void LabicCV::saveFrame() {
RGBDImage tmp;
while (!kinect->grabRGBDImage(tmp)) {}
dinfo << "[LabicCV] Pushed frame " << tmp.timestamp() << " to queue" << endl;
queue.push(tmp);
ddebug << queue << endl;
}
void get_calibrated_kinect_corners(const QDir& image_dir,
const QStringList& view_list,
RGBDCalibration& calibration,
RGBDProcessor& processor,
std::vector< std::vector<Point2f> >& output_corners)
{
std::vector< std::vector<Point2f> > good_corners;
output_corners.resize(view_list.size());
for (int i_image = 0; i_image < view_list.size(); ++i_image)
{
QString filename = view_list[i_image];
QDir cur_image_dir (image_dir.absoluteFilePath(filename));
RGBDImage image;
image.loadFromDir(cur_image_dir.absolutePath().toStdString(), &calibration, &processor);
std::vector<Point2f> current_view_corners;
calibrationCorners(filename.toStdString(), "corners",
global::opt_pattern_width(), global::opt_pattern_height(),
current_view_corners, image.rgb(), 1,
global::pattern_type);
if (current_view_corners.size() == global::opt_pattern_height()*global::opt_pattern_width())
{
output_corners[i_image] = current_view_corners;
show_corners(image.rgb(), current_view_corners, 1);
}
else
{
ntk_dbg(0) << "Warning: corners not detected";
output_corners[i_image].resize(0);
}
}
}
void filterColor(const RGBDImage& img, vector<Mat>& hsvs,
Mat1b& result, cv::Point3f upleft, cv::Point2f fudge,
int hue_from, int hue_to,
int sat_from, int sat_to,
int val_from, int val_to) {
const Mat1f& depth = img.depth();
const Mat1b& mask = img.depthMask();
const Mat& rgb = img.rgb();
const RGBDCalibration* calib = img.calibration();
if (!calib || upleft.y > rgb.rows || upleft.x > rgb.cols) return;
int wid = result.cols * STEP_SIZE, ht = result.rows * STEP_SIZE;
cv::Range rslice(upleft.y - fudge.y, upleft.y + ht + fudge.y),
cslice(upleft.x - fudge.x, upleft.x + wid + fudge.x);
rslice.start = max(0, rslice.start);
rslice.end = min(rgb.rows, rslice.end);
cslice.start = max(0, cslice.start);
cslice.end = min(rgb.cols, cslice.end);
//printf("%i %i %i %i\n", rslice.start, rslice.end, cslice.start, cslice.end);
if (hsvs.size() == 0) {
Mat sliced_rgb(rgb, rslice, cslice);
Mat hsv;
cvtColor(sliced_rgb, hsv, CV_BGR2HSV);
split(hsv, hsvs);
}
const Pose3D* rgb_pose = calib->rgb_pose;
const Pose3D* depth_pose = calib->depth_pose;
for (int r = 0; r < result.rows; r++)
for (int c = 0; c < result.cols; c++) {
int x = c * STEP_SIZE + upleft.x;
int y = r * STEP_SIZE + upleft.y;
if (mask(y, x) == 0) continue;
// Calculate rgb location for this particular depth element.
double dv = depth(y, x);
Point3f pu = depth_pose->unprojectFromImage(Point2f(x, y), dv);
Point3f prgb = rgb_pose->projectToImage(pu);
int i_x = ntk::math::rnd(prgb.x) - cslice.start;
int i_y = ntk::math::rnd(prgb.y) - rslice.start;
if (is_yx_in_range(hsvs[0], i_y, i_x)) {
uchar hue = hsvs[0].at<uchar>(i_y, i_x);
uchar sat = hsvs[1].at<uchar>(i_y, i_x);
uchar val = hsvs[2].at<uchar>(i_y, i_x);
result.at<bool>(r, c) =
( ((hue_from > hue_to) && ((hue > hue_from) || (hue < hue_to)))
|| ((hue_from < hue_to) && ((hue > hue_from) && (hue < hue_to))))
&& sat > sat_from && sat < sat_to && val > val_from && val < val_to;
}
}
}
std::string RGBDFrameRecorder :: getNextFrameDirectory(const RGBDImage& image) const
{
std::string path = m_dir.absolutePath().toStdString();
if (m_include_serial)
path += "/" + image.cameraSerial();
path += format("/view%04d", m_frame_index);
if (m_include_timestamp)
path += format("-%f", image.timestamp());
return path;
}
void clipNear(RGBDImage& img) {
Mat1f& depth = img.depthRef();
Mat1b& mask = img.depthMaskRef();
double minVal, maxVal;
Point minLoc, maxLoc;
minMaxLoc(depth, &minVal, &maxVal, &minLoc, &maxLoc, mask);
Mat lt;
compare(depth, minVal + 1.0, lt, CMP_LT);
bitwise_and(mask, lt, mask);
}
int main(int argc, char **argv)
{
// Parse command line options.
