void CImageSelect::OnLButtonDown(UINT nFlags, CPoint point)
{
// TODO: Add your message handler code here and/or call default
CDC *pdc=GetDC();
if (m_tracker.HitTest(point) < 0)
{
CRectTracker track;
CRect rImage((500-(int)(image.GetWidth()*ZoomFactor))/2,(300-(int)(image.GetHeight()*ZoomFactor))/2,
(500-(int)(image.GetWidth()*ZoomFactor))/2+(int)(image.GetWidth()*ZoomFactor),
(300-(int)(image.GetHeight()*ZoomFactor))/2+(int)(image.GetHeight()*ZoomFactor));
if (track.TrackRubberBand(this, point, true))
{
track.m_rect.NormalizeRect();
m_tracker.m_rect = track.m_rect;
//确保发送图片为正方形
int nlength = max(track.m_rect.Height(),track.m_rect.Width());
m_tracker.m_rect.bottom = m_tracker.m_rect.top + nlength;
m_tracker.m_rect.right = m_tracker.m_rect.left + nlength;
//确保选取框在图片上
if (m_tracker.m_rect.left<rImage.left)
{
m_tracker.m_rect.right += rImage.left-m_tracker.m_rect.left;
m_tracker.m_rect.left = rImage.left;
}
if (m_tracker.m_rect.top<rImage.top)
{
m_tracker.m_rect.bottom += rImage.top-m_tracker.m_rect.top;
m_tracker.m_rect.top = rImage.top;
}
if (m_tracker.m_rect.right>rImage.right)
{
m_tracker.m_rect.right = rImage.right;
}
if (m_tracker.m_rect.bottom>rImage.bottom)
{
m_tracker.m_rect.bottom = rImage.bottom;
}
nlength = min(m_tracker.m_rect.Height(),m_tracker.m_rect.Width());
m_tracker.m_rect.bottom = m_tracker.m_rect.top + nlength;
m_tracker.m_rect.right = m_tracker.m_rect.left + nlength;
SetImageRectSelection(&(m_tracker.m_rect));
m_CheckOk.EnableWindow(TRUE);
}
else
{
m_tracker.m_rect = CRect(0,0,0,0);
}
}
CRect rect;
GetClientRect(&rect);
InvalidateRect(&rect,TRUE);
showed = false;
CDialog::OnLButtonDown(nFlags, point);
}
//Create a array of subrectangles (Mat) from each rectangle.
std::vector<std::vector<cv::Mat> > cutRect(const Image_data* src, const std::vector<Rect>& sq )
{
//Array to hold the solution
std::vector<std::vector<cv::Mat> > subrect;
subrect.clear();
//Matrix's to extract the subrectangles
cv::Mat rImage (src->rImage,false) , gImage (src->gImage,false) , bImage (src->bImage,false),img;
if (DEBUG) img = cv::Mat(src->src,false);
std::string file;
//erode images
//cv::erode(gImage, gImage, cv::Mat(), cv::Point(-1,-1),1); //standard call
//cv::erode(bImage, bImage, cv::Mat(), cv::Point(-1,-1),1); //standard call
//Cut and deskew squares
for ( int i=0 ; i < sq.size() ; i++ )
{
//Submatrix to fill
cv::Mat subimg_red, subimg_green , subimg_blue , subimg;
//auxiliar vector to store the array of Mat
std::vector<cv::Mat> aux;
aux.clear();
// get angle and size from the bounding box
double angle = sq[i].bounding_box.angle;
cv::Size box_size = sq[i].bounding_box.size;
//adjust the angle from "http://felix.abecassis.me/2011/10/opencv-rotation-deskewing/"
if (angle < -45.) {
angle += 90.;
std::swap(box_size.width, box_size.height); // for cropping
}
//rotation
if ( std::abs(angle) > LIMIT_ROTATION ) {
// matrices we'll use
cv::Mat rotatedR , rotatedG , rotatedB , rot_mat , rotated;
//Rotation Matrix. Same rotation for all
rot_mat = cv::getRotationMatrix2D(sq[i].bounding_box.center, angle, 1);
//Apply transformation
cv::warpAffine(rImage, rotatedR, rot_mat, rImage.size(), cv::INTER_LINEAR); // apply the geometric transformation
cv::warpAffine(gImage, rotatedG, rot_mat, gImage.size(), cv::INTER_LINEAR);
cv::warpAffine(bImage, rotatedB, rot_mat, bImage.size(), cv::INTER_LINEAR);//INTER_CUBIC
if (DEBUG) cv::warpAffine(img , rotated, rot_mat, img.size(), cv::INTER_LINEAR);
//log
if (DEBUG) {
file = ANDROID_PATH + "cut_subimg_rot.jpeg";
cv::imwrite(file,rotated);
}
//Cropped image
cv::getRectSubPix(rotatedR, box_size, sq[i].bounding_box.center, subimg_red);
