void VideoInput::updateFrame() {
static HiResTimer timer;
// Start the timer for fps calculations
if(frameCount == 1)
timer.start();
static double trackerResolution = frame.size().height;
frameCount++;
// Every 20 frames, calculate the fps and reset timer
if(frameCount % 20 == 0) {
timer.stop();
frameRate = (double) 20 / (timer.getElapsedTime()/1000.0);
timer.start();
}
if (!(captureFromVideo && frameCount == 1)) {
// If capturing from video and video size is not equal to desired resolution, carry on with resizing
if (captureFromVideo && videoResolution != trackerResolution) {
cv::Mat temp_image;
_capture.read(temp_image);
cv::Mat roi = temp_image;
if (videoResolution == 720 && trackerResolution == 480) {
roi = temp_image(cv::Rect(160, 0, 960, 720));
} else if (videoResolution == 1080 && trackerResolution == 480) {
roi = temp_image(cv::Rect(240, 0, 1440, 1080));
}
resize(roi, frame, frame.size(), 0, 0, CV_INTER_CUBIC);
} else {
_capture.read(frame);
}
}
if(frame.empty()) {
throw Utils::QuitNow();
}
if (!captureFromVideo) {
flip(frame, frame, 1);
}
copyToDebugFrame();
cvtColor(frame, frameGrey, CV_BGR2GRAY);
}
surface campaign::create_image_surface(const SDL_Rect& image_rect)
{
surface temp_image(
image::get_image(image::locator(image_label_)));
return scale_surface(temp_image, image_rect.w, image_rect.h);
}
void test16()
{
std::string file_name("image.bmp");
bitmap_image image(file_name);
if (!image)
{
printf("test16() - Error - Failed to open '%s'\n",file_name.c_str());
return;
}
double c1 = 0.9;
double c2 = 0.5;
double c3 = 0.3;
double c4 = 0.7;
bitmap_image plasma_image(image.width(),image.height());
plasma(plasma_image,0,0,plasma_image.width(),plasma_image.height(),c1,c2,c3,c4,3.0,jet_colormap);
bitmap_image temp_image(image);
temp_image.alpha_blend(0.1, plasma_image);
temp_image.save_image("test16_alpha_0.1.bmp");
temp_image = image;
temp_image.alpha_blend(0.2, plasma_image);
temp_image.save_image("test16_alpha_0.2.bmp");
temp_image = image;
temp_image.alpha_blend(0.3, plasma_image);
temp_image.save_image("test16_alpha_0.3.bmp");
temp_image = image;
temp_image.alpha_blend(0.4, plasma_image);
temp_image.save_image("test16_alpha_0.4.bmp");
temp_image = image;
temp_image.alpha_blend(0.5, plasma_image);
temp_image.save_image("test16_alpha_0.5.bmp");
temp_image = image;
temp_image.alpha_blend(0.6, plasma_image);
temp_image.save_image("test16_alpha_0.6.bmp");
temp_image = image;
temp_image.alpha_blend(0.7, plasma_image);
temp_image.save_image("test16_alpha_0.7.bmp");
temp_image = image;
temp_image.alpha_blend(0.8, plasma_image);
temp_image.save_image("test16_alpha_0.8.bmp");
temp_image = image;
temp_image.alpha_blend(0.9, plasma_image);
temp_image.save_image("test16_alpha_0.9.bmp");
}
bool MonitorStream::sendFrame(const char *filepath, struct timeval *timestamp) {
bool send_raw = ((scale>=ZM_SCALE_BASE)&&(zoom==ZM_SCALE_BASE));
if ( type != STREAM_JPEG )
send_raw = false;
if ( !config.timestamp_on_capture && timestamp )
send_raw = false;
if ( !send_raw ) {
Image temp_image(filepath);
return sendFrame(&temp_image, timestamp);
} else {
int img_buffer_size = 0;
static unsigned char img_buffer[ZM_MAX_IMAGE_SIZE];
FILE *fdj = NULL;
if ( (fdj = fopen(filepath, "r")) ) {
