int main(int argc, char* argv[])
{
// The exit code of the sample application.
int exitCode = 0;
// Automagically call PylonInitialize and PylonTerminate to ensure the pylon runtime system
// is initialized during the lifetime of this object.
Pylon::PylonAutoInitTerm autoInitTerm;
//cv::Mat theFrame;
try
{
// Create an instant camera object with the camera device found first.
//CInstantCamera camera( CTlFactory::GetInstance().CreateFirstDevice());
CBaslerUsbInstantCamera camera( CTlFactory::GetInstance().CreateFirstDevice()); //MJR
// Print the model name of the camera.
cout << "Using device " << camera.GetDeviceInfo().GetModelName() << endl;
// The parameter MaxNumBuffer can be used to control the count of buffers
// allocated for grabbing. The default value of this parameter is 10.
camera.MaxNumBuffer = 5;
// Start the grabbing of c_countOfImagesToGrab images.
// The camera device is parameterized with a default configuration which
// sets up free-running continuous acquisition.
camera.StartGrabbing( c_countOfImagesToGrab);
// This smart pointer will receive the grab result data.
CGrabResultPtr ptrGrabResult;
// Camera.StopGrabbing() is called automatically by the RetrieveResult() method
// when c_countOfImagesToGrab images have been retrieved.
tStart = clock();
while (camera.IsGrabbing())
{
// Wait for an image and then retrieve it. A timeout of 5000 ms is used.
camera.RetrieveResult( 5000, ptrGrabResult, TimeoutHandling_ThrowException);
// Image grabbed successfully?
if (ptrGrabResult->GrabSucceeded())
{
// Access the image data.
cout << "SizeX: " << ptrGrabResult->GetWidth() << endl;
cout << "SizeY: " << ptrGrabResult->GetHeight() << endl;
const uint8_t *pImageBuffer = (uint8_t *) ptrGrabResult->GetBuffer();
cout << "Gray value of first pixel: " << (uint32_t) pImageBuffer[0] << endl << endl;
#ifdef PYLON_WIN_BUILD
// Display the grabbed image.
Pylon::DisplayImage(1, ptrGrabResult);
#endif
// // Save the image using Pylon API
// CImagePersistence::Save( ImageFileFormat_Png, "GrabbedImage.png", ptrGrabResult);
// suppose your camera is monochrome... get a pointer to pylon image
//const pylon::uint8_t *pImageBuffer = (uint8_t *)ptrGrabResult->GetBuffer();
int frameCols = ptrGrabResult->GetWidth();
int frameRows = ptrGrabResult->GetHeight();
// Map the pylon image buffer to a cv::Mat (create a cv::Mat from external buffer)
//theFrame = cv::Mat(cv::Size(frameCols, frameRows), CV_8UC1, (void*)pImageBuffer, cv::Mat::AUTO_STEP);
//Mat theFrame = cv::Mat(cv::Size(frameCols, frameRows), CV_8UC1, (void*)pImageBuffer);
Mat theFrame = cv::Mat(frameRows, frameCols, CV_8UC1);
memcpy(theFrame.ptr(),(uint8_t *)ptrGrabResult->GetBuffer(),frameCols*frameRows);
// Save openCV Mat frame
char str[15];
tCount = clock() - tStart;
sprintf(str, "%f seconds", ((float)tCount)/CLOCKS_PER_SEC);
printf("%ld: %f seconds\n", tCount, ((float)tCount)/CLOCKS_PER_SEC);
sleep(1);
tCount = clock() - tStart;
sprintf(str, "%f seconds", ((float)tCount)/CLOCKS_PER_SEC);
printf("%ld: %f seconds\n", tCount, ((float)tCount)/CLOCKS_PER_SEC);
putText(theFrame,str,cvPoint(30,100),FONT_HERSHEY_SIMPLEX,2,cvScalar(200,200,250),3,CV_AA);
imwrite("GrabbedImageCV.png",theFrame);
// keep a copy of it
//cv::Mat myFrame;
//theFrame.copyTo(myFrame); // myFrame life cycle is now under your control
// // Convert of opencv format and display
// CImageFormatConverter fc;
// //fc.OutputPixelFormat = PixelType_BGR8packed;
// fc.OutputPixelFormat = PixelType_Mono8;
// CPylonImage image;
// fc.Convert(image, ptrGrabResult);
// Mat cv_img = cv::Mat(ptrGrabResult->GetHeight(), ptrGrabResult->GetWidth(), CV_8UC1,(uint8_t*)image.GetBuffer());
// //imshow(src_window,cv_img); // display the image in OpenCV image window
// //waitKey(1);
}
else
{
cout << "Error: " << ptrGrabResult->GetErrorCode() << " " << ptrGrabResult->GetErrorDescription() << endl;
}
}
}
catch (GenICam::GenericException &e)
{
// Error handling.
cerr << "An exception occurred." << endl
<< e.GetDescription() << endl;
exitCode = 1;
}
// Comment the following two lines to disable waiting on exit.
// cerr << endl << "Press Enter to exit." << endl;
// while( cin.get() != '\n');
return exitCode;
}
void CCameraBasler::continuousAcquireFreeRunning(int index)
{
IplImage *img;
CGrabResultPtr ptrGrabResult;
std::pair<char*,IplImage*> pairTemp;
unsigned int indiceImagenes = 0;
while (m_cameraState == CVCCameraInterface::GRABBING)
{
try
{
m_Camera->RetrieveResult(INFINITE,ptrGrabResult,TimeoutHandling_Return);
if (ptrGrabResult->GrabSucceeded())
{
img = cvCreateImage(cvSize(ptrGrabResult->GetWidth(),ptrGrabResult->GetHeight()),8,3);
CBaslerFormatConverter::convertCOLORtoCVRGB(img,ptrGrabResult);
// Construct image file name
char *str = new char[100];
sprintf(str,"Images\\V\\Visible%d.png",indiceImagenes);
// Put name and image in a pair
pairTemp.first = str;
pairTemp.second = img;
// Enqueue pair of <nameOfFileToSave,image> in the SaveImageProcess
// Is a singleton thread save design to enqueue and process all images.
// Index refers to the "id" of the queue. Each queue will have a thread.
CVCCameraInterface::SaveImagesProcess::Instance()->Add(index,pairTemp);
// Increment the number of the actual image. Used to make the filename
indiceImagenes++;
}
else
{
std::cout << "Error: [Basler] :" << ptrGrabResult->GetErrorCode() << " " << ptrGrabResult->GetErrorDescription() << std::endl;
}
}
catch(...)
{
std::cerr << "ERROR: [Basler] Acquiring continuous images." << std::endl;
}
}
try
{
m_Camera->StopGrabbing();
}
catch(...)
