private ShapeClip DetectClip(CvSeq <CvPoint> contour, IplImage image)
{
// Approximate contours to rectange.
CvMemStorage cstorage = new CvMemStorage();
CvSeq <CvPoint> verts = contour.ApproxPoly(CvContour.SizeOf, cstorage, ApproxPolyMethod.DP, contour.ContourPerimeter() * 0.05);
CvRect rect = Cv.BoundingRect(verts);
// scale BB
CvSize originalSize = rect.Size;
CvSize size = new CvSize((int)(rect.Width * 1.5), (int)(rect.Height * 1.5));
CvSize sizeDist = new CvSize(rect.Width - size.Width, rect.Height - size.Height);
rect = new CvRect(
Math.Max(rect.Location.X + sizeDist.Width / 2, 0),
Math.Max(rect.Location.Y + sizeDist.Height / 2, 0), size.Width, size.Height);
// If rect, convert to region of interest and approximate top.
if (verts.Total >= 4 && new CvRect(0, 0, image.Width, image.Height).Contains(rect))
{
DetectionState detectionState = verts.Total == 4 ? DetectionState.SemiOriented : DetectionState.Candidate;
double angle = (180.0 / Math.PI) * ComputeOrientationFromVerts(verts.ToArray());
using (IplImage region = image.Clone(rect))
using (IplImage finalRegion = image.Clone(rect))
using (IplImage colorRegion = new IplImage(region.Size.Width, region.Size.Height, BitDepth.U8, 3))
using (IplImage debug = new IplImage(region.Size.Width + 20, region.Size.Height + 20, BitDepth.U8, 3))
{
// Rotate into position based on the line angle estimate
Cv.WarpAffine(region, region, Cv.GetRotationMatrix2D(new CvPoint2D32f(rect.Width / 2, rect.Height / 2), angle, 1));
Cv.FloodFill(region, new CvPoint(0, 0), 255, 0, 150);
// Project image and find clusters
region.Not(region);
double[] horizontalProjection, verticalProjection;
int[] horizontalPrjClusters = ComputeClusters(region, true, out horizontalProjection);
int horizontalClusters = horizontalPrjClusters[0], lastHorizontalCluster = horizontalPrjClusters[1];
int[] verticalPrjClusters = ComputeClusters(region, false, out verticalProjection);
int verticalClusters = verticalPrjClusters[0], lastVerticalCluster = verticalPrjClusters[1];
// Correct the orientation based on the clusters found
bool foundLDRs = false;
if (verticalClusters > horizontalClusters)
{
// 90 deg
if (lastHorizontalCluster < region.Width / 2)
{
// 90deg
angle += 90;
foundLDRs = true;
}
else
{
// 270 deg
angle += 270;
foundLDRs = true;
}
}
else if (verticalClusters < horizontalClusters)
{
// 0 deg
if (lastVerticalCluster < region.Height / 2)
{
// 0deg
foundLDRs = true;
}
else
{
// 180 deg
angle += 180;
foundLDRs = true;
}
}
else
{
// something went wrong with our initial alignment
// NO proper orientation found - could not identify the LDRs
}
#region DEBUG
//debug.Zero();
//Cv.CvtColor(finalRegion, colorRegion, ColorConversion.GrayToRgb);
//debug.DrawImage(20, 0, region.Width, region.Height, colorRegion);
//for (int i = 0; i < region.Width / 2; i++)
// debug.DrawRect(20 + i, debug.Height - (int)(horizontalProjection[i] * 100), 20 + i, debug.Height, CvColor.Red, 1);
//for (int i = 0; i < region.Height / 2; i++)
// debug.DrawRect(0, i, (int)(verticalProjection[i] * 100), i, CvColor.Red, 1);
//debugWindow.ShowImage(debug);
#endregion
if (foundLDRs)
{
detectionState = DetectionState.FullyOriented;
}
}
// Compute pixel space mapping
Vec2F scale = new Vec2F(screenResolution.X / image.Width, screenResolution.Y / image.Height);
return(new ShapeClip(
detectionState,
new Vec2F(rect.Location.X + 0.5f * rect.Width, rect.Location.Y + 0.5f * rect.Height).Scale(scale),
new Vec2F(originalSize).Scale(scale),
angle));
}
else
{
return(null);
}
}
/// <summary>
/// sample of C style wrapper
/// </summary>
private void SampleC()
{
// cvHoughLines2
// 標準的ハフ変換と確率的ハフ変換を指定して線（線分）の検出を行なう．サンプルコード内の各パラメータ値は処理例の画像に対してチューニングされている．
// (1)画像の読み込み
using (IplImage srcImgGray = new IplImage(Const.ImageGoryokaku, LoadMode.GrayScale))
using (IplImage srcImgStd = new IplImage(Const.ImageGoryokaku, LoadMode.Color))
using (IplImage srcImgProb = srcImgStd.Clone())
{
// (2)ハフ変換のための前処理
Cv.Canny(srcImgGray, srcImgGray, 50, 200, ApertureSize.Size3);
using (CvMemStorage storage = new CvMemStorage())
{
// (3)標準的ハフ変換による線の検出と検出した線の描画
CvSeq lines = srcImgGray.HoughLines2(storage, HoughLinesMethod.Standard, 1, Math.PI / 180, 50, 0, 0);
// wrapper style
//CvLineSegmentPolar[] lines = src_img_gray.HoughLinesStandard(1, Math.PI / 180, 50, 0, 0);
int limit = Math.Min(lines.Total, 10);
for (int i = 0; i < limit; i++)
{
// native code style
/*
* unsafe
* {
* float* line = (float*)lines.GetElem<IntPtr>(i).Value.ToPointer();
* float rho = line[0];
* float theta = line[1];
* }
* //*/
// wrapper style
CvLineSegmentPolar elem = lines.GetSeqElem <CvLineSegmentPolar>(i).Value;
float rho = elem.Rho;
float theta = elem.Theta;
double a = Math.Cos(theta);
double b = Math.Sin(theta);
double x0 = a * rho;
double y0 = b * rho;
CvPoint pt1 = new CvPoint {
X = Cv.Round(x0 + 1000 * (-b)), Y = Cv.Round(y0 + 1000 * (a))
};
CvPoint pt2 = new CvPoint {
X = Cv.Round(x0 - 1000 * (-b)), Y = Cv.Round(y0 - 1000 * (a))
};
srcImgStd.Line(pt1, pt2, CvColor.Red, 3, LineType.AntiAlias, 0);
}
// (4)確率的ハフ変換による線分の検出と検出した線分の描画
lines = srcImgGray.HoughLines2(storage, HoughLinesMethod.Probabilistic, 1, Math.PI / 180, 50, 50, 10);
// wrapper style
//CvLineSegmentPoint[] lines = src_img_gray.HoughLinesProbabilistic(1, Math.PI / 180, 50, 0, 0);
for (int i = 0; i < lines.Total; i++)
{
// native code style
/*
* unsafe
* {
* CvPoint* point = (CvPoint*)lines.GetElem<IntPtr>(i).Value.ToPointer();
* src_img_prob.Line(point[0], point[1], CvColor.Red, 3, LineType.AntiAlias, 0);
* }
* //*/
// wrapper style
CvLineSegmentPoint elem = lines.GetSeqElem <CvLineSegmentPoint>(i).Value;
srcImgProb.Line(elem.P1, elem.P2, CvColor.Red, 3, LineType.AntiAlias, 0);
}
}
// (5)検出結果表示用のウィンドウを確保し表示する
using (new CvWindow("Hough_line_standard", WindowMode.AutoSize, srcImgStd))
using (new CvWindow("Hough_line_probabilistic", WindowMode.AutoSize, srcImgProb))
{
CvWindow.WaitKey(0);
}
}
}
// Update is called once per frame
void Update()
{
// Webカメラから1フレーム分の画像を取得
_Frame = Cv.QueryFrame(_Capture);
// Webカメラ画像をコピーしてSTEP1の入力画像に使用
IplImage img = _Frame.Clone();
// STEP1用変数
IplImage smoothed = new IplImage(img.Size, BitDepth.U8, 3);
// STEP2用変数
IplImage hsv = new IplImage(img.Size, BitDepth.U8, 3);
// STEP3用変数
IplImage segmented = new IplImage(img.Size, BitDepth.U8, 1);
CvMemStorage storage = new CvMemStorage();
// STEP4用変数
IplImage imgTmp = new IplImage(img.Size, BitDepth.U8, 1);
IplImage morphology = new IplImage(img.Size, BitDepth.U8, 1);
// STEP5用変数
CvSeq <CvPoint> contours;
IplImage detected = _Frame.Clone();