cv::getRectSubPix(rotatedG, box_size, sq[i].bounding_box.center, subimg_green);
cv::getRectSubPix(rotatedB, box_size, sq[i].bounding_box.center, subimg_blue);
if (DEBUG) cv::getRectSubPix(rotated, box_size , sq[i].bounding_box.center, subimg);
//log
if (DEBUG) {
file = ANDROID_PATH + "cut_subimg_crop.jpeg";
cv::imwrite(file,subimg);
}
}
else {//just cut it
subimg_red = rImage(sq[i].wrapper_box);
subimg_green = gImage(sq[i].wrapper_box);
subimg_blue = bImage(sq[i].wrapper_box);
if (DEBUG) subimg = img(sq[i].wrapper_box);
}
//remove border of tag
removeBorder(subimg_red);
removeBorder(subimg_green);
removeBorder(subimg_blue);
if (DEBUG) removeBorder(subimg);
//log
if (DEBUG) {
file = ANDROID_PATH + "cut_subimg_borderRemoved.jpeg";
cv::imwrite(file,subimg);
}
//add subimages
aux.push_back(subimg_red);//R
aux.push_back(subimg_green);//G
aux.push_back(subimg_blue);//B
if (DEBUG) aux.push_back(subimg);//SRC
subrect.push_back(aux);
}
return subrect;
}
int main(int argc, char *argv[])
{
char filename[32];
short int colunas;
short int linhas;
int nivelCinza = 4096;
int dist = 1;
int op = 0;
//int *matrizCo_cpu;
//int *matrizCo_gpu;
double *matrizCoN_cpu;
double *matrizCoN_gpu;
double startTime;
double stopTime;
//QCoreApplication a(argc, argv);
tImage st_image;
if (argc == 1) {
colunas = 3000;
linhas = 3000;
GerarMatriz g_imagem;
st_image.vi_colunas = colunas;
st_image.vi_linhas = linhas;
//st_image.vi_vector = g_imagem.gerarMatriz(width, nivelCinza);
st_image.vi_vector = g_imagem.readFileMatriz(colunas);
} else if (argc == 7) {
strcpy(filename, argv[1]);
linhas = atoi(argv[2]);
colunas = atoi(argv[3]);
nivelCinza = (int) pow(2, atoi(argv[4]));
dist = atoi(argv[5]);
op = atoi(argv[6]);
// Read data of the image raw
ReadImage rImage(filename, colunas, linhas);
st_image = rImage.vectorImage_();
} else {
cout << "<file> <width> <lenght> <nv> <dist>" << endl;
//a.exit(EXIT_FAILURE);
std::exit(EXIT_FAILURE);
}
//using namespace imp;
// std::cout << "Dim: " << st_image.vi_colunas << "x" << st_image.vi_linhas << endl ;
// std::cout << "GL: " << nivelCinza << endl;
// std::cout << endl;
// **************************************** CPU ******************************************* //
/*
MatrizCoocorrencia Mc(st_image.vi_vector, colunas);
startTime = omp_get_wtime();
//matrizCo_cpu = Mc.calcularMatrizCoocorrencia(nivelCinza, angulo, distancia);
//matrizCoN_cpu = Mc.normalizar(matrizCo_cpu, nivelCinza);
matrizCoN_cpu = Mc.calcularMatrizMedia(nivelCinza, dist); // double
stopTime = omp_get_wtime();
cout << "Cpu Time: " << stopTime - startTime << endl;
//*/
// **************************************** CUDA ****************************************** //
mcGPU MatrizC;
startTime = omp_get_wtime();
matrizCoN_gpu = MatrizC.matrizCoN(st_image, nivelCinza, dist);
stopTime = omp_get_wtime();
// cout << "GPU Time: " << stopTime - startTime << endl;
// Plot Matriz
//Img::ConstruirImgMC(matrizCoN_cpu, nivelCinza);
//cout << "**Gerada IMG da Matriz: " << endl;
// ************************************************************************************** //
/*
if (!cmp::compara(matrizCoN_cpu, matrizCoN_gpu, nivelCinza)) {
exit(EXIT_FAILURE);
}
//*/
// ************************************************************************************** //
atGpu Atrib(matrizCoN_gpu, nivelCinza);
atCpu atCpu(matrizCoN_gpu, nivelCinza);
double valor = 0.0;
cout.unsetf ( std::ios::floatfield );
cout.precision(15);
// cout << std::fixed << endl;
/*
tempo::start();
valor = atCpu.max();
tempo::stop();
cout << " MAX: " << valor << endl << endl;
valor = Atrib.AtMax();
cout << " gpu MAX: " << valor << endl << endl;