{
std::cerr << "ERROR: [Basler] Stopping continuous acquisition." << std::endl;
}
}
void PylonCamera::execute()
{
if(!mCam) {
return;
}
try {
updateParams();
// This smart pointer will receive the grab result data.
CGrabResultPtr ptrGrabResult;
// Wait for an image and then retrieve it. A timeout of 1000 ms is used.
mCam->RetrieveResult(1000, ptrGrabResult);
// Image grabbed successfully=
if (ptrGrabResult && ptrGrabResult->GrabSucceeded()) {
CPylonImage target;
// Convert to correct format for vision system
CImageFormatConverter converter;
converter.OutputPixelFormat = PixelType_BGR8packed;
converter.OutputBitAlignment = OutputBitAlignment_MsbAligned;
converter.Convert(target, ptrGrabResult);
// Now the grab result can be released. The grab result buffer is now
// only held by the pylon image.
ptrGrabResult.Release();
// Create an RGBImage from converted data
RgbImage image(target.GetHeight(), target.GetWidth(), (uchar *)target.GetBuffer());
mOut.send(image.clone());
// The Release() method can be used to release any data.
target.Release();
}
}
catch (GenICam::GenericException &e) {
/*stop();
deinitialize();*/
throw std::runtime_error(e.GetDescription());
}
catch(const std::exception& e) {
throw std::runtime_error(e.what());
}
}
int main(int argc, char* argv[])
{
// The exit code of the sample application.
int exitCode = 0;
// Automagically call PylonInitialize and PylonTerminate to ensure the pylon runtime system
// is initialized during the lifetime of this object.
Pylon::PylonAutoInitTerm autoInitTerm;
try
{
// Create an instant camera object with the camera device found first.
CInstantCamera camera( CTlFactory::GetInstance().CreateFirstDevice());
// Print the model name of the camera.
cout << "Using device " << camera.GetDeviceInfo().GetModelName() << endl;
// The parameter MaxNumBuffer can be used to control the count of buffers
// allocated for grabbing. The default value of this parameter is 10.
camera.MaxNumBuffer = 5;
// Start the grabbing of c_countOfImagesToGrab images.
// The camera device is parameterized with a default configuration which
// sets up free-running continuous acquisition.
camera.StartGrabbing( c_countOfImagesToGrab);
// This smart pointer will receive the grab result data.
CGrabResultPtr ptrGrabResult;
// Camera.StopGrabbing() is called automatically by the RetrieveResult() method
// when c_countOfImagesToGrab images have been retrieved.
while ( camera.IsGrabbing())
{
// Wait for an image and then retrieve it. A timeout of 5000 ms is used.
camera.RetrieveResult( 5000, ptrGrabResult, TimeoutHandling_ThrowException);
// Image grabbed successfully?
if (ptrGrabResult->GrabSucceeded())
{
// Access the image data.
cout << "SizeX: " << ptrGrabResult->GetWidth() << endl;
cout << "SizeY: " << ptrGrabResult->GetHeight() << endl;
const uint8_t *pImageBuffer = (uint8_t *) ptrGrabResult->GetBuffer();
cout << "Gray value of first pixel: " << (uint32_t) pImageBuffer[0] << endl << endl;
#ifdef PYLON_WIN_BUILD
// Display the grabbed image.
Pylon::DisplayImage(1, ptrGrabResult);
#endif
}
else
{
cout << "Error: " << ptrGrabResult->GetErrorCode() << " " << ptrGrabResult->GetErrorDescription() << endl;
}
}
}
catch (GenICam::GenericException &e)
{
// Error handling.
cerr << "An exception occurred." << endl
<< e.GetDescription() << endl;
exitCode = 1;
}
// Comment the following two lines to disable waiting on exit.
cerr << endl << "Press Enter to exit." << endl;
while( cin.get() != '\n');
return exitCode;
}
int main(int argc, char* argv[])
{
ros::init(argc, argv, "grab");
ros::NodeHandle n;
ros::Rate loop_rate(10);
// The exit code of the sample application.
int exitCode = 0;
// Automagically call PylonInitialize and PylonTerminate to ensure
// the pylon runtime system is initialized during the lifetime of this object.
Pylon::PylonAutoInitTerm autoInitTerm;
CGrabResultPtr ptrGrabResult;
namedWindow("CV_Image",WINDOW_AUTOSIZE);
try
{
CInstantCamera camera( CTlFactory::GetInstance().CreateFirstDevice());
cout << "Using device " << camera.GetDeviceInfo().GetModelName() << endl;
camera.Open();
GenApi::CIntegerPtr width(camera.GetNodeMap().GetNode("Width"));
GenApi::CIntegerPtr height(camera.GetNodeMap().GetNode("Height"));
Mat cv_img(width->GetValue(), height->GetValue(), CV_8UC3);
camera.StartGrabbing();
CPylonImage image;
CImageFormatConverter fc;
fc.OutputPixelFormat = PixelType_RGB8packed;
while(camera.IsGrabbing()){
camera.RetrieveResult( 500, ptrGrabResult, TimeoutHandling_ThrowException);
if (ptrGrabResult->GrabSucceeded()){
fc.Convert(image, ptrGrabResult);
cv_img = cv::Mat(ptrGrabResult->GetHeight(), ptrGrabResult->GetWidth(), CV_8UC3,(uint8_t*)image.GetBuffer());
imshow("CV_Image",cv_img);
waitKey(1);
if(waitKey(30)==27){
camera.StopGrabbing();
}
}
ros::spinOnce();
loop_rate.sleep();
}
}
catch (GenICam::GenericException &e)
{
// Error handling.
cerr << "An exception occurred." << endl
<< e.GetDescription() << endl;
exitCode = 1;
}
// Comment the following two lines to disable waiting on exit
cerr << endl << "Press Enter to exit." << endl;
while( cin.get() != '\n');
return exitCode;
}
int main(int argc, char* argv[])
{
//------------------------//
// Main Code //
//------------------------//
// The exit code of the sample application.