// STEP1: ノイズ除去
Cv.Smooth(img, smoothed, SmoothType.Blur, 1);
//Cv.ShowImage("window",smoothed);
//Cv.Smooth(smoothed, smoothed, SmoothType.Gaussian,1);
// STEP2: 色をRGBからHSVに変換
Cv.CvtColor(smoothed, hsv, ColorConversion.BgrToHsv);
//Cv.ShowImage("window",hsv);
// STEP3: 領域分割
storage.Clear();
Cv.InRangeS(hsv,
new CvScalar((pointhsv.Val0) - RANGE_H,
(pointhsv.Val1) - RANGE_S,
(pointhsv.Val2) - RANGE_V),
new CvScalar((pointhsv.Val0) + RANGE_H,
(pointhsv.Val1) + RANGE_S,
(pointhsv.Val2) + RANGE_V),
segmented);
//Cv.ShowImage("window",segmented);
// STEP4: ノイズ除去
Cv.Dilate(segmented, imgTmp);
Cv.Erode(imgTmp, imgTmp);
Cv.Erode(imgTmp, imgTmp);
Cv.Dilate(imgTmp, morphology);
//Cv.ShowImage("window",morphology);
// STEP5: 円の検出
Cv.FindContours(morphology, storage, out contours,
CvContour.SizeOf, ContourRetrieval.Tree,
ContourChain.ApproxNone);
if (contours == null)
{
Debug.Log("PSMove is not detected");
}
else
{
contours = Cv.ApproxPoly(contours, CvContour.SizeOf,
storage, ApproxPolyMethod.DP,
Cv.ContourPerimeter(contours) * CTR_PARAM, true);
Cv.DrawContours(morphology, contours,
new CvScalar(MAX_G, 0, 0), new CvScalar(0, MAX_B, 0), 3, -1);
Cv.MinEnclosingCircle(contours, out _Center, out _Radius);
Cv.DrawCircle(morphology, _Center, 2, new CvScalar(0, MAX_B, 0));
// STEP6: 画像をウィンドウに出力
Sz = fx * SPHERE_R / _Radius;
Sx = -((_Center.X - ux) * Sz) / fx;
Sy = -((_Center.Y - uy) * Sz) / fy;
}
_Window.ShowImage(_Frame);
Cv.ShowImage("Original", img);
Cv.ShowImage("STEP1:Smoothing", smoothed);
Cv.ShowImage("STEP2:HSV", hsv);
Cv.ShowImage("STEP3:Segmentation", segmented);
Cv.ShowImage("STEP4:Morphology", morphology);
Cv.ShowImage("STEP5:Detected", detected);
}
static CvPoint[] FindSquares4(IplImage img, CvMemStorage storage)
{
const int N = 11;
CvSize sz = new CvSize(img.Width & -2, img.Height & -2);
IplImage timg = img.Clone(); // make a copy of input image
IplImage gray = new IplImage(sz, BitDepth.U8, 1);
IplImage pyr = new IplImage(sz.Width / 2, sz.Height / 2, BitDepth.U8, 3);
// create empty sequence that will contain points -
// 4 points per square (the square's vertices)
CvSeq <CvPoint> squares = new CvSeq <CvPoint>(SeqType.Zero, CvSeq.SizeOf, storage);
// select the maximum ROI in the image
// with the width and height divisible by 2
timg.ROI = new CvRect(0, 0, sz.Width, sz.Height);
// down-scale and upscale the image to filter out the noise
Cv.PyrDown(timg, pyr, CvFilter.Gaussian5x5);
Cv.PyrUp(pyr, timg, CvFilter.Gaussian5x5);
IplImage tgray = new IplImage(sz, BitDepth.U8, 1);
// find squares in every color plane of the image
for (int c = 0; c < 3; c++)
{
// extract the c-th color plane
timg.COI = c + 1;
Cv.Copy(timg, tgray, null);
// try several threshold levels
for (int l = 0; l < N; l++)
{
// hack: use Canny instead of zero threshold level.
// Canny helps to catch squares with gradient shading
if (l == 0)
{
// apply Canny. Take the upper threshold from slider
// and set the lower to 0 (which forces edges merging)
Cv.Canny(tgray, gray, 0, Thresh, ApertureSize.Size5);
// dilate canny output to remove potential
// holes between edge segments
Cv.Dilate(gray, gray, null, 1);
}
else
{
// apply threshold if l!=0:
// tgray(x,y) = gray(x,y) < (l+1)*255/N ? 255 : 0
Cv.Threshold(tgray, gray, (l + 1) * 255.0 / N, 255, ThresholdType.Binary);
}
// find contours and store them all as a list
CvSeq <CvPoint> contours;
Cv.FindContours(gray, storage, out contours, CvContour.SizeOf, ContourRetrieval.List, ContourChain.ApproxSimple, new CvPoint(0, 0));
// test each contour
while (contours != null)
{
// approximate contour with accuracy proportional
// to the contour perimeter
CvSeq <CvPoint> result = Cv.ApproxPoly(contours, CvContour.SizeOf, storage, ApproxPolyMethod.DP, contours.ContourPerimeter() * 0.02, false);
// square contours should have 4 vertices after approximation
// relatively large area (to filter out noisy contours)
// and be convex.
// Note: absolute value of an area is used because
// area may be positive or negative - in accordance with the
// contour orientation
if (result.Total == 4 && Math.Abs(result.ContourArea(CvSlice.WholeSeq)) > 1000 && result.CheckContourConvexity())
{
double s = 0;
for (int i = 0; i < 5; i++)
{
// find minimum Angle between joint
// edges (maximum of cosine)
if (i >= 2)
{
double t = Math.Abs(Angle(result[i].Value, result[i - 2].Value, result[i - 1].Value));
s = s > t ? s : t;
}
}
// if cosines of all angles are small
// (all angles are ~90 degree) then write quandrange
// vertices to resultant sequence
if (s < 0.3)
{
for (int i = 0; i < 4; i++)
{
//Console.WriteLine(result[i]);
squares.Push(result[i].Value);
}
}
}
// take the next contour
contours = contours.HNext;
}
}
}
// release all the temporary images
gray.Dispose();
pyr.Dispose();
tgray.Dispose();
timg.Dispose();
return(squares.ToArray());
}
/// <summary>
/// sample of C style wrapper
/// </summary>
private void SampleC()
{
// cvHoughLines2
using (IplImage srcImgGray = new IplImage(FilePath.Image.Goryokaku, LoadMode.GrayScale))
using (IplImage srcImgStd = new IplImage(FilePath.Image.Goryokaku, LoadMode.Color))
using (IplImage srcImgProb = srcImgStd.Clone())
{
Cv.Canny(srcImgGray, srcImgGray, 50, 200, ApertureSize.Size3);
using (CvMemStorage storage = new CvMemStorage())
{
// Standard algorithm
CvSeq lines = srcImgGray.HoughLines2(storage, HoughLinesMethod.Standard, 1, Math.PI / 180, 50, 0, 0);
// wrapper style
//CvLineSegmentPolar[] lines = src_img_gray.HoughLinesStandard(1, Math.PI / 180, 50, 0, 0);
int limit = Math.Min(lines.Total, 10);
for (int i = 0; i < limit; i++)
{
// native code style
/*
* unsafe
* {
* float* line = (float*)lines.GetElem<IntPtr>(i).Value.ToPointer();
* float rho = line[0];
* float theta = line[1];
* }
* //*/
// wrapper style
CvLineSegmentPolar elem = lines.GetSeqElem <CvLineSegmentPolar>(i).Value;
float rho = elem.Rho;
float theta = elem.Theta;
double a = Math.Cos(theta);
double b = Math.Sin(theta);
double x0 = a * rho;
double y0 = b * rho;
CvPoint pt1 = new CvPoint {
X = Cv.Round(x0 + 1000 * (-b)), Y = Cv.Round(y0 + 1000 * (a))
};
CvPoint pt2 = new CvPoint {
X = Cv.Round(x0 - 1000 * (-b)), Y = Cv.Round(y0 - 1000 * (a))
};
srcImgStd.Line(pt1, pt2, CvColor.Red, 3, LineType.AntiAlias, 0);
}
// Probabilistic algorithm
lines = srcImgGray.HoughLines2(storage, HoughLinesMethod.Probabilistic, 1, Math.PI / 180, 50, 50, 10);
// wrapper style
//CvLineSegmentPoint[] lines = src_img_gray.HoughLinesProbabilistic(1, Math.PI / 180, 50, 0, 0);
for (int i = 0; i < lines.Total; i++)
{
// native code style