tempo::start();
valor = atCpu.min();
tempo::stop();
cout << " MIN: " << valor << endl << endl;
valor = Atrib.AtMin();
cout << " gpu MIN: " << valor << endl << endl;
tempo::start();
valor = atCpu.media();
tempo::stop();
cout << " Média: " << valor << endl << endl;
valor = Atrib.AtMedia();
cout << " gpu Média: " << valor << endl << endl;
tempo::start();
valor = atCpu.mediana();
tempo::stop();
cout << " Mediana: " << valor << endl << endl;
valor = Atrib.AtMediana();
cout << " gpu Mediana: " << valor << endl << endl;
*/
/*
// tempo::start();
// valor = atCpu.variancia();
// tempo::stop();
// cout << " Variância: " << valor << endl << endl;
valor = Atrib.AthVariancia();
cout << "gpu Variância: " << valor << endl << endl;
tempo::start();
valor = atCpu.correlacao();
tempo::stop();
cout << " *Correlacao: " << valor << endl << endl;
// tempo::start();
// valor = atCpu.contraste();
// tempo::stop();
// cout << " Contraste: " << valor << endl << endl;
valor = Atrib.AthContraste();
cout << "gpu Contraste: " << valor << endl << endl;
// tempo::start();
// valor = atCpu.entropia();
// tempo::stop();
// cout << " Entropia: " << valor << endl << endl;
valor = Atrib.AthEntropia();
cout << " gpu Entropia: " << valor << endl << endl;
// tempo::start();
// valor = atCpu.somaEntropia();
// tempo::stop();
// cout << "Soma Entropia: " << valor << endl << endl;
valor = Atrib.AthSomaEntropia();
cout << "gpu Soma Ent.: " << valor << endl << endl;
// tempo::start();
// valor = atCpu.diferencaEntropia();
// tempo::stop();
// cout << " Dif Entropia: " << valor << endl << endl;
valor = Atrib.AthDifEntropia();
cout << "gpu Dif. Ent.: " << valor << endl << endl;
// tempo::start();
// valor = atCpu.mdi();
// tempo::stop();
// cout << " MDI: " << valor << endl << endl;
valor = Atrib.AthMDI();
cout << " gpu MDI: " << valor << endl << endl;
// tempo::start();
// valor = atCpu.mediaSoma();
// tempo::stop();
// cout << " Media Soma: " << valor << endl << endl;
valor = Atrib.AthMediaSoma();
cout << "gpu Med. Soma: " << valor << endl << endl;
// tempo::start();
// valor = atCpu.varianciaSoma();
// tempo::stop();
// cout << "VarianciaSoma: " << valor << endl << endl;
valor = Atrib.AthVarSoma();
cout << "gpu Var. Soma: " << valor << endl << endl;
// tempo::start();
// valor = atCpu.mediaDiferenca();
// tempo::stop();
// cout << " Media Dif: " << valor << endl << endl;
valor = Atrib.AthMediaDif();
cout << "gpu Media Dif: " << valor << endl << endl;
// tempo::start();
// valor = atCpu.varianciaDiferenca();
// tempo::stop();
// cout << "Variancia Dif: " << valor << endl << endl;
valor = Atrib.AthVarDif();
cout << " gpu Var. Dif: " << valor << endl << endl;
// tempo::start();
// valor = atCpu.energia();
// tempo::stop();
// cout << " Energia: " << valor << endl << endl;
valor = Atrib.AthEnergia();
cout << " gpu Energia: " << valor << endl << endl;
// */
if (op == 1 || op == 0) {
// cout << "Engergia" << endl;
valor = Atrib.AthEnergia();
// cout << " Energia: " << valor << endl << endl;
} if (op == 2 || op == 0) {
// cout << "Contraste" << endl;
valor = Atrib.AthContraste();
// cout << " Contraste: " << valor << endl << endl;
} if (op == 3 || op == 0) {
// cout << "Correlacao" << endl;
//valor = Atrib.AthCorrelacao();
// cout << " Correlacao: " << valor << endl << endl;
} if (op == 4 || op == 0) {
// cout << "Variancia" << endl;
valor = Atrib.AthVariancia();
// cout << " Variância: " << valor << endl << endl;
} if (op == 5 || op == 0) {
// cout << "MDI" << endl;
valor = Atrib.AthMDI();
// cout << " MDI: " << valor << endl << endl;
} if (op == 6 || op == 0) {