int exitCode = 0;
system("CLS");
cout << "*------------------------------------------------------*" << endl;
cout << "******* Program by S.E Lansbergen, June 2016 ********" << endl;
cout << "*------------------------------------------------------*" << endl;
//------------------------//
// Configuration variable //
//------------------------//
// Config file
const char* open_config = "config_grabpupilsize.cfg";
// INI file (containing default start-up values)
const char* open_ini = "default.ini";
//------------------------//
// R/W default ini file //
//------------------------//
string def_prethres;
string def_mainthres;
string def_roiheigth;
string def_roiwidth;
string def_roistartx;
string def_roistarty;
string def_itterations;
string def_pupil_max;
string def_pupil_min;
// create or open an ini file
INI ini(open_ini);
// load INI file
if (ini.is_open()) { // The file exists, and is open for input
// get default threshold values
def_prethres = ini.property("thresholding", "pre-threshold");
def_mainthres = ini.property("thresholding", "main-threshold");
// get default ROI values
def_roiheigth = ini.property("ROI", "height");
def_roiwidth = ini.property("ROI", "width");
def_roistartx = ini.property("ROI", "startx");
def_roistarty = ini.property("ROI", "starty");
// get default closing itteration value
def_itterations = ini.property("close", "itterations");
// get default min and max pupil size values
def_pupil_max = ini.property("pupil_size", "pupil_max");
def_pupil_min = ini.property("pupil_size", "pupil_min");
cout << endl << endl << " *** default.ini loaded ***" << endl;
}
else
{
cout << endl << " *** default.ini file is missing, program aborted! *** " << endl;
cout << " *** go to Github and download default.ini, put this in the executable root dir *** " << endl;
return 1;
}
//-------------------//
// Defualt variables //
//-------------------//
// default hard coded settings if Config.cfg file is not present or in-complete/commented
const char* thres_name = "THRESH_BINARY";
const char* save_path = "c:/output.avi";
const char* save_path_num = "c:/output.txt";
const char* save_path_ori = "c:/original.avi";
string sav_pat = "c:/output.avi";
string sav_pat_num = "c:/output.txt";;
string sav_pat_ori = "c:/original.avi";
string save_path_xy = "c:/xy_postion.txt";
bool show_screen_info = 1;
bool save_video = 0;
bool save_radius = 0;
bool save_original = 0;
bool ROI_start_auto = 1;
bool original_image = 1;
bool blurred_image = 0;
bool thresholded_image = 0;
bool closed_image = 0;
bool end_result_image = 1;
bool show_ost = 0;
bool pre_threshold_image = 0;
bool crosshair = 0;
bool calibrate = 0;
ThresholdTypes thres_type = THRESH_BINARY;
int cFramesPerSecond = 20;
int main_pre_threshold = 20;
int thres_mode = 0;
int ROI_start_x;
int ROI_start_y;
int width_SE = 3;
int heigth_SE = 3;
int heigth_blur = 3;
int width_blur = 3;
int pupil_min = 15;
int pupil_max = 55;
int pre_threshold = 100;
int itterations_close = 3;
int cali_x_a = 280;
int cali_x_b = 350;
int cali_y_a = 100;
int cali_y_b = 200;
Size ROI_dimensions = Size(150, 150);
Size ROI_start;
Size blur_dimensions = Size(width_SE, heigth_SE);
Size SE_morph = Size(width_SE, heigth_SE);
double pupil_aspect_ratio = 1.5;
double size_text = 0.5;
double pi = 3.14159;
uint32_t time, frames;
Point pupil_position;
//---------------------//
// Remaining variables //
//---------------------//
// video writer output
VideoWriter roi_end_result, original;
// images for processing
Mat thres;
Mat close;
Mat blur;
Mat roi_eye;
Mat pre_thres;
Mat aim;
Mat cali;
// variables for numerical output
ofstream output_end_result, output_xy;
ostringstream strs, ost1, ost2, ost3;
string radius, size_roi, frame_rate, output_file;
//-------------------------//
// read configuration file //
//-------------------------//
// read config file
ifstream ifile(open_config);
if (ifile) { // The file exists, and is open for input
ConfigFile cfg(open_config);
// check for existance and replace defualt value
if (cfg.keyExists("show_screen_info") == true) { // get screen info on/off
show_screen_info = cfg.getValueOfKey<bool>("show_screen_info");
}
if (cfg.keyExists("save_video") == true) { // get video save_file info
save_video = cfg.getValueOfKey<bool>("save_video");
}
if (cfg.keyExists("save_radius") == true) { // get numerical save_file info
save_radius = cfg.getValueOfKey<bool>("save_radius");
}
if (cfg.keyExists("save_original") == true) { // get save original stream info
save_original = cfg.getValueOfKey<bool>("save_original");
}
if (cfg.keyExists("frames_per_sec") == true) { // get frames per second
cFramesPerSecond = cfg.getValueOfKey<int>("frames_per_sec");
}
if (cfg.keyExists("save_path_vid") == true) { // get video output file name & path
sav_pat = cfg.getValueOfKey<string>("save_path_vid");
save_path = sav_pat.c_str();
}
if (cfg.keyExists("save_path_num") == true) { // get numerical output file name & path
sav_pat_num = cfg.getValueOfKey<string>("save_path_num");
save_path_num = sav_pat_num.c_str();
}
if (cfg.keyExists("save_path_ori") == true) { // get original stream file name & path
sav_pat_ori = cfg.getValueOfKey<string>("save_path_ori");
save_path_ori = sav_pat_ori.c_str();
}
if (cfg.keyExists("height_roi") == true && cfg.keyExists("width_roi") == true) { // get heigth & width ROI
int ROI_heigth = cfg.getValueOfKey<int>("height_roi");
int ROI_width = cfg.getValueOfKey<int>("width_roi");
ROI_dimensions = Size(ROI_width, ROI_heigth);
}
if (cfg.keyExists("ROI_start_x") == true && cfg.keyExists("ROI_start_y") == true) { // get x and y starting point for ROI
ROI_start_y = cfg.getValueOfKey<int>("ROI_start_y");
ROI_start_x = cfg.getValueOfKey<int>("ROI_start_x");
ROI_start = Size(ROI_start_x, ROI_start_y);
ROI_start_auto = 0;
}
if (cfg.keyExists("width_SE") == true && cfg.keyExists("heigth_SE") == true) { // get dimensions SE
width_SE = cfg.getValueOfKey<int>("width_SE");
heigth_SE = cfg.getValueOfKey<int>("heigth_SE");
SE_morph = Size(width_SE, heigth_SE);
}
if (cfg.keyExists("heigth_blur") == true && cfg.keyExists("width_blur") == true) { // get dimensions Gaussian blur
heigth_blur = cfg.getValueOfKey<int>("heigth_blur");
width_blur = cfg.getValueOfKey<int>("width_blur");
blur_dimensions = Size(width_blur, heigth_blur);
}
if (cfg.keyExists("thres_mode") == true) { // get threshold method
thres_mode = cfg.getValueOfKey<int>("thres_mode");