/*
* unsafe
* {
* CvPoint* point = (CvPoint*)lines.GetElem<IntPtr>(i).Value.ToPointer();
* src_img_prob.Line(point[0], point[1], CvColor.Red, 3, LineType.AntiAlias, 0);
* }
* //*/
// wrapper style
CvLineSegmentPoint elem = lines.GetSeqElem <CvLineSegmentPoint>(i).Value;
srcImgProb.Line(elem.P1, elem.P2, CvColor.Red, 3, LineType.AntiAlias, 0);
}
}
using (new CvWindow("Hough_line_standard", WindowMode.AutoSize, srcImgStd))
using (new CvWindow("Hough_line_probabilistic", WindowMode.AutoSize, srcImgProb))
{
CvWindow.WaitKey(0);
}
}
}
/// <summary>
/// OpenCVのIplImageを指定した出力先にSystem.Drawing.Bitmapとして変換する
/// </summary>
/// <param name="src">変換するIplImage</param>
/// <param name="dst">出力先のSystem.Drawing.Bitmap</param>
/// <remarks>Author: shimat, Gummo (ROI support)</remarks>
#else
/// <summary>
/// Converts IplImage to System.Drawing.Bitmap
/// </summary>
/// <param name="src">Mat</param>
/// <param name="dst">IplImage</param>
/// <remarks>Author: shimat, Gummo (ROI support)</remarks>
#endif
public static unsafe void ToBitmap(this IplImage src, Bitmap dst)
{
if (src == null)
{
throw new ArgumentNullException("src");
}
if (dst == null)
{
throw new ArgumentNullException("dst");
}
if (src.IsDisposed)
{
throw new ArgumentException("The image is disposed.", "src");
}
//if (src.Depth != BitDepth.U8)
// throw new ArgumentOutOfRangeException("src");
if (src.ROI.Width != dst.Width || src.ROI.Height != dst.Height)
{
throw new ArgumentException("");
}
PixelFormat pf = dst.PixelFormat;
// 1プレーン用の場合、グレースケールのパレット情報を生成する
if (pf == PixelFormat.Format8bppIndexed)
{
ColorPalette plt = dst.Palette;
for (int x = 0; x < 256; x++)
{
plt.Entries[x] = Color.FromArgb(x, x, x);
}
dst.Palette = plt;
}
// BitDepth.U8以外の場合はスケーリングする
IplImage _src;
if (src.Depth != BitDepth.U8)
{
_src = new IplImage(src.Size, BitDepth.U8, src.NChannels);
using (IplImage f = src.Clone())
{
if (src.Depth == BitDepth.F32 || src.Depth == BitDepth.F64)
{
Cv.Normalize(src, f, 255, 0, NormType.MinMax);
}
Cv.ConvertScaleAbs(f, _src);
}
}
else
{
_src = src;
}
Bitmap _dst = dst;
int w = _src.ROI.Width;
int h = _src.ROI.Height;
Rectangle rect = new Rectangle(0, 0, w, h);
BitmapData bd = null;
try
{
bd = _dst.LockBits(rect, ImageLockMode.WriteOnly, pf);
byte *psrc = (byte *)(_src.ImageData.ToPointer());
byte *pdst = (byte *)(bd.Scan0.ToPointer());
int xo = _src.ROI.X;
int yo = _src.ROI.Y;
int widthStepSrc = _src.WidthStep;
int widthStepDst = ((_src.ROI.Width * _src.NChannels) + 3) / 4 * 4; // 4の倍数に揃える
int stride = bd.Stride;
int ch = _src.NChannels;
switch (pf)
{
case PixelFormat.Format1bppIndexed:
{
// BitmapDataは4byte幅だが、IplImageは1byte幅
// 手作業で移し替える
//int offset = stride - (w / 8);
int x = xo;
int y;
int bytePos;
byte mask;
byte b = 0;
int i;
for (y = yo; y < h; y++)
{
for (bytePos = 0; bytePos < stride; bytePos++)
{
if (x < w)
{
for (i = 0; i < 8; i++)
{
mask = (byte)(0x80 >> i);
if (x < w && psrc[widthStepSrc * y + x] == 0)
{
b &= (byte)(mask ^ 0xff);
}
else
{
b |= mask;
}
x++;
}
pdst[bytePos] = b;
}
}
x = xo;
pdst += stride;
}
break;
}
case PixelFormat.Format8bppIndexed:
case PixelFormat.Format24bppRgb:
case PixelFormat.Format32bppArgb:
if (widthStepSrc == widthStepDst && _src.ROI.Size == _src.Size)
{
Util.CopyMemory(pdst, psrc, _src.ImageSize);
}
else
{
for (int y = 0; y < h; y++)
{
int offsetSrc = ((y + yo) * widthStepSrc) + xo;
int offsetDst = (y * widthStepDst);
/*
* for (int x = 0; x < _src.ROI.Width; x++)
* {
* pdst[x + offset_dst] = psrc[x + offset_src];
* }
* //*/
// 一列ごとにコピー
Util.CopyMemory(pdst + offsetDst, psrc + offsetSrc, w * ch);
}
}
break;
default:
throw new NotImplementedException();
}
}
finally
{
_dst.UnlockBits(bd);
}
// 反転対策
if (src.Origin == ImageOrigin.BottomLeft)
{
_dst.RotateFlip(RotateFlipType.RotateNoneFlipY);
}
// スケーリングのために余分に作ったインスタンスの破棄
if (_src != src)
{
_src.Dispose();
}
}
private void RenderThread()
{
Stopwatch sw = new Stopwatch();
int count = 0;
sw.Start();
while (true)
{
if (_src == null)
{
Thread.Sleep(10);
continue;
}
IplImage src = null;
lock (lockobj)
{
src = _src.Clone();
_src.Dispose();
_src = null;
}
if (_isFirst)
{
_isFirst = false;
Dispatcher.Invoke(new Action(delegate
{
Slider_CenterX.Minimum = 0;
Slider_CenterX.Maximum = src.Width;
Slider_CenterX.Value = src.Width / 2;
Slider_CenterY.Minimum = 0;
Slider_CenterY.Maximum = src.Height;
Slider_CenterY.Value = src.Height / 2;
Slider_R2.Minimum = 1;
Slider_R2.Maximum = Math.Min(src.Width, src.Height) / 2;
Slider_R2.Value = Math.Min(src.Width, src.Height) / 2;
Slider_R1.Minimum = 0;
Slider_R1.Maximum = Math.Min(src.Width, src.Height) / 2 - 1;
Slider_R1.Value = Math.Min(src.Width, src.Height) / 4;
}));
}
Dispatcher.Invoke(new Action(delegate
{
_camera.Center = new OpenCvSharp.CPlusPlus.Point(Slider_CenterX.Value, Slider_CenterY.Value);
_camera.R1 = (float)Slider_R1.Value;
_camera.R2 = (float)Slider_R2.Value;
_camera.OffsetTh = (float)(Slider_OffsetTH.Value / 180.0 * Math.PI);
}));
_camera.Undistortion(src, out IplImage dst, _panoramaImageWidth, out IplImage guide, _originalImageWidth);
MemoryStream msx = new MemoryStream();
dst.ToStream(msx, ".bmp");
byte[] imageData = ImageCompleted(msx);
Dispatcher.BeginInvoke(new Action(delegate
{
Grid_SettingArea.IsEnabled = true;
try
{
MemoryStream ms = new MemoryStream();
guide.ToStream(ms, ".bmp");
BitmapImage bitmap = new BitmapImage();
bitmap.BeginInit();
bitmap.StreamSource = ms;
bitmap.EndInit();
Image_Original.Source = bitmap;
}
catch { }
try
{
MemoryStream ms2 = new MemoryStream(imageData);
BitmapImage bitmap = new BitmapImage();
bitmap.BeginInit();
bitmap.StreamSource = ms2;
bitmap.EndInit();
Image_Panorama.Source = bitmap;
}
catch { }
//try
//{
// MemoryStream ms = new MemoryStream();
// dst.ToStream(ms, ".bmp");
// BitmapImage bitmap = new BitmapImage();
// bitmap.BeginInit();
// bitmap.StreamSource = ms;
// bitmap.EndInit();
// Image_Panorama.Source = bitmap;
//}
//catch { }
src.Dispose();
guide.Dispose();
dst.Dispose();
count++;
if (sw.ElapsedMilliseconds >= 1000)
{
sw.Stop();
_outputFPS = count * (1000.0 / sw.ElapsedMilliseconds);
count = 0;
sw.Restart();
}
Label_InputFPS.Content = _inputFPS.ToString("F2");
Label_OutputFPS.Content = _outputFPS.ToString("F2");
}));
}
}
public Inpaint()
{
// cvInpaint
Console.WriteLine(
"Hot keys: \n" +
"\tESC - quit the program\n" +
"\tr - restore the original image\n" +
"\ti or ENTER - run inpainting algorithm\n" +
"\t\t(before running it, paint something on the image)\n" +
"\ts - save the original image, mask image, original+mask image and inpainted image to desktop."