img_buffer_size = fread(img_buffer, 1, sizeof(img_buffer), fdj);
fclose(fdj);
} else {
Error("Can't open %s: %s", filepath, strerror(errno));
return false;
}
// Calculate how long it takes to actually send the frame
struct timeval frameStartTime;
gettimeofday(&frameStartTime, NULL);
fputs("--ZoneMinderFrame\r\nContent-Type: image/jpeg\r\n\r\n", stdout );
fprintf(stdout, "Content-Length: %d\r\n", img_buffer_size);
if ( fwrite(img_buffer, img_buffer_size, 1, stdout) != 1 ) {
if ( ! zm_terminate )
Warning("Unable to send stream frame: %s", strerror(errno));
return false;
}
fputs("\r\n\r\n", stdout);
fflush(stdout);
struct timeval frameEndTime;
gettimeofday(&frameEndTime, NULL);
int frameSendTime = tvDiffMsec(frameStartTime, frameEndTime);
if ( frameSendTime > 1000/maxfps ) {
maxfps /= 2;
Info("Frame send time %d msec too slow, throttling maxfps to %.2f", frameSendTime, maxfps);
}
last_frame_sent = TV_2_FLOAT(now);
return true;
}
return false;
} // end bool MonitorStream::sendFrame(const char *filepath, struct timeval *timestamp)
inline void test15()
{
bitmap_image image("image.bmp");
double c1 = 0.9;
double c2 = 0.5;
double c3 = 0.3;
double c4 = 0.7;
bitmap_image plasma_image(image.width(),image.height());
plasma(plasma_image,0,0,plasma_image.width(),plasma_image.height(),c1,c2,c3,c4,3.0,jet_colormap);
bitmap_image temp_image(image);
temp_image.alpha_blend(0.1, plasma_image);
temp_image.save_image("alpha_0.1.bmp");
temp_image = image;
temp_image.alpha_blend(0.2, plasma_image);
temp_image.save_image("alpha_0.2.bmp");
temp_image = image;
temp_image.alpha_blend(0.3, plasma_image);
temp_image.save_image("alpha_0.3.bmp");
temp_image = image;
temp_image.alpha_blend(0.4, plasma_image);
temp_image.save_image("alpha_0.4.bmp");
temp_image = image;
temp_image.alpha_blend(0.5, plasma_image);
temp_image.save_image("alpha_0.5.bmp");
temp_image = image;
temp_image.alpha_blend(0.6, plasma_image);
temp_image.save_image("alpha_0.6.bmp");
temp_image = image;
temp_image.alpha_blend(0.7, plasma_image);
temp_image.save_image("alpha_0.7.bmp");
temp_image = image;
temp_image.alpha_blend(0.8, plasma_image);
temp_image.save_image("alpha_0.8.bmp");
temp_image = image;
temp_image.alpha_blend(0.9, plasma_image);
temp_image.save_image("alpha_0.9.bmp");
}
int Methods::preprocess(Mat *bin_image, vector<Image> *output,int doc) {
Image temp_image(bin_image , 0, bin_image->rows, 0, bin_image->cols,Point2f(0,0));
if (bin_image->channels()> 2){ cvtColor(*bin_image, *bin_image, CV_BGR2GRAY); }
if (doc==1){
adaptiveThreshold(*bin_image, *bin_image, 255, ADAPTIVE_THRESH_MEAN_C, THRESH_BINARY, 51, 45);}
else{
adaptiveThreshold(*bin_image, *bin_image, 255, ADAPTIVE_THRESH_MEAN_C, THRESH_BINARY, 13, 23);
}
int sensitivity = 4;
CropImage(&temp_image, sensitivity);
if (temp_image.x_right < 10 || temp_image.y_lower < 10){ return 0; }
resize(*bin_image, *bin_image, Size(200, 100), 0, 0);
//rotate here and then resize--1-11-2015
// signAlign(*bin_image);
temp_image.y_lower = 100;
temp_image.x_right = 200;
temp_image.y_upper = 0;
temp_image.x_left = 0;
temp_image.imgCOG = calculateCOG(&temp_image);
sampleCOG = temp_image.imgCOG;
output->push_back(temp_image);
return 1;
}