switch (thres_mode) {
case 0:
thres_type = THRESH_BINARY;
thres_name = "THRESH_BINARY";
break;
case 1:
thres_type = THRESH_BINARY_INV;
thres_name = "THRESH_BINARY_INV";
break;
case 2:
thres_type = THRESH_TRUNC;
thres_name = "THRESH_TRUNC";
break;
case 3:
thres_type = THRESH_TOZERO;
thres_name = "THRESH_TOZERO";
break;
case 4:
thres_type = THRESH_TOZERO_INV;
thres_name = "THRESH_TOZERO_INV";
break;
default:
thres_type = THRESH_BINARY;
thres_name = "THRESH_BINARY";
}
}
if (cfg.keyExists("itterations_close") == true) { // get number of itterations for closing operation
itterations_close = cfg.getValueOfKey<int>("itterations_close");
}
if (cfg.keyExists("pupil_aspect_ratio") == true) { // get aspect ratio threshold accepted ellipse
pupil_aspect_ratio = cfg.getValueOfKey<double>("pupil_aspect_ratio");
}
if (cfg.keyExists("pupil_min") == true) { // get minimal accepted pupil radius
pupil_min = cfg.getValueOfKey<int>("pupil_min");
}
if (cfg.keyExists("pupil_max") == true) { // get maximal accepted pupil radius
pupil_max = cfg.getValueOfKey<int>("pupil_max");
}
if (cfg.keyExists("original_image") == true) { // info: stream original stream to display
original_image = cfg.getValueOfKey<bool>("original_image");
}
if (cfg.keyExists("blurred_image") == true) { // info: stream blurred stream to display
blurred_image = cfg.getValueOfKey<bool>("blurred_image");
}
if (cfg.keyExists("thresholded_image") == true) { // info: thresholded_image blurred stream to display
thresholded_image = cfg.getValueOfKey<bool>("thresholded_image");
}
if (cfg.keyExists("closed_image") == true) { // info: closed_image blurred stream to display
closed_image = cfg.getValueOfKey<bool>("closed_image");
}
if (cfg.keyExists("end_result_image") == true) { // info: end_result_image blurred stream to display
end_result_image = cfg.getValueOfKey<bool>("end_result_image");
}
if (cfg.keyExists("show_ost") == true) { // put text on screen info
show_ost = cfg.getValueOfKey<bool>("show_ost");
}
if (cfg.keyExists("size_text") == true) { // get text size for on screen text
size_text = cfg.getValueOfKey<double>("size_text");
}
if (cfg.keyExists("threshold") == true) { // get threshold value
main_pre_threshold = cfg.getValueOfKey<int>("threshold");
}
// BETA 31-5-2016, 3-6-2016
if (cfg.keyExists("pre_threshold") == true) { // get pre threshold value
pre_threshold = cfg.getValueOfKey<int>("pre_threshold");
}
if (cfg.keyExists("pre_threshold_image") == true) { // info: pre_threshold_image stream to display
pre_threshold_image = cfg.getValueOfKey<bool>("pre_threshold_image");
}
// Beta 31-5-2016
if (cfg.keyExists("crosshair") == true) { //
crosshair = cfg.getValueOfKey<bool>("crosshair");
}
// Beta 1-6-2016
if (cfg.keyExists("calibrate") == true) { //
calibrate = cfg.getValueOfKey<bool>("calibrate");
}
if (cfg.keyExists("cali_x_a") == true && cfg.keyExists("cali_x_b") == true &&
cfg.keyExists("cali_y_a") == true && cfg.keyExists("cali_y_b") == true) { //
cali_x_a = cfg.getValueOfKey<int>("cali_x_a");
cali_x_b = cfg.getValueOfKey<int>("cali_x_b");
cali_y_a = cfg.getValueOfKey<int>("cali_y_a");
cali_y_b = cfg.getValueOfKey<int>("cali_y_b");
}
// BETA 14-6-2016
if (cfg.keyExists("save_path_xy") == true) { // get numerical output file name & path
save_path_xy = cfg.getValueOfKey<string>("save_path_xy");
//save_path_num = sav_pat_num.c_str();
}
cout << endl << endl << " *** Configuration file loaded ***" << endl;
}
else {
cout << endl << endl << " *** No configuration file found ***" << endl;
cout << " *** Default, internal parameters loaded ***" << endl;
}
//------------------------//
// Handle input arguments //
//------------------------//
cout << endl << endl << "Program has " << (argc - 1) << " extra input arguments:" << endl;
for (int i = 1; i < argc; ++i) cout << argv[i] << endl;
//------------------------//
// CMD - parser //
//------------------------//
// input: none
if (argc <= 1) // actual count (starts at 1)
{
// disable saving both numerical as well as video output.
save_video = false;
//save_video = false;
save_radius = false;
// amount of frames to grab
frames = 120 * cFramesPerSecond;
cout << endl << endl << " *** Calibration mode *** " << endl << endl;
cout << " - No recording of video or numerical output" << endl;
cout << " - 120 seconds of video stream" << endl << endl;
cout << " - Hit [ESC] in video window to quit the program" << endl;
}
// input: [time]
else if (argc == 2)
{
if (isalpha(*argv[1])) { // index starts at 0
puts("Not a number: Wrong input argument for [time] ?");
}
else if (isdigit(*argv[1])) {
// atoi = Ascii To Int -> stops converting at the first non int
time = atoi(argv[1]);
// amount of frames to grab
frames = time * cFramesPerSecond;
cout << endl << "Recording time (sec(s)) : " << time << endl;
cout << "Total frames recorded : " << frames << endl;
cout << "No additional savepath and name entered for numeric output" << endl;
cout << "No additional savepath and name entered for video output." << endl;
}
else {
puts("Not a number: Wrong input argument for [time] ?");
return 1;
}
}
// input: [time] [save num]
else if (argc == 3)
{
if (isalpha(*argv[1]) || isdigit(*argv[2])) { // index starts at 0
puts("Not a number: Wrong input argument for [time] or [save num] ?");
}
else if (isdigit(*argv[1]) && isalpha(*argv[2])) {
// atoi = Ascii To Int -> stops converting at the first non int
time = atoi(argv[1]);
// amount of frames to grab
frames = time * cFramesPerSecond;
// get entered save path and name for numerical output
save_path_num = argv[2];
cout << endl << "Recording time (sec(s)) : " << time << endl;
cout << "Total frames recorded : " << frames << endl;
cout << "Entered additional savepath and name for video output : " << save_path_num << endl;
cout << "No additional savepath and name entered for video output." << endl;
}
else {
puts("Not a number: Wrong input argument for [time] or [save num] ?");
return 1;
}
}
// input: [time] [save num] [save xy]
else if (argc == 4) {
// atoi = Ascii To Int -> stops converting at the first non int
time = atoi(argv[1]);
// amount of frames to grab
frames = time * cFramesPerSecond;
// get entered save path and name for pupil area output
save_path_num = argv[2];
// get entered save path and name for xy position pupil output
save_path_xy = argv[3];
cout << endl << "Recording time (sec(s)) : " << time << endl;
cout << "Total frames recorded : " << frames << endl;