);
using (IplImage img0 = new IplImage(FilePath.Image.Fruits, LoadMode.AnyDepth | LoadMode.AnyColor))
{
using (IplImage img = img0.Clone())
using (IplImage inpaintMask = new IplImage(img0.Size, BitDepth.U8, 1))
using (IplImage inpainted = img0.Clone())
{
inpainted.Zero();
inpaintMask.Zero();
using (CvWindow wImage = new CvWindow("image", WindowMode.AutoSize, img))
{
CvPoint prevPt = new CvPoint(-1, -1);
wImage.OnMouseCallback += delegate(MouseEvent ev, int x, int y, MouseEvent flags)
{
if (ev == MouseEvent.LButtonUp || (flags & MouseEvent.FlagLButton) == 0)
{
prevPt = new CvPoint(-1, -1);
}
else if (ev == MouseEvent.LButtonDown)
{
prevPt = new CvPoint(x, y);
}
else if (ev == MouseEvent.MouseMove && (flags & MouseEvent.FlagLButton) != 0)
{
CvPoint pt = new CvPoint(x, y);
if (prevPt.X < 0)
{
prevPt = pt;
}
inpaintMask.Line(prevPt, pt, CvColor.White, 5, LineType.AntiAlias, 0);
img.Line(prevPt, pt, CvColor.White, 5, LineType.AntiAlias, 0);
prevPt = pt;
wImage.ShowImage(img);
}
};
for (; ;)
{
switch ((char)CvWindow.WaitKey(0))
{
case (char)27: // exit
CvWindow.DestroyAllWindows();
return;
case 'r': // restore original image
inpaintMask.Zero();
img0.Copy(img);
wImage.ShowImage(img);
break;
case 'i': // do Inpaint
case '\r':
CvWindow wInpaint = new CvWindow("inpainted image", WindowMode.AutoSize);
img.Inpaint(inpaintMask, inpainted, 3, InpaintMethod.Telea);
wInpaint.ShowImage(inpainted);
break;
case 's': // save images
string desktop = Environment.GetFolderPath(Environment.SpecialFolder.Desktop);
img0.SaveImage(Path.Combine(desktop, "original.png"));
inpaintMask.SaveImage(Path.Combine(desktop, "mask.png"));
img.SaveImage(Path.Combine(desktop, "original+mask.png"));
inpainted.SaveImage(Path.Combine(desktop, "inpainted.png"));
break;
}
}
}
}
}
}
public IplImage ImageTreatment(IplImage img, out IplImage[] plateImages)
{
IplImage tgray = null;
IplImage gray = null;
IplImage mainSubImage = null;
IplImage tmpImage = null;
IplImage tmpImage2 = null;
CvBlobs blobs1 = null;
CvBlobs blobs2 = null;
List <IplImage> plates = null;
CvRect subImageRect;
plateImages = null;
try
{
plates = new List <IplImage>();
mainSubImage = ExtractSubImage(img, out subImageRect);
tgray = new IplImage(mainSubImage.Size, BitDepth.U8, 1);
mainSubImage.CvtColor(tgray, ColorConversion.RgbaToGray);
blobs1 = PreProcessImage1(mainSubImage, tgray);
blobs2 = PreProcessImage2(mainSubImage, tgray);
tmpImage = img.Clone();
tmpImage2 = mainSubImage.Clone();
tmpImage.SetROI(subImageRect);
if (null != blobs1 && blobs1.Count > 0)
{
IplImage[] plateImage = GetPlates(tmpImage, tmpImage2, blobs1, 2.4);
if (null != plateImage)
{
plates.AddRange(plateImage);
}
}
if (null != blobs2 && blobs2.Count > 0)
{
IplImage[] plateImage = GetPlates(tmpImage, tmpImage2, blobs2, 3.5);
if (null != plateImage)
{
plates.AddRange(plateImage);
}
}
tmpImage.ResetROI();
Cv.ReleaseImage(gray);
gray = tmpImage;
}
finally
{
if (null != tmpImage2)
{
Cv.ReleaseImage(tmpImage2);
}
if (null != tgray)
{
Cv.ReleaseImage(tgray);
}
if (null != mainSubImage)
{
Cv.ReleaseImage(mainSubImage);
}
}
if (plates.Count > 0)
{
plateImages = plates.ToArray();
}
return(gray);
}
public void Start()
{
if (canExecute)
{
return; //既にカメラが起動していたら何もしない ※stop忘れ防止 Stopするのを忘れてStartすると二重起動して異常動作します
}
IsActive = true;
canExecute = true;
var im = new IplImage(); // カメラ画像格納用の変数
WriteableBitmap buff = new WriteableBitmap(WIDTH, HEIGHT, 96, 96, PixelFormats.Bgr24, null);
WriteableBitmap grayBuff = new WriteableBitmap(WIDTH, HEIGHT, 96, 96, PixelFormats.Gray8, null);
IplImage _mapX, _mapY;
var dst = new IplImage();
Task.Run(() =>
{
//Thread.Sleep(1000);
try
{
cap = Cv.CreateCameraCapture(CameraNumber); // カメラのキャプチ
cap.SetCaptureProperty(CaptureProperty.FrameWidth, WIDTH);
cap.SetCaptureProperty(CaptureProperty.FrameHeight, HEIGHT);
SetWb();
var dis = App.Current.Dispatcher;
while (canExecute) // 任意のキーが入力されるまでカメラ映像を表示
{
try
{
Thread.Sleep(100);
if (FlagPropChange)
{
cap.SetCaptureProperty(CaptureProperty.FrameWidth, WIDTH);
cap.SetCaptureProperty(CaptureProperty.FrameHeight, HEIGHT);
cap.SetCaptureProperty(CaptureProperty.Brightness, Brightness);
cap.SetCaptureProperty(CaptureProperty.Contrast, Contrast);
cap.SetCaptureProperty(CaptureProperty.Hue, Hue);
cap.SetCaptureProperty(CaptureProperty.Saturation, Saturation);
cap.SetCaptureProperty(CaptureProperty.Sharpness, Sharpness);
cap.SetCaptureProperty(CaptureProperty.Gamma, Gamma);
cap.SetCaptureProperty(CaptureProperty.Gain, Gain);
cap.SetCaptureProperty(CaptureProperty.Exposure, Exposure);//露出
//cap.SetCaptureProperty(CaptureProperty.WhiteBalance, White);//Opencvsharp2/3 非対応
dis.BeginInvoke(new Action(() =>
{
try
{
FlagPropChange = false;
}
catch
{
MessageBox.Show("カメラ異常");
canExecute = false;
}
}));
}
im = Cv.QueryFrame(cap);//画像取得
if (im == null)
{
continue;
}
if (IsActive == true)
{
IsActive = false;
}
dst = new IplImage(im.Size, im.Depth, im.NChannels);
//set rectify data
_mapX = Cv.CreateImage(im.Size, BitDepth.F32, 1);
_mapY = Cv.CreateImage(im.Size, BitDepth.F32, 1);
Cv.InitUndistortMap(_fileIntrinsic, _fileDistortion, _mapX, _mapY);
Cv.Remap(im, dst, _mapX, _mapY);
//傾き補正
CvPoint2D32f center = new CvPoint2D32f(WIDTH / 2, HEIGHT / 2);
CvMat affineMatrix = Cv.GetRotationMatrix2D(center, Theta, 1.0);
//Cv.WarpAffine(im, im, affineMatrix);
Cv.WarpAffine(dst, dst, affineMatrix);
if (FlagTestPic)
{
imageForTest = dst.Clone();
FlagTestPic = false;
}
if (FlagLabeling)
{
var imageForLabeling = new IplImage(WIDTH, HEIGHT, BitDepth.U8, 3);
var imbuff = dst.Clone();
var Binbuff = Binary(imbuff);
blobs = new CvBlobs(Binbuff);
blobs.RenderBlobs(dst, imageForLabeling);
dis.BeginInvoke(new Action(() =>
{
WriteableBitmapConverter.ToWriteableBitmap(imageForLabeling, buff);// カメラからフレーム(画像)を取得
source = buff;
imageForLabeling.Dispose();
}));
while (FlagNgFrame)
{
;
}
continue;
}
//二値化表示
if (FlagBin)
{
var imbuff = dst.Clone();
var Binbuff = Binary(imbuff);
dis.BeginInvoke(new Action(() =>
{
WriteableBitmapConverter.ToWriteableBitmap(Binbuff, grayBuff);// カメラからフレーム(画像)を取得
source = grayBuff;
}));
continue;
}
//グリッド表示
if (FlagGrid)
{
foreach (var i in Enumerable.Range(0, HEIGHT / 10))
{
var 行 = i * 10;
var p1 = new CvPoint(0, 行);
var p2 = new CvPoint(WIDTH, 行);
dst.Line(p1, p2, CvColor.Aquamarine, 1, LineType.AntiAlias, 0);
}
foreach (var j in Enumerable.Range(0, WIDTH / 10))
{
var 列 = j * 10;
var p1 = new CvPoint(列, 0);
var p2 = new CvPoint(列, HEIGHT);
dst.Line(p1, p2, CvColor.Aquamarine, 1, LineType.AntiAlias, 0);
}
dis.BeginInvoke(new Action(() =>
{
WriteableBitmapConverter.ToWriteableBitmap(dst, buff);// カメラからフレーム(画像)を取得
source = buff;
}));
continue;
}
if (FlagFrame)
{
dis.BeginInvoke(new Action(() =>
{
MakeFrame(dst);
WriteableBitmapConverter.ToWriteableBitmap(dst, buff);// カメラからフレーム(画像)を取得
source = buff;
}));
continue;
}
if (FlagNgFrame)//試験NGの場合
{
dis.BeginInvoke(new Action(() =>
{
MakeNgFrame(imageForTest);
WriteableBitmapConverter.ToWriteableBitmap(imageForTest, source);// カメラからフレーム(画像)を取得
}));
while (FlagNgFrame)
{
;
}
}
if (FlagHsv)
{
GetHsv(dst);
}
//すべてのフラグがfalseならノーマル表示する
dis.BeginInvoke(new Action(() =>
{
try
{
WriteableBitmapConverter.ToWriteableBitmap(dst, buff);// カメラからフレーム(画像)を取得