arg_base::set_help_option("-h");
arg_parse(argc, argv);
// Set debug level to 1.
ntk::ntk_debug_level = 1;
// Set current directory to application directory.
// This is to find Nite config in config/ directory.
QApplication app (argc, argv);
QDir::setCurrent(QApplication::applicationDirPath());
// Declare the global OpenNI driver. Only one can be instantiated in a program.
OpenniDriver ni_driver;
// Declare the frame grabber.
OpenniGrabber grabber(ni_driver, opt::kinect_id());
// High resolution 1280x1024 RGB Image.
if (opt::high_resolution())
grabber.setHighRgbResolution(true);
// Start the grabber.
grabber.connectToDevice();
grabber.start();
// Holder for the current image.
RGBDImage image;
// Image post processor. Compute mappings when RGB resolution is 1280x1024.
OpenniRGBDProcessor post_processor;
// Wait for a new frame, get a local copy and postprocess it.
grabber.waitForNextFrame();
grabber.copyImageTo(image);
post_processor.processImage(image);
ntk_ensure(image.calibration(), "Uncalibrated rgbd image, cannot project to 3D!");
// Generate a mesh out of the rgbd image.
MeshGenerator generator;
generator.setUseColor(true);
generator.setMeshType(MeshGenerator::PointCloudMesh);
generator.generate(image, *image.calibration()->depth_pose, *image.calibration()->rgb_pose);
// Save the grabber mesh to a ply file.
ntk_dbg(0) << "Saving mesh file to output.ply...";
generator.mesh().saveToPlyFile("output.ply");
grabber.stop();
}
int main(int argc, char **argv)
{
// Parse command line options.
arg_base::set_help_option("-h");
arg_parse(argc, argv);
// Set debug level to 1.
ntk::ntk_debug_level = 1;
// Set current directory to application directory.
// This is to find Nite config in config/ directory.
QApplication app (argc, argv);
QDir::setCurrent(QApplication::applicationDirPath());
// Declare the grabber.
SoftKineticIisuGrabber grabber;
// Start the grabber.
grabber.connectToDevice();
grabber.start();
// Holder for the current image.
RGBDImage image;
namedWindow("depth");
namedWindow("color");
char last_c = 0;
while (true && (last_c != 27))
{
// Wait for a new frame, get a local copy and postprocess it.
grabber.waitForNextFrame();
grabber.copyImageTo(image);
// Prepare the depth view.
cv::Mat1b debug_depth_img = normalize_toMat1b(image.rawDepth());
// Prepare the color view with skeleton and handpoint.