// cout << "Entropia" << endl;
valor = Atrib.AthEntropia();
// cout << " Entropia: " << valor << endl << endl;
} if (op == 7 || op == 0) {
// cout << "Media Soma" << endl;
valor = Atrib.AthMediaSoma();
// cout << " Media Soma: " << valor << endl << endl;
} if (op == 8 || op == 0) {
// cout << "Var Soma" << endl;
valor = Atrib.AthVarSoma();
// cout << "VarianciaSoma: " << valor << endl << endl;
} if (op == 9 || op == 0) {
// cout << "Soma Entr." << endl;
valor = Atrib.AthSomaEntropia();
// cout << "Soma Entropia: " << valor << endl << endl;
} if (op == 10 || op == 0) {
// cout << "Var Dif." << endl;
valor = Atrib.AthVarDif();
// cout << "Variancia Dif: " << valor << endl << endl;
} if (op == 11 || op == 0) {
// cout << "Dif Entr." << endl;
valor =Atrib.AthDifEntropia();
// cout << " Dif Entropia: " << valor << endl << endl;
}
// ************************************************************************************** //
//arq::arquivo("_cpu.txt", matrizCoN_cpu, nivelCinza);
//arq::arquivo("_gpu.txt", matrizCoN_cpu, nivelCinza);
// ************************************************************************************** //
//delete [] matrizCo_cpu;
//delete [] matrizCo_gpu;
//delete [] matrizCoN_cpu;
if (matrizCoN_gpu) delete [] matrizCoN_gpu;
// ************************************************************************************** //
//return a.exec();
//a.exit(EXIT_SUCCESS);
return 0;
}
void CalPainter::paint(int month)
{
if (!device())
{
return;
}
int width = device()->width();
int height = device()->height();
CalSettings* settings = CalSettings::instance();
CalParams& params = CalSettings::instance()->params;
// --------------------------------------------------
// FIXME: magic number 42
int days[42];
int startDayOffset = KGlobal::locale()->weekStartDay();
for (int i = 0; i < 42; ++i)
{
days[i] = -1;
}
QDate d;
KGlobal::locale()->calendar()->setDate(d, params.year, month, 1);
int s = d.dayOfWeek();
if (s + 7 - startDayOffset >= 7)
{
s = s - 7;
}
for (int i = s; i < (s + KGlobal::locale()->calendar()->daysInMonth(d)); ++i)
{
days[i + (7 - startDayOffset)] = i - s + 1;
}
// -----------------------------------------------
QRect rCal(0, 0, 0, 0);
QRect rImage(0, 0, 0, 0);
QRect rCalHeader(0, 0, 0, 0);
int cellSizeX;
int cellSizeY;
switch (params.imgPos)
{
case (CalParams::Top):
{
rImage.setWidth(width);
rImage.setHeight((int)(height * params.ratio / (params.ratio + 100)));
int remainingHeight = height - rImage.height();
cellSizeX = (width - 20) / 7;
cellSizeY = remainingHeight / 8;
rCal.setWidth(cellSizeX * 7);
rCal.setHeight(cellSizeY * 7);
rCalHeader.setWidth(rCal.width());
rCalHeader.setHeight(cellSizeY);
rCalHeader.moveTop(rImage.bottom());
rCalHeader.moveLeft(width / 2 - rCalHeader.width() / 2);
rCal.moveTopLeft(rCalHeader.bottomLeft());
break;
}
case (CalParams::Left):
{
rImage.setHeight(height);
rImage.setWidth((int)(width * params.ratio / (params.ratio + 100)));
int remainingWidth = width - rImage.width();
cellSizeX = (remainingWidth - 20) / 8;
cellSizeY = height / 8;
rCal.setWidth(cellSizeX * 7);
rCal.setHeight(cellSizeY * 7);
rCalHeader.setWidth(rCal.width());
rCalHeader.setHeight(cellSizeY);
rCalHeader.moveLeft(rImage.right() + cellSizeX);
rCal.moveTopLeft(rCalHeader.bottomLeft());
break;
}
case (CalParams::Right):
{
rImage.setHeight(height);
rImage.setWidth((int)(width * params.ratio / (params.ratio + 100)));
int remainingWidth = width - rImage.width();
cellSizeX = (remainingWidth - 20) / 8;
cellSizeY = height / 8;
rCal.setWidth(cellSizeX * 7);
rCal.setHeight(cellSizeY * 7);
rCalHeader.setWidth(rCal.width());
rCalHeader.setHeight(cellSizeY);