source = buff;
}
catch
{
CamState = false;
canExecute = false;
}
}));
}
catch
{
//例外無視する処理を追加
CamState = false;
canExecute = false;
}
}
}
catch
{
CamState = false;
}
finally
{
if (cap != null)
{
cap.Dispose();
cap = null;
}
IsActive = false;
Stopped = true;
}
});
}
private CvBlobs PreProcessImage2_old(IplImage img)
{
CvBlobs blobs = null;
IplConvKernel element = null;
IplImage temp = null;
IplImage dest = null;
IplImage tmpImage = null;
IplImage tmpImage2 = null;
IplImage labelImg = null;
try
{
element = Cv.CreateStructuringElementEx(180, 5, 90, 1, ElementShape.Rect, null);
tmpImage = new IplImage(img.Size, BitDepth.U8, 1);
temp = tmpImage.Clone();
dest = tmpImage.Clone();
img.CvtColor(tmpImage, ColorConversion.RgbaToGray);
tmpImage.Rectangle(new CvPoint(0, 0), new CvPoint((Int32)(tmpImage.Size.Width), (Int32)((tmpImage.Size.Height / 9) * 3)), new CvScalar(255, 255, 255), -1);
tmpImage.Rectangle(new CvPoint(0, (Int32)((tmpImage.Size.Height / 5) * 4)), new CvPoint((Int32)(tmpImage.Size.Width), (Int32)(tmpImage.Size.Height)), new CvScalar(255, 255, 255), -1);
tmpImage.Rectangle(new CvPoint((Int32)((tmpImage.Size.Width / 9) * 7), 0), new CvPoint((Int32)((tmpImage.Size.Width)), (Int32)(tmpImage.Size.Height)), new CvScalar(255, 255, 255), -1);
Cv.Smooth(tmpImage, tmpImage, SmoothType.Gaussian);
Cv.MorphologyEx(tmpImage, dest, temp, element, MorphologyOperation.TopHat, 1);
Cv.Threshold(dest, tmpImage, 128, 255, ThresholdType.Binary | ThresholdType.Otsu);
Cv.Smooth(tmpImage, dest, SmoothType.Median);
labelImg = new IplImage(img.Size, CvBlobLib.DepthLabel, 1);
blobs = new CvBlobs();
tmpImage2 = tmpImage.Clone();
CvBlobLib.Label(tmpImage2, labelImg, blobs);
//Cv.ReleaseImage(tmpImage);
//tmpImage = img.Clone();
//blobs.RenderBlobs(labelImg, img, tmpImage);
//tmpImage.SaveImage(@"c:\temp\newImages\RenderBlobsNOFiltered.png");
CvBlobLib.FilterByArea(blobs, 850, 4850);
Cv.ReleaseImage(tmpImage);
tmpImage = img.Clone();
//CvTracks tracks = new CvTracks();
//CvBlobLib.UpdateTracks(blobs, tracks, 200.0, 5);
//CvBlobLib.RenderTracks(tracks, tmpImage, tmpImage, RenderTracksMode.ID);
blobs.RenderBlobs(labelImg, img, tmpImage, RenderBlobsMode.BoundingBox | RenderBlobsMode.Angle);
//tmpImage.SaveImage(@"c:\temp\newImages\RenderBlobsFiltered.png");
}
finally
{
if (null != temp)
{
Cv.ReleaseImage(temp);
}
if (null != dest)
{
Cv.ReleaseImage(dest);
}
if (null != tmpImage)
{
Cv.ReleaseImage(tmpImage);
}
if (null != tmpImage2)
{
Cv.ReleaseImage(tmpImage2);
}
if (null != labelImg)
{
Cv.ReleaseImage(labelImg);
}
}
return(blobs);
}
private CvBlobs PreProcessImage1(IplImage mainSubImage, IplImage imgGray)
{
CvBlobs blobs = null;
IplImage tmpImage = null;
IplImage gray = null;
IplImage tgray = null;
IplImage labelImg = null;
IplImage temp = null;
try
{
tgray = imgGray.Clone();
gray = new IplImage(tgray.Size, tgray.Depth, 1);
Cv.Smooth(tgray, tgray, SmoothType.Gaussian);
Cv.Canny(tgray, gray, 500, 2, ApertureSize.Size5);
temp = gray.Clone();
//IplConvKernel element = Cv.CreateStructuringElementEx(5, 1, 3, 0, ElementShape.Rect, null);
IplConvKernel element = Cv.CreateStructuringElementEx(7, 1, 3, 0, ElementShape.Rect, null);
Cv.MorphologyEx(gray, gray, temp, element, MorphologyOperation.BlackHat, 1);
Cv.Threshold(gray, gray, 100, 255, ThresholdType.Binary | ThresholdType.Otsu);
Cv.Smooth(gray, gray, SmoothType.Gaussian);
labelImg = new IplImage(mainSubImage.Size, CvBlobLib.DepthLabel, 1);
blobs = new CvBlobs();
CvBlobLib.Label(gray, labelImg, blobs);
CvBlobLib.FilterByArea(blobs, 1550, 4850);
tmpImage = mainSubImage.Clone();
//CvTracks tracks = new CvTracks();
//CvBlobLib.UpdateTracks(blobs, tracks, 200.0, 5);
//CvBlobLib.RenderTracks(tracks, tmpImage, tmpImage, RenderTracksMode.ID);
blobs.RenderBlobs(labelImg, mainSubImage, tmpImage, RenderBlobsMode.BoundingBox | RenderBlobsMode.Angle);
/*
* img.SetROI(subImageRect);
* Cv.Copy(tmpImage, img);
* img.ResetROI();
* Cv.ReleaseImage(tmpImage);
*
*/
}
finally
{
if (null != temp)
{
Cv.ReleaseImage(temp);
}
if (null != tgray)
{
Cv.ReleaseImage(tgray);
}
if (null != gray)
{
Cv.ReleaseImage(gray);
}
if (null != labelImg)
{
Cv.ReleaseImage(labelImg);
}
if (null != tmpImage)
{
Cv.ReleaseImage(tmpImage);
}
}
return(blobs);
}
/// <summary>
/// 輪郭を得る
/// </summary>
/// <param name="img"></param>
/// <param name="storage"></param>
/// <returns></returns>
private CvSeq<CvPoint> FindContours(IplImage img, CvMemStorage storage)
{
// 輪郭抽出
CvSeq<CvPoint> contours;
using (IplImage imgClone = img.Clone())
{
Cv.FindContours(imgClone, storage, out contours);
if (contours == null)
{
return null;
}
contours = Cv.ApproxPoly(contours, CvContour.SizeOf, storage, ApproxPolyMethod.DP, 3, true);
}
// 一番長そうな輪郭のみを得る
CvSeq<CvPoint> max = contours;
for (CvSeq<CvPoint> c = contours; c != null; c = c.HNext)
{
if (max.Total < c.Total)
{
max = c;
}
}
return max;
}
public IplImage HoughLines_Line(IplImage src, int canny1, int canny2, int thresh)
{
// cvHoughLines2
// 확률적 허프 변환을 지정해 선분의 검출을 실시한다
List <CvPoint> LinePoints = new List <CvPoint>();
// (1) 화상 읽기
using (IplImage srcImgStd = src.Clone())
using (IplImage srcImgGray = new IplImage(src.Size, BitDepth.U8, 1))
{
Cv.CvtColor(srcImgStd, srcImgGray, ColorConversion.BgrToGray);
// (2) 허프변환을 위한 캐니엣지 처리
//Cv.Canny(srcImgGray, srcImgGray, 50, 200, ApertureSize.Size3);
Cv.Canny(srcImgGray, srcImgGray, canny1, canny2, ApertureSize.Size3);
houghLine = srcImgGray.Clone();
using (CvMemStorage storage = new CvMemStorage())
{
LinePoints.Clear();
// (3) 표준적 허프 변환에 의한 선의 검출과 검출된 선 그리기
CvSeq lines = srcImgGray.HoughLines2(storage, HoughLinesMethod.Standard, 1, Math.PI / 180, thresh, 0, 0);
//int limit = Math.Min(lines.Total, 10);
for (int i = 0; i < Math.Min(lines.Total, 3); i++)
{
CvLineSegmentPolar elem = lines.GetSeqElem <CvLineSegmentPolar>(i).Value;
float rho = elem.Rho;
float theta = elem.Theta;
double a = Math.Cos(theta), b = Math.Sin(theta);
double x0 = a * rho, y0 = b * rho;
CvPoint pt1, pt2;
//pt1.X = Cv.Round(x0 + 1000*(-b));
//pt1.Y = Cv.Round(y0 + 1000*(a));
//pt2.X = Cv.Round(x0 - 1000*(-b));
//pt2.Y = Cv.Round(y0 - 1000*(a));
pt1.X = Cv.Round(x0 + srcImgStd.Width * (-b));
pt1.Y = Cv.Round(y0 + srcImgStd.Height * (a));
pt2.X = Cv.Round(x0 - srcImgStd.Width * (-b));
pt2.Y = Cv.Round(y0 - srcImgStd.Height * (a));
if (pt1.X < 0)
{
pt1.X = 0;
pt2.X = src.Width;
}
else if (pt2.X < 0)
{
pt1.X = src.Width;
pt2.X = 0;
}
if (pt1.Y < 0)
{
pt1.Y = 0;
pt2.Y = src.Height;
}
else if (pt2.Y < 0)
{
pt1.Y = src.Height;
pt2.Y = 0;
}
//Trace.WriteLine(pt1.X.ToString("000.00000 ") + pt1.Y.ToString("000.00000 ") + pt2.X.ToString("000.00000 ") + pt2.Y.ToString("000.00000"));
srcImgStd.Line(pt1, pt2, CvColor.Red, 1, LineType.AntiAlias, 0);
LinePoints.Add(pt1);
LinePoints.Add(pt2);
houghLine = srcImgStd.Clone();
}
}
}
return(houghLine);
}
/// <summary>
/// グレースケール画像(8bit)を二値画像(8bit)に変換する
/// mImageGray --> mImageBin
/// </summary>
private void convertGrayToBin()
{
mImageBin = mImageGray.Clone();
Cv.Threshold(mImageGray, mImageBin, 0, 255, ThresholdType.Otsu);
}
//HoughLines2()
//확률적 허프 변환을 지정해 선분의 검출을 실시한다
//1. CvArr* image : 변환을 할 이미지가 들어간다.