cv::Mat3b debug_color_img;
image.rawRgb().copyTo(debug_color_img);
imshow("depth", debug_depth_img);
imshow("color", debug_color_img);
last_c = (cv::waitKey(10) & 0xff);
}
grabber.stop();
}
void MeshGenerator :: generate(const RGBDImage& image,
const Pose3D& depth_pose,
const Pose3D& rgb_pose)
{
const Pose3D& real_depth_pose = depth_pose.isValid() ? depth_pose : *(image.calibration()->depth_pose);
const Pose3D& real_rgb_pose = rgb_pose.isValid() ? rgb_pose : *(image.calibration()->rgb_pose);
switch (m_mesh_type)
{
case TriangleMesh:
return generateTriangleMesh(image, real_depth_pose, real_rgb_pose);
case PointCloudMesh:
return generatePointCloudMesh(image, real_depth_pose, real_rgb_pose);
case SurfelsMesh:
return generateSurfelsMesh(image, real_depth_pose, real_rgb_pose);
}
}
void RelativePoseEstimatorFromRgbFeatures::setTargetImage(const RGBDImage &image)
{
ntk_ensure(image.calibration(), "Image must be calibrated.");
m_target_image = ℑ
if (!m_target_pose.isValid())
{
m_target_pose = *m_target_image->calibration()->depth_pose;
}
m_target_features = toPtr(new FeatureSet);
}
void MeshGenerator :: generatePointCloudMesh(const RGBDImage& image,
const Pose3D& depth_pose,
const Pose3D& rgb_pose)
{
m_mesh.clear();
m_mesh.vertices.reserve(image.depth().rows*image.depth().cols);
m_mesh.colors.reserve(image.depth().rows*image.depth().cols);
m_mesh.normals.reserve(image.depth().rows*image.depth().cols);
const cv::Mat1f& depth_im = image.depth();
const cv::Mat1b& mask_im = image.depthMask();
cv::Mat3f voxels (depth_im.size());
cv::Mat3f rgb_points (depth_im.size());
cv::Mat1b subsample_mask(mask_im.size());
subsample_mask = 0;
for (float r = 0; r < subsample_mask.rows-1; r += 1.0/m_resolution_factor)
for (float c = 0; c < subsample_mask.cols-1; c += 1.0/m_resolution_factor)
subsample_mask(ntk::math::rnd(r),ntk::math::rnd(c)) = 1;
subsample_mask = mask_im & subsample_mask;
depth_pose.unprojectFromImage(depth_im, subsample_mask, voxels);
if (m_use_color && image.hasRgb())
rgb_pose.projectToImage(voxels, subsample_mask, rgb_points);
for (int r = 0; r < voxels.rows; ++r)
{
Vec3f* voxels_data = voxels.ptr<Vec3f>(r);
const uchar* mask_data = subsample_mask.ptr<uchar>(r);
for (int c = 0; c < voxels.cols; ++c)
{
if (!mask_data[c])
continue;
Vec3b color (0,0,0);
if (m_use_color)
{
Point3f prgb = rgb_points(r,c);
int i_y = ntk::math::rnd(prgb.y);
int i_x = ntk::math::rnd(prgb.x);
if (is_yx_in_range(image.rgb(), i_y, i_x))
{
Vec3b bgr = image.rgb()(i_y, i_x);
color = Vec3b(bgr[2], bgr[1], bgr[0]);
}
}
else
{
int g = 0;
if (image.intensity().data)
g = image.intensity()(r,c);
else
g = 255 * voxels_data[c][2] / 10.0;
color = Vec3b(g,g,g);
}
m_mesh.vertices.push_back(voxels_data[c]);
m_mesh.colors.push_back(color);
}
}
}
void MeshGenerator :: generateTriangleMesh(const RGBDImage& image,
const Pose3D& depth_pose,
const Pose3D& rgb_pose)
{
const Mat1f& depth_im = image.depth();
const Mat1b& mask_im = image.depthMask();
m_mesh.clear();
if (m_use_color)
image.rgb().copyTo(m_mesh.texture);
else if (image.intensity().data)
toMat3b(normalize_toMat1b(image.intensity())).copyTo(m_mesh.texture);
else
{
m_mesh.texture.create(depth_im.size());
m_mesh.texture = Vec3b(255,255,255);
}
m_mesh.vertices.reserve(depth_im.cols*depth_im.rows);
m_mesh.texcoords.reserve(depth_im.cols*depth_im.rows);
m_mesh.colors.reserve(depth_im.cols*depth_im.rows);
Mat1i vertice_map(depth_im.size());
vertice_map = -1;
for_all_rc(depth_im)
{
if (!mask_im(r,c))
continue;
double depth = depth_im(r,c);
Point3f p3d = depth_pose.unprojectFromImage(Point3f(c,r,depth));
Point3f p2d_rgb;