rCal.moveTop(rCalHeader.bottom());
rImage.moveLeft(width - rImage.width());
break;
}
default:
return;
}
int fontPixels = cellSizeX / 3;
params.baseFont.setPixelSize(fontPixels);
// ---------------------------------------------------------------
fillRect(0, 0, width, height, Qt::white);
setFont(params.baseFont);
// ---------------------------------------------------------------
save();
QFont f(params.baseFont);
f.setBold(true);
f.setPixelSize(f.pixelSize() + 5);
setFont(f);
drawText(rCalHeader, Qt::AlignLeft | Qt::AlignVCenter, QString::number(params.year));
drawText(rCalHeader, Qt::AlignRight | Qt::AlignVCenter,
KGlobal::locale()->calendar()->monthName(month, params.year));
restore();
// ---------------------------------------------------------------
int sx, sy;
QRect r, rsmall, rSpecial;
r.setWidth(cellSizeX);
r.setHeight(cellSizeY);
int index = 0;
save();
setPen(Qt::red);
sy = rCal.top();
for (int i = 0; i < 7; ++i)
{
int dayname = i + startDayOffset;
if (dayname > 7)
{
dayname = dayname - 7;
}
sx = cellSizeX * i + rCal.left();
r.moveTopLeft(QPoint(sx, sy));
rsmall = r;
rsmall.setWidth(r.width() - 2);
rsmall.setHeight(r.height() - 2);
drawText(rsmall, Qt::AlignRight | Qt::AlignBottom,
KGlobal::locale()->calendar()->weekDayName(dayname, KCalendarSystem::ShortDayName));
}
restore();
for (int j = 0; j < 6; ++j)
{
sy = cellSizeY * (j + 1) + rCal.top();
for (int i = 0; i < 7; ++i)
{
sx = cellSizeX * i + rCal.left();
r.moveTopLeft(QPoint(sx, sy));
rsmall = r;
rsmall.setWidth(r.width() - 2);
rsmall.setHeight(r.height() - 2);
if (days[index] != -1)
{
if (settings->isSpecial(month, days[index]))
{
save();
setPen(settings->getDayColor(month, days[index]));
drawText(rsmall, Qt::AlignRight | Qt::AlignBottom,
QString::number(days[index]));
QString descr = settings->getDayDescr(month, days[index]);
kDebug() << "Painting special info: '" << descr
<< "' for date " << days[index] << "/"
<< month;
rSpecial = rsmall;
rSpecial.translate(2, 0);
QFont f(params.baseFont);
f.setPixelSize(f.pixelSize() / 3);
setFont(f);
drawText(rSpecial, Qt::AlignLeft | Qt::AlignTop, descr);
restore();
}
else
{
drawText(rsmall, Qt::AlignRight | Qt::AlignBottom,
QString::number(days[index]));
}
}
index++;
}
}
// ---------------------------------------------------------------
if (params.drawLines)
{
sx = rCal.left();
for (int j = 0; j < 8; ++j)
{
sy = cellSizeY * j + rCal.top();
drawLine(sx, sy, rCal.right(), sy);
}
sy = rCal.top();
for (int i = 0; i < 8; ++i)
{
sx = cellSizeX * i + rCal.left();
drawLine(sx, sy, sx, rCal.bottom());
}
}
// Check if RAW file.
QFileInfo fi(imagePath_.path());
QString rawFilesExt(KDcrawIface::KDcraw::rawFiles());
if (rawFilesExt.toUpper().contains(fi.suffix().toUpper()))
{
KDcrawIface::KDcraw::loadDcrawPreview(image_, imagePath_.path());
}
else
{
image_.load(imagePath_.path());
}
if (image_.isNull())
{
fillRect(rImage, Qt::blue);
}
else
{
if ( orientation_ != KPMetadata::ORIENTATION_UNSPECIFIED )
{
QMatrix matrix = RotationMatrix::toMatrix(orientation_);
image_ = image_.transformed( matrix );
}
emit signalProgress(0);
image_ = image_.scaled(rImage.width(), rImage.height(), Qt::KeepAspectRatio, Qt::SmoothTransformation);
emit signalTotal(image_.height());
int h = image_.height();
int x = rImage.bottomLeft().x() + (rImage.width() - image_.width()) / 2;
int y = (rImage.height() - h) / 2;
int blockSize = 10;
int block = 0;
while (block < h && !cancelled_)
{
if (block + blockSize > h)
{
blockSize = h - block;
}
drawImage(x, y + block, image_, 0, block, image_.width(), blockSize);
block += blockSize;
emit signalProgress(block);
}
emit signalFinished();
}
}