//2. void* line_storage : 라인을 저장할 공간
//3. int method : 허프변환에는 3개의 방법이 있다 . 이 방법을 설정하는 인자
//4. double rho / double theta : 이 둘은 얼마나 조밀한 단위(?)를 사용할 것인가를 정하는 인자 이다. (예로 rho=1이라면 1픽셀단위로 조사를 하고 theta = PI/180 이라면 1도 단위로 조사를 하겠다는 뜻)
//5. int threshold : 허프 공간상에 그려지는 곡선들이 중첩되는 부분을 이용해서 직선을 검출하는데 threshold 값보다 중첩되는 갯수가 많으면 직선으로 간주한다는 뜻이다. 숫자가 커지면 당연히 더 직선의 기준이 엄격하게 된다.
//6.double param1 : probabilistic 일 경우 직선의 최소 길이를 설정할 수 있다.
//7.double param2 : probabilistic 일 경우 직선의 최대 길이를 설정할 수 있다.
public IplImage HoughLines(IplImage src, IplImage boxImage, ref IplImage resultImage)
{
// cvHoughLines2
// 확률적 허프 변환을 지정해 선분의 검출을 실시한다
IplImage orImage = boxImage.Clone();
// (1) 화상 읽기
using (IplImage srcImgStd = src.Clone())
using (IplImage srcImgGray = new IplImage(src.Size, BitDepth.U8, 1))
{
Cv.CvtColor(srcImgStd, srcImgGray, ColorConversion.BgrToGray);
// (2) 허프변환을 위한 캐니엣지 처리
Cv.Canny(srcImgGray, srcImgGray, 50, 200, ApertureSize.Size3);
houghLine = srcImgGray.Clone();
int lineMinLength = srcImgStd.Width / 2;
int lineMaxLength = srcImgStd.Width;
using (CvMemStorage storage = new CvMemStorage())
{
// (3) 표준적 허프 변환에 의한 선의 검출과 검출된 선 그리기
CvSeq lines = srcImgGray.HoughLines2(storage, HoughLinesMethod.Standard, 1, Math.PI / 180, 50, 0, 0);
int limit = Math.Min(lines.Total, 10);
for (int i = 0; i < limit; i++)
{
CvLineSegmentPolar elem = lines.GetSeqElem <CvLineSegmentPolar>(i).Value;
float rho = elem.Rho;
float theta = elem.Theta;
double a = Math.Cos(theta);
double b = Math.Sin(theta);
double x0 = a * rho;
double y0 = b * rho;
CvPoint pt1 = new CvPoint {
X = Cv.Round(x0 + src.Width * (-b)), Y = Cv.Round(y0 + src.Height * (a))
};
CvPoint pt2 = new CvPoint {
X = Cv.Round(x0 - src.Width * (-b)), Y = Cv.Round(y0 - src.Height * (a))
};
if (pt1.X < 1)
{
pt1.X = 0;
pt2.X = src.Width;
}
if (pt2.X < 1)
{
pt1.X = src.Width;
pt2.X = 0;
}
if (pt1.Y < 1)
{
pt1.Y = 0;
pt2.Y = src.Height;
}
if (pt2.Y < 1)
{
pt1.Y = src.Height;
pt2.Y = 0;
}
srcImgStd.Line(pt1, pt2, CvColor.Red, 1, LineType.AntiAlias, 0);
houghLine = srcImgStd.Clone();
orImage.Line(pt1, pt2, CvColor.Red, 1, LineType.AntiAlias, 0);
houghLine = orImage.Clone();
return(houghLine);
}
}
}
return(houghLine);
}
/// <summary>
/// 二値画像(8bit)を7セグ画像(8bit)に変換する
/// mImageGray --> mImageBin, m7SegPattern
/// </summary>
/// <param name="threshold">閾値(0-100)</param>
private void convertBinTo7Seg(int threshold)
{
mImage7Seg = mImageBin.Clone();
mImage7Seg.Zero();
m7SegPattern = match7SegMatrix(mImageBin, mImage7Seg, threshold);
}
private void CaptureCameraCallback()
{
const double ScaleFactor = 2.5;
const int MinNeighbors = 1;
CvSize MinSize = new CvSize(30, 30);
CvCapture cap = CvCapture.FromCamera(1);
CvHaarClassifierCascade cascade = CvHaarClassifierCascade.FromFile("haarcascade_eye.xml");
while (true)
{
IplImage img = cap.QueryFrame();
//IplImage src = new IplImage(new CvSize(600, 400),BitDepth.U8,1);
//Cv.Resize(img, src, Interpolation.Linear);
CvSeq <CvAvgComp> eyes = Cv.HaarDetectObjects(img, cascade, Cv.CreateMemStorage(), ScaleFactor, MinNeighbors, HaarDetectionType.DoCannyPruning, MinSize);
foreach (CvAvgComp eye in eyes.AsParallel())
{
img.DrawRect(eye.Rect, CvColor.Red);
if (eye.Rect.Left > pctCvWindow.Width / 2)
{
try
{
IplImage rightEyeImg1 = img.Clone();
Cv.SetImageROI(rightEyeImg1, eye.Rect);
IplImage rightEyeImg2 = Cv.CreateImage(eye.Rect.Size, rightEyeImg1.Depth, rightEyeImg1.NChannels);
Cv.Copy(rightEyeImg1, rightEyeImg2, null);
Cv.ResetImageROI(rightEyeImg1);
Bitmap rightEyeBm = BitmapConverter.ToBitmap(rightEyeImg2);
pctRightEye.Image = rightEyeBm;
}
catch { }
}
else
{
try
{
IplImage leftEyeImg1 = img.Clone();
Cv.SetImageROI(leftEyeImg1, eye.Rect);
IplImage leftEyeImg2 = Cv.CreateImage(eye.Rect.Size, leftEyeImg1.Depth, leftEyeImg1.NChannels);
Cv.Copy(leftEyeImg1, leftEyeImg2, null);
Cv.ResetImageROI(leftEyeImg1);
Bitmap leftEyeBm = BitmapConverter.ToBitmap(leftEyeImg2);
//pctLeftEye.Image = leftEyeBm;
//pctLeftEye.Visible = false;
}catch {}
}
}
Bitmap bm = BitmapConverter.ToBitmap(img);
bm.SetResolution(pctCvWindow.Width, pctCvWindow.Height);
pctCvWindow.Image = bm;
img = null;
bm = null;
}
}
public Plate(IplImage pImage)
{
image = pImage.Clone();
plateCopy = new Plate(image, true);
plateCopy.image = AdaptiveThresholding(plateCopy.image);
}
/// <summary>
/// IplImageをWriteableBitmapに変換する.