cout << "Entered additional savepath and name for pupil area output : " << save_path_num << endl;
cout << "Entered additional savepath and name for xy position pupil : " << save_path_xy << endl;
}
// input: [time] [save num] [save xy] [save vid]
else if (argc == 5)
{
// atoi = Ascii To Int -> stops converting at the first non int
time = atoi(argv[1]);
// amount of frames to grab
frames = time * cFramesPerSecond;
// get entered save path and name for numerical output
save_path_num = argv[2];
// get entered save path and name for xy position pupil output
save_path_xy = argv[3];
// get entered save path and name for video output
save_path = argv[4];
cout << endl << "Recording time (sec(s)) : " << time << endl;
cout << "Total frames recorded : " << frames << endl;
cout << "Entered additional savepath and name for pupil area output : " << save_path_num << endl;
cout << "Entered additional savepath and name for xy position pupil : " << save_path_xy << endl;
cout << "Entered additional savepath and name for video output : " << save_path << endl;
}
// to many input arguments
else
{
cout << endl << " *** To many input arguments *** " << endl;
return 1;
}
//------------------------------------//
// Read values from default.ini file //
//------------------------------------//
if (ini.is_open()) {
main_pre_threshold = atoi(def_mainthres.c_str());
pre_threshold = atoi(def_prethres.c_str());
itterations_close = atoi(def_itterations.c_str());
pupil_min = atoi(def_pupil_min.c_str());
pupil_max = atoi(def_pupil_max.c_str());
ROI_dimensions.width = atoi(def_roiwidth.c_str());
ROI_dimensions.height = atoi(def_roiheigth.c_str());
}
//-----------------------//
// Show loaded variables //
//-----------------------//
if (show_screen_info == true) {
cout << endl << endl;
cout << "*------------------------------------------------------*" << endl;
cout << "***** Program Parameters *****" << endl;
cout << "*------------------------------------------------------*" << endl;
cout << "*" << endl;
cout << "* Show Crosshair to aim camera : " << crosshair << endl;
cout << "* Save video output : " << save_video << endl;
cout << "* Save original stream : " << save_original << endl;
cout << "* Save radius numerical output : " << save_radius << endl;
cout << "* Save path video output : " << save_path << endl;
cout << "* Save path original stream : " << save_path_ori << endl;
cout << "* Save path pupil area output : " << save_path_num << endl;
cout << "* Save path xy position output : " << save_path_xy << endl;
cout << endl;
cout << "* Frames per second : " << cFramesPerSecond << endl;
cout << "* Heigth and width ROI : " << ROI_dimensions << endl;
if (ROI_start_auto == false) {
cout << "* Anchor coordinate [X,Y] ROI \n manually set : " << ROI_start << endl;
}
else { cout << "* Anchor coordinate [X,Y] ROI set automatically" << endl; }
cout << endl;
cout << "* Value of threshold : " << main_pre_threshold << endl;
cout << "* Threshold mode : (" << thres_mode << ") " << thres_name << endl;
cout << "* pre-threshold value : " << pre_threshold << endl;
cout << "* Size Gaussian blur filter : " << blur_dimensions << endl;
cout << "* Size structuring element \n for morphological closing : " << SE_morph << endl;
cout << "* Total itterations closing operation : " << itterations_close << endl;
cout << "* Threshold aspect ratio ellipse : " << pupil_aspect_ratio << endl;
cout << "* Minimum radius accepted ellipse : " << pupil_min << endl;
cout << "* Maximum radius accepted ellipse : " << pupil_max << endl;
cout << endl;
cout << "* Show original stream on display : " << original_image << endl;
cout << "* Show blurred stream on display : " << blurred_image << endl;
cout << "* Show pre-threshold stream on display: " << pre_threshold_image << endl;
cout << "* Show thresholded stream on display : " << thresholded_image << endl;
cout << "* Show morph closed stream on display : " << closed_image << endl;
cout << "* Show end result stream on display : " << end_result_image << endl;
cout << endl;
cout << "* Show text on end result stream : " << show_ost << endl;
cout << "* Size text on screen : " << size_text << endl;
cout << "*" << endl;
cout << "*------------------------------------------------------*" << endl;
cout << "******* Program by S.E Lansbergen, July 2016 ******** " << endl;
cout << "*------------------------------------------------------*" << endl;
}
// set variables for on screen text output
if (show_ost == true) {
// text with save path & name
ost3 << save_path;
output_file = ost3.str();
}
if (crosshair == true) {
// text for ROI size
ost1 << "ROI size: " << ROI_dimensions.width << "x" << ROI_dimensions.height;
size_roi = ost1.str();
}
//--------------------------------//
// Video acquisition and analysis //
//--------------------------------//
// Before using any pylon methods, the pylon runtime must be initialized.
PylonInitialize();
try
{
// Create an instant camera object with the camera device found first.
//CInstantCamera camera(CTlFactory::GetInstance().CreateFirstDevice());
CBaslerUsbInstantCamera camera(CTlFactory::GetInstance().CreateFirstDevice());
// Print the model name of the camera.
cout << endl << endl << "Connected Basler USB 3.0 device, type : " << camera.GetDeviceInfo().GetModelName() << endl;
// open camera object to parse frame# etc.
camera.Open();
// Enable the acquisition frame rate parameter and set the frame rate.
camera.AcquisitionFrameRateEnable.SetValue(true);
camera.AcquisitionFrameRate.SetValue(cFramesPerSecond);
// Get native width and height from connected camera
GenApi::CIntegerPtr width(camera.GetNodeMap().GetNode("Width"));
GenApi::CIntegerPtr height(camera.GetNodeMap().GetNode("Height"));
// The parameter MaxNumBuffer can be used to control the count of buffers
// allocated for grabbing. The default value of this parameter is 10.
camera.MaxNumBuffer = 5;
// Start the grabbing of c_countOfImagesToGrab images.
// The camera device is parameterized with a default configuration which
// sets up free-running continuous acquisition.
camera.StartGrabbing(frames);
// convers pylon video stream into CPylonImage object
// which will be used to construct Mat objects
CPylonImage image;
CImageFormatConverter fc;
// define pixel output format (to match algorithm optimalization).
fc.OutputPixelFormat = PixelType_Mono8;
// This smart pointer will receive the grab result data. (Pylon).