Point2f texcoords;
if (m_use_color)
{
p2d_rgb = rgb_pose.projectToImage(p3d);
texcoords = Point2f(p2d_rgb.x/image.rgb().cols, p2d_rgb.y/image.rgb().rows);
}
else
{
p2d_rgb = Point3f(c,r,depth);
texcoords = Point2f(p2d_rgb.x/image.intensity().cols, p2d_rgb.y/image.intensity().rows);
}
vertice_map(r,c) = m_mesh.vertices.size();
m_mesh.vertices.push_back(p3d);
// m_mesh.colors.push_back(bgr_to_rgb(im.rgb()(p2d_rgb.y, p2d_rgb.x)));
m_mesh.texcoords.push_back(texcoords);
}
for_all_rc(vertice_map)
{
if (vertice_map(r,c) < 0)
continue;
if ((c < vertice_map.cols - 1) && (r < vertice_map.rows - 1) &&
(vertice_map(r+1,c)>=0) && (vertice_map(r,c+1) >= 0) &&
(std::abs(depth_im(r,c) - depth_im(r+1, c)) < m_max_delta_depth) &&
(std::abs(depth_im(r,c) - depth_im(r, c+1)) < m_max_delta_depth))
{
Face f;
f.indices[2] = vertice_map(r,c);
f.indices[1] = vertice_map(r,c+1);
f.indices[0] = vertice_map(r+1,c);
m_mesh.faces.push_back(f);
}
if ((c > 0) && (r < vertice_map.rows - 1) &&
(vertice_map(r+1,c)>=0) && (vertice_map(r+1,c-1) >= 0) &&
(std::abs(depth_im(r,c) - depth_im(r+1, c)) < m_max_delta_depth) &&
(std::abs(depth_im(r,c) - depth_im(r+1, c-1)) < m_max_delta_depth))
{
Face f;
f.indices[2] = vertice_map(r,c);
f.indices[1] = vertice_map(r+1,c);
f.indices[0] = vertice_map(r+1,c-1);
m_mesh.faces.push_back(f);
}
}
m_mesh.computeNormalsFromFaces();
}
void MeshGenerator :: generateSurfelsMesh(const RGBDImage& image,
const Pose3D& depth_pose,
const Pose3D& rgb_pose)
{
double min_val = 0, max_val = 0;
if (image.amplitude().data)
minMaxLoc(image.amplitude(), &min_val, &max_val);
m_mesh.clear();
const cv::Mat1f& depth_im = image.depth();
const cv::Mat1b& mask_im = image.depthMask();
for_all_rc(depth_im)
{
int i_r = r;
int i_c = c;
if (!is_yx_in_range(depth_im, i_r, i_c))
continue;
if (!mask_im(r,c))
continue;
double depth = depth_im(i_r,i_c);
cv::Point3f p = depth_pose.unprojectFromImage(Point2f(c,r), depth);
Point3f normal = image.normal().data ? image.normal()(i_r, i_c) : Vec3f(0,0,1);
Vec3b color (0,0,0);
if (m_use_color)
{
cv::Point3f prgb = rgb_pose.projectToImage(p);
int i_y = ntk::math::rnd(prgb.y);
int i_x = ntk::math::rnd(prgb.x);
if (is_yx_in_range(image.rgb(), i_y, i_x))
{
Vec3b bgr = image.rgb()(i_y, i_x);
color = Vec3b(bgr[2], bgr[1], bgr[0]);
}
}
else
{
int g = 0;
if (image.amplitude().data)
g = 255.0 * (image.amplitude()(i_r,i_c) - min_val) / (max_val-min_val);
else
g = 255 * depth / 10.0;
color = Vec3b(g,g,g);
}
Surfel s;
s.color = color;
s.confidence = 0;
s.location = p;
s.normal = normal;
s.n_views = 1;
double normal_z = std::max(normal.z, 0.5f);
s.radius = m_resolution_factor * ntk::math::sqrt1_2 * depth
/ (depth_pose.focalX() * normal_z);
m_mesh.addSurfel(s);
}
}
bool SurfelsRGBDModeler :: addNewView(const RGBDImage& image_, Pose3D& depth_pose)
{
ntk::TimeCount tc("SurfelsRGBDModeler::addNewView", 1);
const float max_camera_normal_angle = ntk::deg_to_rad(90);
RGBDImage image;
image_.copyTo(image);
if (!image_.normal().data)
{
OpenniRGBDProcessor processor;
processor.computeNormalsPCL(image);
}
Pose3D rgb_pose = depth_pose;
rgb_pose.toRightCamera(image.calibration()->rgb_intrinsics, image.calibration()->R, image.calibration()->T);
Pose3D world_to_camera_normal_pose;
world_to_camera_normal_pose.applyTransformBefore(cv::Vec3f(0,0,0), depth_pose.cvEulerRotation());
Pose3D camera_to_world_normal_pose = world_to_camera_normal_pose;
camera_to_world_normal_pose.invert();
const Mat1f& depth_im = image.depth();
Mat1b covered_pixels (depth_im.size());
covered_pixels = 0;
std::list<Surfel> surfels_to_reinsert;
// Surfel updating.
