temp);
bf.LockBits();
int gmaxR = 0, gmaxG = 0, gmaxb = 0, gminR = 1000, gminG = 10000, gminb = 1000;
int te;
int R, G, B = 0;
if (pic1.Width == pic2.Width)
{
R = 0; G = 0; B = 0;
for (int i = 0; i < pic1.Height; i++)
{
for (int j = 0; j < pic1.Width; j++)
{
R = Math.Abs(pic1.Getpixel(j, i).R - pic2.Getpixel(j, i).R);
G = Math.Abs(pic1.Getpixel(j, i).G - pic2.Getpixel(j, i).G);
B = Math.Abs(pic1.Getpixel(j, i).B - pic2.Getpixel(j, i).B);
te = R;
if (te > gmaxR) gmaxR = te;
if (te < gminR) gminR = te;
te = G;
if (te > gmaxb) gmaxb = te;
if (te < gminb) gminb = te;
te = B;
if (te > gmaxG) gmaxG = te;
if (te < gminG) gminG = te;
}
}
}
for (int i = 0; i < pic1.Height; i++)
{
for (int j = 0; j < pic1.Width; j++)
{
R = Math.Abs(pic1.Getpixel(j, i).R - pic2.Getpixel(j, i).R);
G = Math.Abs(pic1.Getpixel(j, i).G - pic2.Getpixel(j, i).G);
B = Math.Abs(pic1.Getpixel(j, i).B - pic2.Getpixel(j, i).B);
R = Convert.ToInt32(((double)(R - minR) / (maxR - minR)) * ((255 - 0)));
G = Convert.ToInt32(((double)(G - minG) / (maxG - minG)) * ((255 - 0)));
B = Convert.ToInt32(((double)(B - minb) / (maxb - minb)) * ((255 - 0)));
if (R > 255) R = 255;
else if (R < 0) R = 0;
if (G > 255) G = 255;
else if (G < 0) G = 0;
if (B > 255) B = 255;
else if (B < 0) B = 0;
bf.SetPixel(j, i, Color.FromArgb(Convert.ToInt32(R), Convert.ToInt32(G), Convert.ToInt32(B)));
}
}
bf.UnlockBits();
return bf.source;
}
private void trackBar2_Scroll(object sender, EventArgs e)
{
bf = image[tabControl1.SelectedIndex].Gamma(dif);
his = new Histogramdrawing();
his.drawing(bf, chart1);
picbox = (PictureBox)tabControl1.TabPages[tabControl1.SelectedIndex].Controls[0];
picbox.Image = image[tabControl1.SelectedIndex].Gamma(dif).source;
}
public Bitmap addtion(bufferedLockBitmap input1, double diff)
{
return op.Addpictures(input1, this.ImageLockBitmap, diff);
}
public bufferedLockBitmap Gamma(bufferedLockBitmap input, double dif)
{
if (dif == 0)
return input;
if (dif < 0)
dif = 1 / Math.Abs(dif);
double te = 0;
double gmaxR = -10000, gmaxG =-10000, gmaxb = -10000, gminR = 10000, gminG = 10000, gminb = 10000;
for (int i = 0; i < input.Height; i++)
{
for (int j = 0; j < input.Width; j++)
{
te = Math.Pow(input.Getpixel(j, i).R, dif);
if (te > gmaxR) gmaxR = te;
else if (te < gminR) gminR = te;
te = Math.Pow(input.Getpixel(j, i).B, dif);
if (te > gmaxb) gmaxb = te;
else if (te < gminb) gminb = te;
te = Math.Pow(input.Getpixel(j, i).G, dif);
if (te > gmaxG) gmaxG = te;
if (te < gminG) gminG = te;
}
}
temp = new Bitmap(input.Width, input.Height);
bf = new bufferedLockBitmap(temp);
bf.LockBits();
double R, G, B = 0,x;
for (int i = 0; i < input.Height; i++)
{
for (int j = 0; j < input.Width; j++)
{
R = (Math.Pow(input.Getpixel(j, i).R, dif));
x = (Math.Pow(input.Getpixel(j, i).G, dif));
B = (Math.Pow(input.Getpixel(j, i).B, dif));
R = Convert.ToInt32(((double)(R - gminR) / (gmaxR - gminR)) * (255 - 0));
G = Convert.ToInt32(((double)(x - gminG) / (gmaxG - gminG)) * (255 - 0));
B = Convert.ToInt32(((double)(B - gminb) / (gmaxb - gminb)) * (255 - 0));
//if (R > 255) R = 255;
//else if (R < 0) R = 0;
//if (G > 255) G = 255;
//else if (G < 0) G = 0;
//if (B > 255) B = 255;
//else if (B < 0) B = 0;
bf.SetPixel(j, i, Color.FromArgb(Convert.ToInt32(R), Convert.ToInt32(G), Convert.ToInt32(B)));