CGrabResultPtr ptrGrabResult;
// create Mat image template
Mat cv_img(width->GetValue(), height->GetValue(), CV_8UC3);
// set contours variable
vector<vector<Point> > contours;
// automatically calculate start point of ROI
if (ROI_start_auto == true) {
Size size(width->GetValue(), height->GetValue());
ROI_start_x = (size.width / 2) - (ROI_dimensions.width / 2);
ROI_start_y = (size.height / 2) - (ROI_dimensions.height / 2);
// get values from default.ini
if (ini.is_open()) {
ROI_start_x = atoi(def_roistartx.c_str());
ROI_start_y = atoi(def_roistarty.c_str());
}
}
// set ROI
Rect roi(ROI_start_x, ROI_start_y, ROI_dimensions.width, ROI_dimensions.height);
// set Structuring Element
Mat SE = getStructuringElement(MORPH_ELLIPSE, SE_morph, Point(-1, -1));
//--------------------------------//
// Open avi and txt output stream //
//--------------------------------//
// open video writer object: End Result
if (save_video == true) {
// create video output End Result object -> MPEG encoding
roi_end_result.open(save_path, CV_FOURCC('M', 'P', 'E', 'G'), cFramesPerSecond, Size(width->GetValue(), height->GetValue()), true);
//if the VideoWriter file is not initialized successfully, exit the program.
if (!roi_end_result.isOpened())
{
cout << "ERROR: Failed to write the video" << endl;
return -1;
}
}
// open video writer object: Original
if (save_original == true) {
// create video output Original object -> MPEG encoding
original.open(save_path_ori, CV_FOURCC('M', 'P', 'E', 'G'), cFramesPerSecond, Size(width->GetValue(), height->GetValue()), true);
//if the VideoWriter file is not initialized successfully, exit the program.
if (!original.isOpened())
{
cout << "ERROR: Failed to write the video" << endl;
return -1;
}
}
// open outstream to write end result (radius)
if (save_radius == true) {
output_end_result.open(save_path_num);
output_xy.open(save_path_xy);
}
// set parameters for calibration tool
Size size_cam(width->GetValue(), height->GetValue());
Point calibrate_stripe1a(cali_x_a, cali_y_a);
Point calibrate_stripe1b(cali_x_a, cali_y_b);
Point calibrate_stripe2a(cali_x_b, cali_y_a);
Point calibrate_stripe2b(cali_x_b, cali_y_b);
//---------------------//
// Main Algorithm Loop //
//---------------------//
// initiate main loop with algorithm
while (camera.IsGrabbing())
{
// Wait for an image and then retrieve it. A timeout of 5000 ms is used.
camera.RetrieveResult(5000, ptrGrabResult, TimeoutHandling_ThrowException);
// Image grabbed successfully?
if (ptrGrabResult->GrabSucceeded())
{
// Pre-Step: set (click on-)mouse call back function
setMouseCallback("End Result", onMouse, 0);
// Step 1
//
// convert to Mat - openCV format for analysis
fc.Convert(image, ptrGrabResult);
cv_img = Mat(ptrGrabResult->GetHeight(), ptrGrabResult->GetWidth(), CV_8U, (uint8_t*)image.GetBuffer());
// (Step 1b)
//
// crosshair output
if (crosshair == true) {
cvtColor(cv_img, aim, CV_GRAY2RGB);
line(aim, Point((size_cam.width / 2 - 25), size_cam.height / 2), Point((size_cam.width / 2 + 25), size_cam.height / 2), Scalar(0, 255, 0), 2, 8);
line(aim, Point(size_cam.width / 2, (size_cam.height / 2 - 25)), Point(size_cam.width / 2, (size_cam.height / 2 + 25)), Scalar(0, 255, 0), 2, 8);
rectangle(aim, roi, Scalar(0, 255, 0), 2, 8);
putText(aim, size_roi, cvPoint(30, 20),
FONT_HERSHEY_COMPLEX_SMALL, (0.8), cvScalar(0, 255, 0), 1, CV_AA);
imshow("Crosshair", aim);
}
// (Step 1c)
//
// extra calibration step output
if (calibrate == true) {
cvtColor(cv_img, cali, CV_GRAY2RGB);
line(cali, calibrate_stripe1a, calibrate_stripe1b, Scalar(255, 0, 0), 4, 8);
line(cali, calibrate_stripe2a, calibrate_stripe2b, Scalar(255, 0, 0), 4, 8);
putText(cali, "Calibrate", cvPoint(30, 20),
FONT_HERSHEY_COMPLEX_SMALL, (0.8), cvScalar(255, 0, 0), 1, CV_AA);
imshow("calibrate", cali);
}
// Step 2
//
// take ROI from eye original
eye = cv_img;
roi_eye = eye(roi);
// make RGB copy of ROI for end result
cvtColor(eye, end_result, CV_GRAY2RGB);
// Set user ROI from mouse input
if (roi_user.width != 0) {
if (0 <= roi_user.x && 0 <= roi_user.width && roi_user.x + roi_user.width <= eye.cols && roi_user.y + roi_user.height <= eye.rows) {
roi = roi_user;
}
}
if (original_image == true) { imshow("Original", eye); }
// Step 3
//
// apply Gaussian blur to ROI
GaussianBlur(roi_eye, blur, blur_dimensions, 0, 0, BORDER_DEFAULT);
if (blurred_image == true) { imshow("Gaussian blur", blur); }
// Step 4
//
// Pre-Threshold: Convert to binary image by thresholding it
threshold(blur, pre_thres, pre_threshold, 255, THRESH_TOZERO_INV);
if (pre_threshold_image == true) {
imshow("Pre-thresholded", pre_thres);
// set trackbar on end-result output
createTrackbar("Pre Threshold:", "End Result", &pre_threshold, 255);
}
// Step 5
//
// Main-Threshold: Convert to binary image by thresholding it
threshold(pre_thres, thres, main_pre_threshold, 255, thres_type);
if (thresholded_image == true) {
imshow("Thresholded", thres);
// set trackbar on end-result output
createTrackbar(" Threshold:", "End Result", &main_pre_threshold, 255);
}
// Step 6
//
// Morphological closing (erosion and dilation)
morphologyEx(thres, close, MORPH_CLOSE, SE, Point(-1, -1), itterations_close);
if (closed_image == true) {
imshow("Morphological closing", close);
// set trackbar on end-result output
createTrackbar(" Itterations:", "End Result", &itterations_close, 15);
}
// Step 7
//
// find contour algorithm
findContours(close, contours, RETR_LIST, CHAIN_APPROX_NONE);
// Step 8
//
// Fit ellipse and draw on image
double ellipse_width(0), ellipse_height(0);
int flag(0), area_output;
Point ellipse_shift(0, 0);
int x_out(0), y_out(0);
// Loop to draw circle on video image
for (int i = 0; i < contours.size(); i++)
{
size_t count = contours[i].size();
if (count < 6)
continue;
Mat pointsf;
Mat(contours[i]).convertTo(pointsf, CV_32F);
RotatedRect box = fitEllipse(pointsf);
if (MAX(box.size.width, box.size.height) > MIN(box.size.width, box.size.height) * pupil_aspect_ratio)
continue;