std::vector<Vector3f> Retexture::applyGaussianFilter(std::vector<Vector3f> inpainted, int width, int height, int frosty)
{
std::vector<Vector3f> temp_image (width * height);
std::fill(temp_image.begin(), temp_image.end(), Vector3f(0, 0, 0));
double total_weight;
double val;
if (!frosty) {
// Not doin it
return inpainted;
}
// Create the kernel
double sigma = m_frosty;
double s = sigma * 3;
double kernel[(int) ((s * 2) + 1)];
double coefficient = 1 / (sigma * sqrt(2 * M_PI));
double exponent;
double x;
double gaussian;
for (int i = 0; i < (2 * sigma * 3) + 1; ++i)
{
x = fabs(s - i);
exponent = (-1 * x * x) / (2 * sigma * sigma);
gaussian = coefficient * pow(M_E, exponent);
kernel[i] = gaussian;
}
// Changing bounds so don't have to deal with edges now
for (int i = 0; i < width; i++) {
for (int j = 0; j < height; j++) {
val = 0;
total_weight = 0;
int index1D = width*j + i;
for (int dx = -s; dx <= s; dx++) {
if (dx+i >= 0 && dx+i < width) {
int origIndex = width * j + (i + dx);
temp_image[index1D] += (inpainted[origIndex] * kernel[(int) (dx+s)]);
total_weight += kernel[(int) (dx+s)];
}
}
temp_image[index1D] = temp_image[index1D] / total_weight;
//std::cout << temp_image[index1D] << std::endl;
}
}
std::vector<Vector3f> temp_image2 (width * height);
std::fill(temp_image2.begin(), temp_image2.end(), Vector3f(0, 0, 0));
// Changing bounds so don't have to deal with edges now
for (int i = 0; i < width; i++) {
for (int j = 0; j < height; j++) {
val = 0;
total_weight = 0;
int index1D = width*j + i;
for (int dy = -s; dy <= s; dy++) {
if (dy+j >= 0 && dy+j < height) {
int origIndex = width*(j+dy) + i;
temp_image2[index1D] += (temp_image[origIndex] * kernel[(int) (dy+s)]);
total_weight += kernel[(int) (dy+s)];
}
}
temp_image2[index1D] = (temp_image2[index1D] / total_weight);//Vector3f(Vector3f(0.7, 0.4, 0.4).array() * (temp_image2[index1D] / total_weight).array());
}
}
return temp_image2;
}
DCStatus DataCleaner::scan_alimages(const char* path, int dir_id)
{
DIR *root_dp;
struct dirent *d_info;
struct stat d_stat;
if ((root_dp = opendir(path)) == NULL)
{
cout<<"DataCleaner::scan_alimages: Open directory failed"<<endl;
return DC_FAILED;
}
while((d_info = readdir(root_dp)) != 0)
{
if (!strcmp(d_info->d_name, ".") || (!strcmp(d_info->d_name, "..")))
continue;
string temp_path(path);
temp_path += '/';
temp_path += d_info->d_name;
if (lstat(temp_path.c_str(), &d_stat) < 0)
{
cout<<"DataCleaner::scan_alimages: lstat file failed"<<endl;
return DC_FAILED;
}
else
{
if(S_ISREG(d_stat.st_mode))
{
if (dir_id == -1)
{
cout<<"wrong root dir"<<endl;
return DC_FAILED;
}
string temp_image(d_info->d_name);
this->images_[dir_id].push_back(temp_image);
}
else if (S_ISDIR(d_stat.st_mode))
{
string temp_image_dir(d_info->d_name);
this->next_dir_id_++;
this->image_dir_.push_back(make_pair(this->next_dir_id_,temp_image_dir));
vector<string> new_dir;
vector<ImgFeature*> new_feature_dir;
vector<int> new_representative_dir;
this->images_.push_back(new_dir);
this->image_features_.push_back(new_feature_dir);
this->image_representative_.push_back(new_representative_dir);
if (scan_alimages(temp_path.c_str(),this->next_dir_id_) != DC_SUCCESS)
{
return DC_FAILED;
}
}
else
{
cout<<"DataCleaner::scan_files: Wrong type file"<<endl;
}
}
}
closedir(root_dp);
return DC_SUCCESS;
}