}
}
bf.UnlockBits();
return bf;
}
public bufferedLockBitmap Bit_plane_slicing(int x, bool R, bool G, bool B)
{
this.ImageLockBitmap = op.Bit_plane(this.ImageLockBitmap, x, R, G, B);
return this.ImageLockBitmap;
}
public Bitmap laplacian()
{
this.ImageLockBitmap = NO.LinearFilter(this.ImageLockBitmap, gn.lap(), 3, 3, 0, 0, "cutoff");
return this.ImageLockBitmap.source;
}
public void notoperation(bufferedLockBitmap input, int dif)
{
if (dif == 0)
for (int i = 0; i < input.Height; i++)
{
for (int j = 0; j < input.Width; j++)
{
input.SetPixel(j, i, Color.FromArgb(dif - input.Getpixel(j, i).R, dif - input.Getpixel(j, i).G, dif - input.Getpixel(j, i).B));
}
}
else
{
temp = new Bitmap(input.Width, input.Height);
bufferedLockBitmap bf = new bufferedLockBitmap(temp);
bf.LockBits();
int gmaxR = 0, gmaxG = 0, gmaxb = 0, gminR = 1000, gminG = 10000, gminb = 1000;
int te;
int R, G, B = 0;
for (int i = 0; i < input.Height; i++)
{
for (int j = 0; j < input.Width; j++)
{
R = dif - input.Getpixel(j, i).R;
G = dif - input.Getpixel(j, i).G;
B = dif - input.Getpixel(j, i).B;
te = R;
if (te > gmaxR) gmaxR = te;
if (te < gminR) gminR = te;
te = G;
if (te > gmaxb) gmaxb = te;
if (te < gminb) gminb = te;
te = B;
if (te > gmaxG) gmaxG = te;
if (te < gminG) gminG = te;
}
}
for (int i = 0; i < input.Height; i++)
{
for (int j = 0; j < input.Width; j++)
{
R =Math.Abs( dif - input.Getpixel(j, i).R);
G = Math.Abs(dif - input.Getpixel(j, i).G);
B = Math.Abs(dif - input.Getpixel(j, i).B);
//R = Convert.ToInt32(((double)(R - minR) / (maxR - minR)) * ((255 - 0)));
//G = Convert.ToInt32(((double)(G - minG) / (maxG - minG)) * ((255 - 0)));
//B = Convert.ToInt32(((double)(B - minb) / (maxb - minb)) * ((255 - 0)));
if (R > 255) R = 255;
else if (R < 0) R = 0;
if (G > 255) G = 255;
else if (G < 0) G = 0;
if (B > 255) B = 255;
else if (B < 0) B = 0;
input.SetPixel(j, i, Color.FromArgb(Convert.ToInt32(R), Convert.ToInt32(G), Convert.ToInt32(B)));
}
}
bf.UnlockBits();
}
}
public bufferedLockBitmap line_detectionv()
{
this.ImageLockBitmap = NO.LinearFilter(this.ImageLockBitmap, gn.line_detect_vertical(), 3, 3, 1, 1, "abs");
return this.ImageLockBitmap;
}
public Bitmap Flippingvertical()
{
this.ImageLockBitmap = op.Flippingvertical(this.ImageLockBitmap);
return this.ImageLockBitmap.source;
}
public bufferedLockBitmap mean1D(int masksize)
{
this.ImageLockBitmap = NO.LinearFilter(this.ImageLockBitmap, gn.Generatingmean(1, masksize), 1, masksize, 0, 0, "NO");
return this.ImageLockBitmap;
}
public Bitmap Grayscale()
{
this.ImageLockBitmap = op.Grayscale(this.ImageLockBitmap);
return this.ImageLockBitmap.source;
}
public Bitmap AND(bufferedLockBitmap pic1, bufferedLockBitmap pic2)
{
temp = new Bitmap(pic1.Width, pic1.Height);
bufferedLockBitmap bf = new bufferedLockBitmap(temp);
bf.LockBits();
int R, G, B = 0;
if (pic1.Width == pic2.Width)
{
R = 0; G = 0; B = 0;
for (int i = 0; i < pic1.Height; i++)
{
for (int j = 0; j < pic1.Width; j++)
{
R = pic1.Getpixel(j, i).R & pic2.Getpixel(j, i).R;
G = pic1.Getpixel(j, i).G & pic2.Getpixel(j, i).G;
B = pic1.Getpixel(j, i).B & pic2.Getpixel(j, i).B;
bf.SetPixel(j, i, Color.FromArgb(Convert.ToInt32(R), Convert.ToInt32(G), Convert.ToInt32(B)));
}
}
}
bf.UnlockBits();
return bf.source;
}