// sets min and max width and heigth of the box in which the ellipse is fitted
// only these are used in the video and numerical output
if (MAX(box.size.width, box.size.height) > pupil_min && MAX(box.size.width, box.size.height) < pupil_max) {
flag++; // counts 1 at first itteration
// adds all width and height in all itterations for pupil area
ellipse_width = ellipse_width + box.size.width;
ellipse_height = ellipse_height + box.size.height;
// Plot on ROI screen, and add shift x-y by ROI
ellipse_shift.x = box.center.x + roi.x;
ellipse_shift.y = box.center.y + roi.y;
ellipse(end_result, ellipse_shift, box.size*0.5f, box.angle, 0, 360, Scalar(0, 0, 255), 2, LINE_AA);
// adds all width and height in all itterations for pupil x-y position
x_out = x_out + ellipse_shift.x;
y_out = y_out + ellipse_shift.y;
}
}
// draw cross in center of pupil
line(end_result, Point(ellipse_shift.x - 3, ellipse_shift.y),
Point(ellipse_shift.x + 3, ellipse_shift.y), Scalar(0, 255, 0), 2, 8);
line(end_result, Point(ellipse_shift.x, ellipse_shift.y - 3),
Point(ellipse_shift.x, ellipse_shift.y + 3), Scalar(0, 255, 0), 2, 8);
// devides width and heigth with total number of found ellipses to get average value
//
if (ellipse_width != NAN && ellipse_height != NAN
&& ellipse_width != 0 && ellipse_height != 0) {
ellipse_width = ellipse_width / flag;
ellipse_height = ellipse_height / flag;
// calculate total area of ellipse
area_output = (ellipse_width / 2) * (ellipse_height / 2) * pi;
// set x-y position
x_out = x_out / flag;
y_out = y_out / flag;
}
else {
// set area to 0 when no ellipse is found
area_output = 0;
x_out = 0;
y_out = 0;
}
// put streamstring to video frame
if (show_ost == true) {
putText(end_result, output_file, cvPoint(30, 20),
FONT_HERSHEY_COMPLEX_SMALL, (size_text), cvScalar(0, 0, 255), 1, CV_AA);
}
// SHOW END RESULT
//
// set trackbar on end-result output
imshow("End Result", end_result);
createTrackbar("size min:", "End Result", &pupil_min, 75);
createTrackbar("size max:", "End Result", &pupil_max, 150);
//------------------------------//
// Store radius & video streams //
//------------------------------//
// store radius in output file
if (save_radius == true) {
output_end_result << area_output << endl;
output_xy << x_out << char(44) << char(32) << y_out << endl;
}
// write the end result into file
if (save_video == true) {
roi_end_result.write(end_result);
}
// write the original stream into file
if (save_original == true) {
// conversion of Mat file is necassery prior to saving with mpeg compression
cvtColor(eye, eye, CV_GRAY2RGB);
original.write(eye);
}
// close grabbing when escape-key "Esc" is used
if (waitKey(30) == 27) {
camera.StopGrabbing();
}
}
else
{
cout << "Error: " << ptrGrabResult->GetErrorCode() << " " << ptrGrabResult->GetErrorDescription() << endl;
}
} // end algorithm main loop
// close numerical output streams
if (save_radius == true) {
output_end_result.close();
output_xy.close();
}
//------------------------------------//
// Write values from default.ini file //
//------------------------------------//
if (ini.is_open()) {
// set default threshold values
ini.property("thresholding", "pre-threshold") = to_string(pre_threshold);
ini.property("thresholding", "main-threshold") = to_string(main_pre_threshold);
// set default ROI values
ini.property("ROI", "width") = to_string(roi.width);
ini.property("ROI", "height") = to_string(roi.height);
ini.property("ROI", "startx") = to_string(roi.x);
ini.property("ROI", "starty") = to_string(roi.y);
// get default closing itteration value
ini.property("close", "itterations") = to_string(itterations_close);
// get default min and max pupil size values
ini.property("pupil_size", "pupil_max") = to_string(pupil_max);
ini.property("pupil_size", "pupil_min") = to_string(pupil_min);
cout << endl << endl << " *** default.ini stored ***" << endl;
}
}
catch (const GenericException &e)
{
// Error handling.
cerr << "An exception occurred." << endl
<< e.GetDescription() << endl;
exitCode = 1;
}
// Releases all pylon resources.
PylonTerminate();
// end on terminal screen
if (save_radius == true || save_video == true) {
cout << endl << endl << " *** Done recording ***" << endl << endl;
}
else {
cout << endl << endl << " *** Done ***" << endl << endl;
}
return exitCode;
}
void CCameraBasler::continuousAcquireHardwareTrigger(int index)
{
IplImage *img;
CGrabResultPtr ptrGrabResult;
std::pair<char*,IplImage*> pairTemp;
unsigned int indiceImagenes = 0;
std::ofstream myfile;
std::string gpsFileName= folderName;
gpsFileName.append("\\gps.txt");
myfile.open (gpsFileName.c_str());
while (m_cameraState == CVCCameraInterface::GRABBING)
{
try
{
#ifdef DEBUG_PERFORMANCE
Timer timer;
Timer timer2;
timer2.start();
#endif
m_Camera->RetrieveResult(INFINITE, ptrGrabResult, TimeoutHandling_Return);
if (ptrGrabResult->GrabSucceeded())
{
// Convert pylon image to opencv image format
img = cvCreateImage(cvSize(ptrGrabResult->GetWidth(),ptrGrabResult->GetHeight()),8,3);
#ifdef DEBUG_PERFORMANCE
timer.start();
#endif
CBaslerFormatConverter::convertCOLORtoCVRGB(img,ptrGrabResult);
#ifdef DEBUG_PERFORMANCE
timer.stop();
std::cout << "[DEBUG BASLER] "<< timer.getElapsedTimeInMilliSec() << " ms In convert from Basler to Opencv\n";
#endif
#ifdef DEBUG_SHOWSNAPS
cvShowImage("Visible",img);
cvWaitKey(1);
#endif
// Construct image file name
char *str = new char[200];
std::string isoString = boost::posix_time::to_iso_string(boost::posix_time::microsec_clock::universal_time());
std::string date = isoString.substr(0,8);
std::string time = isoString.substr(9,20);
myfile << date << "T,"<< time<<"Z,"<<CVCCameraInterface::GPSInfo::Instance()->gpsInfo;
sprintf(str,"%s\\Visible_%d.bmp",folderName.c_str(),indiceImagenes);
// Put name and image in a pair
pairTemp.first = str;
pairTemp.second = img;
// Enqueue pair of <nameOfFileToSave,image> in the SaveImageProcess
// Is a singleton thread save design to enqueue and process all images.
// Index refers to the "id" of the queue. Each queue will have a thread.