for (SurfelMap::iterator next_it = m_surfels.begin(); next_it != m_surfels.end(); )
{
SurfelMap::iterator surfel_it = next_it;
++next_it;
Surfel& surfel = surfel_it->second;
if (!surfel.enabled())
continue;
Point3f surfel_2d = depth_pose.projectToImage(surfel.location);
bool surfel_deleted = false;
int r = ntk::math::rnd(surfel_2d.y);
int c = ntk::math::rnd(surfel_2d.x);
int d = ntk::math::rnd(surfel_2d.z);
if (!is_yx_in_range(depth_im, r, c)
|| !image.depthMask()(r, c)
|| !image.isValidNormal(r,c))
continue;
const float update_max_dist = getCompatibilityDistance(depth_im(r,c));
Vec3f camera_normal = image.normal()(r, c);
normalize(camera_normal);
Vec3f world_normal = camera_to_world_normal_pose.cameraTransform(camera_normal);
normalize(world_normal);
Vec3f eyev = camera_eye_vector(depth_pose, r, c);
double camera_angle = acos(camera_normal.dot(-eyev));
if (camera_angle > max_camera_normal_angle)
continue;
float normal_angle = acos(world_normal.dot(surfel.normal));
// Surfels have different normals, maybe two different faces of the same object.
if (normal_angle > (m_update_max_normal_angle*M_PI/180.0))
{
// Removal check. If a surfel has a different normal and is closer to the camera
// than the new scan, remove it.
if ((-surfel_2d.z) < depth_im(r,c) && surfel.n_views < 3)
{
m_surfels.erase(surfel_it);
surfel_deleted = true;
}
continue;
}
// If existing surfel is far from new depth value:
// - If existing one had a worst point of view, and was seen only once, remove it.
// - Otherwise do not include the new one.
if (std::abs(surfel_2d.z - depth_im(r,c)) > update_max_dist)
{
if (surfel.min_camera_angle > camera_angle && surfel.n_views < 3)
{
m_surfels.erase(surfel_it);
surfel_deleted = true;
}
else
covered_pixels(r,c) = 1;
continue;
}
// Compatible surfel found.
const float depth = depth_im(r,c) + m_global_depth_offset;
Point3f p3d = depth_pose.unprojectFromImage(Point2f(c,r), depth);
cv::Vec3b rgb_color = bgr_to_rgb(image.mappedRgb()(r, c));
Surfel image_surfel;
image_surfel.location = p3d;
image_surfel.normal = world_normal;
image_surfel.color = rgb_color;
image_surfel.min_camera_angle = camera_angle;
image_surfel.n_views = 1;
image_surfel.radius = computeSurfelRadius(depth, camera_normal[2], depth_pose.meanFocal());
mergeToLeftSurfel(surfel, image_surfel);
covered_pixels(r,c) = 1;
// needs to change the cell?
Cell new_cell = worldToCell(surfel.location);
if (new_cell != surfel_it->first)
{
surfels_to_reinsert.push_back(surfel);
m_surfels.erase(surfel_it);
}
}
foreach_const_it(it, surfels_to_reinsert, std::list<Surfel>)
{
Cell new_cell = worldToCell(it->location);
m_surfels.insert(std::make_pair(new_cell, *it));
}
LabelImage RandomForestImage::predict(const RGBDImage& image,
cuv::ndarray<float, cuv::host_memory_space>* probabilities, const bool onGPU, bool useDepthImages) const {
LabelImage prediction(image.getWidth(), image.getHeight());
const LabelType numClasses = getNumClasses();
if (treeData.size() != ensemble.size()) {
throw std::runtime_error((boost::format("tree data size: %d, ensemble size: %d. histograms normalized?")