/// 返却値を新たに生成せず引数で指定したWriteableBitmapに格納するので、メモリ効率が良い。
/// </summary>
/// <param name="src">変換するIplImage</param>
/// <param name="dst">変換結果を設定するWriteableBitmap</param>
#else
/// <summary>
/// Converts IplImage to WriteableBitmap.
/// This method is more efficient because new instance of WriteableBitmap is not allocated.
/// </summary>
/// <param name="src">Input IplImage</param>
/// <param name="dst">Output WriteableBitmap</param>
#endif
public static void ToWriteableBitmap(IplImage src, WriteableBitmap dst)
{
if (src == null)
throw new ArgumentNullException("src");
if (dst == null)
throw new ArgumentNullException("dst");
if (src.Width != dst.PixelWidth || src.Height != dst.PixelHeight)
throw new ArgumentException("size of src must be equal to size of dst");
//if (src.Depth != BitDepth.U8)
//throw new ArgumentException("bit depth of src must be BitDepth.U8", "src");
int w = src.Width;
int h = src.Height;
int bpp = dst.Format.BitsPerPixel;
int channels = GetOptimumChannels(dst.Format);
if (src.NChannels != channels)
{
throw new ArgumentException("PixelFormat of dst is invalid", "dst");
}
// 左下原点の場合は上下反転する
IplImage ipl = null;
if (src.Origin == ImageOrigin.TopLeft)
{
ipl = src;
}
else
{
ipl = src.Clone();
Cv.Flip(src, ipl, FlipMode.X);
}
if (bpp == 1)
{
unsafe
{
// 手作業で移し替える
int stride = w / 8 + 1;
if (stride < 2)
{
stride = 2;
}
byte[] pixels = new byte[h * stride];
byte* p = (byte*)(ipl.ImageData.ToPointer());
int x = 0;
int y;
int byte_pos;
int offset;
byte b;
int i;
int widthStep = src.WidthStep;
for (y = 0; y < h; y++)
{
offset = y * stride;
for (byte_pos = 0; byte_pos < stride; byte_pos++)
{
if (x < w)
{
b = 0;
// 現在の位置から横8ピクセル分、ビットがそれぞれ立っているか調べ、1つのbyteにまとめる
for (i = 0; i < 8; i++)
{
b <<= 1;
if (x < w && p[widthStep * y + x] != 0)
{
b |= 1;
}
x++;
}
pixels[offset + byte_pos] = b;
}
}
x = 0;
}
dst.WritePixels(new Int32Rect(0, 0, w, h), pixels, stride, 0);
}
/*} else if(bpp == 8){
int stride = w;
array<Byte>^ pixels = gcnew array<Byte>(h * stride);
byte* p = (byte*)(void*)src->ImageData;
for (int y=0; y<h; y++) {
for(int x=0; x<w; x++){
pixels[y * stride + x] = p[src->WidthStep * y + x];
}
}
dst->WritePixels(Int32Rect(0, 0, w, h), pixels, stride, 0);
*/
}
else
{
dst.WritePixels(new Int32Rect(0, 0, w, h), ipl.ImageData, ipl.ImageSize, ipl.WidthStep);
}
if (src.Origin == ImageOrigin.BottomLeft)
{
ipl.Dispose();
}
}
public Plate(IplImage pImage, Boolean isCopy)
{
image = pImage.Clone();
}
EyeRects Recognize(PictureBox bb, Panel container)
{
const double ScaleFactor = 2.5;
const int MinNeighbors = 1;
CvSize MinSize = new CvSize(30, 30);
//CvCapture cap = CvCapture.FromCamera(1);
CvHaarClassifierCascade cascade = CvHaarClassifierCascade.FromFile("haarcascade_eye.xml");
//IplImage img = cap.QueryFrame();
IplImage img = IplImage.FromBitmap(new Bitmap(bb.Image));
CvSeq <CvAvgComp> eyes = Cv.HaarDetectObjects(img, cascade, Cv.CreateMemStorage(), ScaleFactor, MinNeighbors, HaarDetectionType.DoCannyPruning, MinSize);
img.DrawRect(new CvRect(30, 30, bb.Image.Width - 30, bb.Image.Height - 60), CvColor.Yellow);
var rcs = new EyeRects();
foreach (CvAvgComp eye in eyes.AsParallel())
{
rcs.AddRect(eye.Rect);
img.DrawRect(eye.Rect, CvColor.Yellow);
if (eye.Rect.Left > pn.Width / 2)
{
try
{
IplImage rightEyeImg1 = img.Clone();
Cv.SetImageROI(rightEyeImg1, eye.Rect);
IplImage rightEyeImg2 = Cv.CreateImage(eye.Rect.Size, rightEyeImg1.Depth, rightEyeImg1.NChannels);
Cv.Copy(rightEyeImg1, rightEyeImg2, null);
Cv.ResetImageROI(rightEyeImg1);
//Bitmap rightEyeBm = BitmapConverter.ToBitmap(rightEyeImg2);
//spMain.Panel2.Image = rightEyeBm;
}
catch { }
}
else
{
try
{
IplImage leftEyeImg1 = img.Clone();
Cv.SetImageROI(leftEyeImg1, eye.Rect);
IplImage leftEyeImg2 = Cv.CreateImage(eye.Rect.Size, leftEyeImg1.Depth, leftEyeImg1.NChannels);
Cv.Copy(leftEyeImg1, leftEyeImg2, null);
Cv.ResetImageROI(leftEyeImg1);
//Bitmap leftEyeBm = BitmapConverter.ToBitmap(leftEyeImg2);
//pctLeftEye.Image = leftEyeBm;
}
catch { }
}
}
Bitmap bm = BitmapConverter.ToBitmap(img);
//bm.SetResolution(1500, 1500);
//pctCvWindow.Image = bm;
//PictureBox pb = new PictureBox();
//pb.Image = bm;
//pb.Image = bm;
bb.Image = bm;
//spMain.Panel2.Controls.Clear();
if (pn.Controls.Count < 1)
{
pn.Controls.Add(bb);
//bb.Click += bb_Click;
}
bb.Dock = DockStyle.Fill;
//pb.Image = bm;
img = null;
bm = null;
return(rcs);
}
public uEyeCapture()
{
source = Observable.Create <uEyeDataFrame>(observer =>
{
var deviceId = DeviceId;
var camera = new Camera();
try
{
var statusRet = deviceId.HasValue ? camera.Init(deviceId.Value | (int)DeviceEnumeration.UseDeviceID) : camera.Init();
HandleResult(statusRet);
if (!string.IsNullOrEmpty(ConfigFile))
{
statusRet = camera.Parameter.Load(ConfigFile);
HandleResult(statusRet);
}
statusRet = camera.Memory.Allocate();
HandleResult(statusRet);
Int32 s32MemID;
statusRet = camera.Memory.GetActive(out s32MemID);
HandleResult(statusRet);
int frameWidth;
statusRet = camera.Memory.GetWidth(s32MemID, out frameWidth);
HandleResult(statusRet);
int frameHeight;
statusRet = camera.Memory.GetHeight(s32MemID, out frameHeight);
HandleResult(statusRet);
int s32Bpp;
statusRet = camera.Memory.GetBitsPerPixel(s32MemID, out s32Bpp);
HandleResult(statusRet);
ColorMode colorMode;
statusRet = camera.PixelFormat.Get(out colorMode);
HandleResult(statusRet);
var frameSize = new OpenCV.Net.Size(frameWidth, frameHeight);
var depth = GetImageDepth(colorMode);
var channels = s32Bpp / (int)depth;
statusRet = camera.Memory.Allocate();
HandleResult(statusRet);
camera.EventFrame += (sender, e) =>
{
Int32 activeMemID;
camera.Memory.GetActive(out activeMemID);
IntPtr imageBuffer;
camera.Memory.ToIntPtr(activeMemID, out imageBuffer);
ImageInfo imageInfo;
camera.Information.GetImageInfo(activeMemID, out imageInfo);
using (var output = new IplImage(frameSize, depth, channels, imageBuffer))
{
observer.OnNext(new uEyeDataFrame(output.Clone(), imageInfo));
}
};
statusRet = camera.Acquisition.Capture();
HandleResult(statusRet);
}
catch
{
camera.Exit();
throw;
}
return(() =>
{
camera.Acquisition.Stop();
camera.Exit();
});
})
.PublishReconnectable()
.RefCount();
}
public IplImage Filter(IplImage sImage, ColorConversion code)
{
fImage = sImage.Clone();
Cv.CvtColor(sImage, fImage, code);
return(Filter(fImage));
}