CVCCameraInterface::SaveImagesProcess::Instance()->Add(index,pairTemp);
// Increment the number of the actual image. Used to make the filename
indiceImagenes++;
#ifdef DEBUG_PERFORMANCE
std::cout << "[DEBUG BASLER] "<< indiceImagenes << " imagenes tomadas"<<std::endl;
std::cout << "[DEBUG BASLER] "<< timer2.getElapsedTimeInMilliSec() << " Duro el ciclo if"<<std::endl;
#endif
}
else
{
std::cout << "Error: [Basler] :" << ptrGrabResult->GetErrorCode() << " " << ptrGrabResult->GetErrorDescription() << std::endl;
}
}
catch(GenICam::GenericException &e)
{
std::cerr << "ERROR: [Basler] Acquiring continuous images." << e.GetDescription() << std::endl;
}
}
myfile.close();
try
{
m_Camera->StopGrabbing();
}
catch(GenICam::GenericException &e)
{
std::cerr << "ERROR: [Basler] Acquiring continuous images." << e.GetDescription() << std::endl;
}
}
IplImage * CCameraBasler::AcquireSingleImage()
{
CGrabResultPtr ptrGrabResult;
IplImage *img = NULL;
try
{
if (m_Camera == NULL)
{
std::cerr << "ERROR: [Basler] Camera is null." << std::endl;
return NULL;
}
// Camera have to be configured in free running
if ( m_cameraState == CVCCameraInterface::CONFIGURED )
{
// Camera have to be configured in trigger software mode. If is in custom mode it's ok, otherwise will force
// default trigger software configuration.
if ( m_cameraStateMode != CVCCameraInterface::CUSTOM )
{
if ( m_cameraStateMode != CVCCameraInterface::TRIGGER_SOFTWARE )
{
configureCameraMode(CVCCameraInterface::TRIGGER_SOFTWARE);
}
}
}
// Configure strategy one by one
m_Camera->StartGrabbing( GrabStrategy_OneByOne);
// Wait camera to be ready for a software trigger
if (m_Camera->WaitForFrameTriggerReady( 200,TimeoutHandling_ThrowException))
{
// Execute software trigger
m_Camera->ExecuteSoftwareTrigger();
}
// Wait some time to acquire the image
::Sleep(200);
// Grab the image from the pylon buffer
m_Camera->RetrieveResult(5000,ptrGrabResult,TimeoutHandling_Return);
// If is not grabbed succesfull
if (!ptrGrabResult->GrabSucceeded())
{
return NULL;
}
// Stop camera grabbing
m_Camera->StopGrabbing();
}
catch(GenICam::GenericException &e)
{
std::cerr << "Error: [Basler] An exception occurred acquiring single image." << std::endl << e.GetDescription() << std::endl;
return NULL;
}
try
{
// Convert pylon image to opencv image format
img = cvCreateImage(cvSize(ptrGrabResult->GetWidth(),ptrGrabResult->GetHeight()),8,3);
CBaslerFormatConverter::convertCOLORtoCVRGB(img,ptrGrabResult);
}
catch(...)
{
return NULL;
}
// Return the image in opencv format
return img;
}
int main(int argc, char* argv[])
{
// The exit code of the sample application.
int exitCode = 0;
if(const char* env_p = std::getenv("PATH"))
std::cout << "Your PATH is: " << env_p << '\n';
// Automagically call PylonInitialize and PylonTerminate to ensure the pylon runtime system
// is initialized during the lifetime of this object.
Pylon::PylonAutoInitTerm autoInitTerm;
try
{
// Create an instant camera object with the camera device found first.
CInstantCamera camera( CTlFactory::GetInstance().CreateFirstDevice());
// Print the model name of the camera.
cout << "Using device " << camera.GetDeviceInfo().GetModelName() << endl;
INodeMap& nodemap = camera.GetNodeMap();
// Open the camera for accessing the parameters.
camera.Open();
// Get camera device information.
cout << "Camera Device Information" << endl
<< "=========================" << endl;
cout << "Vendor : "
<< CStringPtr( nodemap.GetNode( "DeviceVendorName") )->GetValue() << endl;
cout << "Model : "
<< CStringPtr( nodemap.GetNode( "DeviceModelName") )->GetValue() << endl;
cout << "Firmware version : "
<< CStringPtr( nodemap.GetNode( "DeviceFirmwareVersion") )->GetValue() << endl << endl;
// Camera settings.
cout << "Camera Device Settings" << endl
<< "======================" << endl;
// Set the AOI:
// Get the integer nodes describing the AOI.
CIntegerPtr offsetX( nodemap.GetNode( "OffsetX"));
CIntegerPtr offsetY( nodemap.GetNode( "OffsetY"));
CIntegerPtr width( nodemap.GetNode( "Width"));
CIntegerPtr height( nodemap.GetNode( "Height"));
// Access the PixelFormat enumeration type node.
CEnumerationPtr pixelFormat( nodemap.GetNode( "PixelFormat"));
// Remember the current pixel format.
String_t oldPixelFormat = pixelFormat->ToString();
cout << "Old PixelFormat : " << oldPixelFormat << endl;
// Set the pixel format to Mono8 if available.
if ( IsAvailable( pixelFormat->GetEntryByName( "Mono8")))
{
pixelFormat->FromString( "Mono8");
cout << "New PixelFormat : " << pixelFormat->ToString() << endl;
}
// The parameter MaxNumBuffer can be used to control the count of buffers
// allocated for grabbing. The default value of this parameter is 10.
camera.MaxNumBuffer = 20;
// Start the grabbing of c_countOfImagesToGrab images.
// The camera device is parameterized with a default configuration which
// sets up free-running continuous acquisition.
camera.StartGrabbing( c_countOfImagesToGrab);
// This smart pointer will receive the grab result data.
CGrabResultPtr ptrGrabResult;
// Camera.StopGrabbing() is called automatically by the RetrieveResult() method
// when c_countOfImagesToGrab images have been retrieved.
while ( camera.IsGrabbing())
{
// Wait for an image and then retrieve it. A timeout of 5000 ms is used.
camera.RetrieveResult( 5000, ptrGrabResult, TimeoutHandling_ThrowException);
// Image grabbed successfully?
if (ptrGrabResult->GrabSucceeded())
{
// Access the image data.
cout << "SizeX: " << ptrGrabResult->GetWidth() << endl;
cout << "SizeY: " << ptrGrabResult->GetHeight() << endl;
const uint8_t *pImageBuffer = (uint8_t *) ptrGrabResult->GetBuffer();
cout << "Gray value of first pixel: " << (uint32_t) pImageBuffer[0] << endl << endl;
#ifdef PYLON_WIN_BUILD
// Display the grabbed image.
Pylon::DisplayImage(1, ptrGrabResult);
#endif
}
else
{
cout << "Error: " << ptrGrabResult->GetErrorCode() << " " << ptrGrabResult->GetErrorDescription() << endl;
}
}
}
catch (GenICam::GenericException &e)
{
// Error handling.
cerr << "An exception occurred." << endl
<< e.GetDescription() << endl;
exitCode = 1;
}
// Comment the following two lines to disable waiting on exit.
cerr << endl << "Press Enter to exit." << endl;
while( cin.get() != '\n');
return exitCode;
}