% treeData.size() % ensemble.size()).str());
}
cuv::ndarray<float, cuv::host_memory_space> hostProbabilities(
cuv::extents[numClasses][image.getHeight()][image.getWidth()],
m_predictionAllocator);
if (onGPU) {
cuv::ndarray<float, cuv::dev_memory_space> deviceProbabilities(
cuv::extents[numClasses][image.getHeight()][image.getWidth()],
m_predictionAllocator);
cudaSafeCall(cudaMemset(deviceProbabilities.ptr(), 0, static_cast<size_t>(deviceProbabilities.size() * sizeof(float))));
{
utils::Profile profile("classifyImagesGPU");
for (const boost::shared_ptr<const TreeNodes>& data : treeData) {
classifyImage(treeData.size(), deviceProbabilities, image, numClasses, data, useDepthImages);
}
}
normalizeProbabilities(deviceProbabilities);
cuv::ndarray<LabelType, cuv::dev_memory_space> output(image.getHeight(), image.getWidth(),
m_predictionAllocator);
determineMaxProbabilities(deviceProbabilities, output);
hostProbabilities = deviceProbabilities;
cuv::ndarray<LabelType, cuv::host_memory_space> outputHost(image.getHeight(), image.getWidth(),
m_predictionAllocator);
outputHost = output;
{
utils::Profile profile("setLabels");
for (int y = 0; y < image.getHeight(); ++y) {
for (int x = 0; x < image.getWidth(); ++x) {
prediction.setLabel(x, y, static_cast<LabelType>(outputHost(y, x)));
}
}
}
} else {
utils::Profile profile("classifyImagesCPU");
tbb::parallel_for(tbb::blocked_range<size_t>(0, image.getHeight()),
[&](const tbb::blocked_range<size_t>& range) {
for(size_t y = range.begin(); y != range.end(); y++) {
for(int x=0; x < image.getWidth(); x++) {
for (LabelType label = 0; label < numClasses; label++) {
hostProbabilities(label, y, x) = 0.0f;
}
for (const auto& tree : ensemble) {
const auto& t = tree->getTree();
PixelInstance pixel(&image, 0, x, y);
const auto& hist = t->classifySoft(pixel);
assert(hist.size() == numClasses);
for(LabelType label = 0; label<hist.size(); label++) {
hostProbabilities(label, y, x) += hist[label];
}
}
double sum = 0.0f;
for (LabelType label = 0; label < numClasses; label++) {
sum += hostProbabilities(label, y, x);
}
float bestProb = -1.0f;
for (LabelType label = 0; label < numClasses; label++) {
hostProbabilities(label, y, x) /= sum;
float prob = hostProbabilities(label, y, x);
if (prob > bestProb) {
prediction.setLabel(x, y, label);
bestProb = prob;
}
}
}
}
});
}
if (probabilities) {
*probabilities = hostProbabilities;
}
return prediction;
}
void calibrate_kinect_depth(std::vector< DepthCalibrationPoint >& depth_values)
{
std::vector< std::vector<Point3f> > pattern_points;
calibrationPattern(pattern_points,
global::opt_pattern_width(), global::opt_pattern_height(), global::opt_square_size(),
global::images_list.size());
for (int i_image = 0; i_image < global::images_list.size(); ++i_image)
{
// Generate depth calibration points
QString filename = global::images_list[i_image];
QDir cur_image_dir (global::images_dir.absoluteFilePath(filename));
std::string full_filename = cur_image_dir.absoluteFilePath("raw/color.png").toStdString();
RGBDImage image;
OpenniRGBDProcessor processor;
processor.setFilterFlag(RGBDProcessorFlags::ComputeMapping, true);
image.loadFromDir(cur_image_dir.absolutePath().toStdString(), &global::calibration, &processor);
imshow_normalized("mapped depth", image.mappedDepth());
imshow("color", image.rgb());
std::vector<Point2f> current_view_corners;
calibrationCorners(full_filename, "corners",
global::opt_pattern_width(), global::opt_pattern_height(),
current_view_corners, image.rgb(), 1, global::pattern_type);
if (current_view_corners.size() != (global::opt_pattern_width()*global::opt_pattern_height()))
{
ntk_dbg(1) << "Corners not detected in " << cur_image_dir.absolutePath().toStdString();
continue;
}
// FIXME: why rvecs and tvecs from calibrateCamera seems to be nonsense ?