public void Start()
{
IsActive = true;
StopFlag = true;
var im = new IplImage(); // カメラ画像格納用の変数
WriteableBitmap buff = new WriteableBitmap(WIDTH, HEIGHT, 96, 96, PixelFormats.Bgr24, null);
WriteableBitmap grayBuff = new WriteableBitmap(WIDTH, HEIGHT, 96, 96, PixelFormats.Gray8, null);
Task.Run(() =>
{
using (var cap = Cv.CreateCameraCapture(CameraNumber)) // カメラのキャプチャ
{
Dispatcher dis = App.Current.Dispatcher;
//カメラ起動後にWBを書き換えないと、自動チェックが外れないため下記の処理を追加する
Wb = 3000;
Thread.Sleep(100);
Wb = 3100;
Thread.Sleep(100);
Wb = State.camProp.Whitebalance;
while (StopFlag) // 任意のキーが入力されるまでカメラ映像を表示
{
try
{
Thread.Sleep(100);
if (FlagPropChange)
{
cap.SetCaptureProperty(CaptureProperty.FrameWidth, WIDTH);
cap.SetCaptureProperty(CaptureProperty.FrameHeight, HEIGHT);
cap.SetCaptureProperty(CaptureProperty.Brightness, Brightness);
cap.SetCaptureProperty(CaptureProperty.Contrast, Contrast);
cap.SetCaptureProperty(CaptureProperty.Hue, Hue);
cap.SetCaptureProperty(CaptureProperty.Saturation, Saturation);
cap.SetCaptureProperty(CaptureProperty.Sharpness, Sharpness);
cap.SetCaptureProperty(CaptureProperty.Gamma, Gamma);
cap.SetCaptureProperty(CaptureProperty.Gain, Gain);
cap.SetCaptureProperty(CaptureProperty.Exposure, Exposure);//露出
dis.BeginInvoke(new Action(() => { FlagPropChange = false; }));
}
im = Cv.QueryFrame(cap);//画像取得
if (im == null)
{
continue;
}
if (IsActive == true)
{
IsActive = false;
}
//傾き補正
CvPoint2D32f center = new CvPoint2D32f(WIDTH / 2, HEIGHT / 2);
CvMat affineMatrix = Cv.GetRotationMatrix2D(center, Theta, 1.0);
Cv.WarpAffine(im, im, affineMatrix);
//二値化表示
if (FlagBin)
{
var imbuff = im.Clone();
var Binbuff = Binary(imbuff);
dis.BeginInvoke(new Action(() =>
{
MakeFrame(Binbuff);
WriteableBitmapConverter.ToWriteableBitmap(Binbuff, grayBuff);// カメラからフレーム(画像)を取得
source = grayBuff;
imbuff.Dispose();
Binbuff.Dispose();
}));
continue;
}
//グリッド表示
if (FlagGrid)
{
foreach (var i in Enumerable.Range(0, HEIGHT / 10))
{
var 行 = i * 10;
var p1 = new CvPoint(0, 行);
var p2 = new CvPoint(WIDTH, 行);
im.Line(p1, p2, CvColor.Aquamarine, 1, LineType.AntiAlias, 0);
}
foreach (var j in Enumerable.Range(0, WIDTH / 10))
{
var 列 = j * 10;
var p1 = new CvPoint(列, 0);
var p2 = new CvPoint(列, HEIGHT);
im.Line(p1, p2, CvColor.Aquamarine, 1, LineType.AntiAlias, 0);
}
dis.BeginInvoke(new Action(() =>
{
WriteableBitmapConverter.ToWriteableBitmap(im, buff);// カメラからフレーム(画像)を取得
source = buff;
}));
continue;
}
if (FlagCross)
{
int Rad = 20;
var p0 = new CvPoint(CrossX, CrossY);
var pR = new CvPoint(CrossX + Rad, CrossY);
var pL = new CvPoint(CrossX - Rad, CrossY);
var pO = new CvPoint(CrossX, CrossY - Rad);
var pU = new CvPoint(CrossX, CrossY + Rad);
im.Line(p0, pR, CvColor.Red, 1, LineType.AntiAlias, 0);
im.Line(p0, pL, CvColor.Red, 1, LineType.AntiAlias, 0);
im.Line(p0, pO, CvColor.Red, 1, LineType.AntiAlias, 0);
im.Line(p0, pU, CvColor.Red, 1, LineType.AntiAlias, 0);
dis.BeginInvoke(new Action(() =>
{
WriteableBitmapConverter.ToWriteableBitmap(im, buff);// カメラからフレーム(画像)を取得
source = buff;
}));
continue;
}
if (FlagFrame)
{
dis.BeginInvoke(new Action(() =>
{
MakeFrame(im);
WriteableBitmapConverter.ToWriteableBitmap(im, buff);// カメラからフレーム(画像)を取得
source = buff;
}));
continue;
}
if (FlagNgFrame)//試験NGの場合
{
dis.BeginInvoke(new Action(() =>
{
MakeNgFrame(imageForTest);
WriteableBitmapConverter.ToWriteableBitmap(imageForTest, source);// カメラからフレーム(画像)を取得
}));
while (FlagNgFrame)
{
;
}
}
if (FlagHsv)
{
GetHsv(im);
}
if (FlagTestPic)
{
imageForTest = im.Clone();
FlagTestPic = false;
}
//すべてのフラグがfalseならノーマル表示する
dis.BeginInvoke(new Action(() =>
{
WriteableBitmapConverter.ToWriteableBitmap(im, buff);// カメラからフレーム(画像)を取得
source = buff;
}
));
}
catch
{
StopFlag = false;
MessageBox.Show("aaaa");
//カメラがたまにコケるので例外無視する処理を追加
}
}
}
});
}
/// <summary>
/// IplImageをWriteableBitmapに変換する.
/// 返却値を新たに生成せず引数で指定したWriteableBitmapに格納するので、メモリ効率が良い。
/// </summary>
/// <param name="src">変換するIplImage</param>
/// <param name="dst">変換結果を設定するWriteableBitmap</param>
#else
/// <summary>
/// Converts IplImage to WriteableBitmap.
/// This method is more efficient because new instance of WriteableBitmap is not allocated.
/// </summary>
/// <param name="src">Input IplImage</param>
/// <param name="dst">Output WriteableBitmap</param>
#endif
public static void ToWriteableBitmap(IplImage src, WriteableBitmap dst)
{
if (src == null)
{
throw new ArgumentNullException("src");
}
if (dst == null)
{
throw new ArgumentNullException("dst");
}
if (src.Width != dst.PixelWidth || src.Height != dst.PixelHeight)
{
throw new ArgumentException("size of src must be equal to size of dst");
}
//if (src.Depth != BitDepth.U8)
//throw new ArgumentException("bit depth of src must be BitDepth.U8", "src");
int w = src.Width;
int h = src.Height;
int bpp = dst.Format.BitsPerPixel;
int channels = GetOptimumChannels(dst.Format);
if (src.NChannels != channels)
{
throw new ArgumentException("PixelFormat of dst is invalid", "dst");
}
// 左下原点の場合は上下反転する
IplImage ipl = null;
if (src.Origin == ImageOrigin.TopLeft)
{
ipl = src;
}
else
{
ipl = src.Clone();
Cv.Flip(src, ipl, FlipMode.X);
}
if (bpp == 1)
{
unsafe
{
// 手作業で移し替える
int stride = w / 8 + 1;
if (stride < 2)
{
stride = 2;
}
byte[] pixels = new byte[h * stride];
byte * p = (byte *)(ipl.ImageData.ToPointer());
int x = 0;
int y;
int byte_pos;
int offset;
byte b;
int i;
int widthStep = src.WidthStep;
for (y = 0; y < h; y++)
{
offset = y * stride;
for (byte_pos = 0; byte_pos < stride; byte_pos++)
{
if (x < w)
{
b = 0;
// 現在の位置から横8ピクセル分、ビットがそれぞれ立っているか調べ、1つのbyteにまとめる
for (i = 0; i < 8; i++)
{
b <<= 1;
if (x < w && p[widthStep * y + x] != 0)
{
b |= 1;
}
x++;
}
pixels[offset + byte_pos] = b;
}
}
x = 0;
}
dst.WritePixels(new Int32Rect(0, 0, w, h), pixels, stride, 0);
}
/*} else if(bpp == 8){
* int stride = w;
* array<Byte>^ pixels = gcnew array<Byte>(h * stride);
* byte* p = (byte*)(void*)src->ImageData;
* for (int y=0; y<h; y++) {
* for(int x=0; x<w; x++){
* pixels[y * stride + x] = p[src->WidthStep * y + x];
* }
* }
* dst->WritePixels(Int32Rect(0, 0, w, h), pixels, stride, 0);
*/
}
else
{
dst.WritePixels(new Int32Rect(0, 0, w, h), ipl.ImageData, ipl.ImageSize, ipl.WidthStep);
}
if (src.Origin == ImageOrigin.BottomLeft)
{
ipl.Dispose();
}
}
public IplImage PreProcess(IplImage image)
{
return(image.Clone());
}