// calling findExtrinsics another time to get good chessboard estimations.
cv::Mat1f H;
estimate_checkerboard_pose(pattern_points[0],
current_view_corners,
global::calibration.rgb_intrinsics,
H);
Pose3D pose;
pose.setCameraParametersFromOpencv(global::calibration.rgb_intrinsics);
pose.setCameraTransform(H);
ntk_dbg_print(pose, 1);
cv::Mat3b debug_img;
image.rgb().copyTo(debug_img);
foreach_idx(pattern_i, pattern_points[0])
{
Point3f p = pose.projectToImage(pattern_points[0][pattern_i]);
ntk_dbg_print(p, 1);
float kinect_raw = image.mappedDepth()(p.y, p.x);
ntk_dbg_print(kinect_raw, 1);
if (kinect_raw < 1e-5) continue;
float err = kinect_raw-p.z;
cv::putText(debug_img, format("%d", (int)(err*1000)), Point(p.x, p.y), CV_FONT_NORMAL, 0.4, Scalar(255,0,0));
ntk_dbg_print(pattern_points[0][pattern_i], 1);
ntk_dbg_print(p, 1);
ntk_dbg_print(kinect_raw, 1);
depth_values.push_back(DepthCalibrationPoint(kinect_raw, p.z));
}
imshow("errors", debug_img);
cv::waitKey(0);
}
void RelativePoseEstimatorFromRgbFeatures::setSourceImage(const RGBDImage &image, ntk::Ptr<FeatureSet> features)
{
ntk_ensure(image.calibration(), "Image must be calibrated.");
super::setSourceImage(image);
m_source_features = features;
}
bool RelativePoseEstimatorICP :: estimateNewPose(const RGBDImage& image)
{
if (m_ref_cloud.points.size() < 1)
{
ntk_dbg(1) << "Reference cloud was empty";
return false;
}
PointCloud<PointXYZ>::Ptr target = m_ref_cloud.makeShared();
PointCloud<PointXYZ>::Ptr source (new PointCloud<PointXYZ>());
rgbdImageToPointCloud(*source, image);
PointCloud<PointXYZ>::Ptr filtered_source (new PointCloud<PointXYZ>());
PointCloud<PointXYZ>::Ptr filtered_target (new PointCloud<PointXYZ>());
pcl::VoxelGrid<pcl::PointXYZ> grid;
grid.setLeafSize (m_voxel_leaf_size, m_voxel_leaf_size, m_voxel_leaf_size);
grid.setInputCloud(source);
grid.filter(*filtered_source);
grid.setInputCloud(target);
grid.filter(*filtered_target);
PointCloud<PointXYZ> cloud_reg;
IterativeClosestPoint<PointXYZ, PointXYZ> reg;
reg.setMaximumIterations (m_max_iterations);
reg.setTransformationEpsilon (1e-5);
reg.setMaxCorrespondenceDistance (m_distance_threshold);
reg.setInputCloud (filtered_source);
reg.setInputTarget (filtered_target);
reg.align (cloud_reg);
if (!reg.hasConverged())
{
ntk_dbg(1) << "ICP did not converge, ignoring.";
return false;
}
Eigen::Matrix4f t = reg.getFinalTransformation ();
cv::Mat1f T(4,4);
//toOpencv(t,T);
for (int r = 0; r < 4; ++r)
for (int c = 0; c < 4; ++c)
T(r,c) = t(r,c);
Pose3D icp_pose;
icp_pose.setCameraTransform(T);
ntk_dbg_print(icp_pose.cvTranslation(), 1);
// Pose3D stores the transformation from 3D space to image.
// So we have to invert everything so that unprojecting from
// image to 3D gives the right transformation.
// H2' = ICP * H1'
m_current_pose.resetCameraTransform();
m_current_pose = *image.calibration()->depth_pose;
m_current_pose.invert();
m_current_pose.applyTransformAfter(icp_pose);
m_current_pose.invert();
return true;
}
void RGBDFrameRecorder :: writeFrame(const RGBDImage& image, const std::string& frame_dir)
{
std::string raw_frame_dir = format("%s/raw", frame_dir.c_str(), m_frame_index);
QDir dir (frame_dir.c_str());
dir.mkpath("raw");
std::string filename;
if (m_save_rgb_pose && image.calibration())
{
filename = cv::format("%s/rgb_pose.avs", frame_dir.c_str());
image.rgbPose().saveToAvsFile(filename.c_str());
}
if (!m_only_raw)
{
filename = cv::format("%s/color.png", frame_dir.c_str());
imwrite(filename, image.rgb());
}
if (m_save_pcl_point_cloud)
{
filename = cv::format("%s/cloud.pcd", frame_dir.c_str());
#ifdef NESTK_USE_PCL
pcl::PointCloud<pcl::PointXYZ> cloud;
rgbdImageToPointCloud(cloud, image);
pcl::io::savePCDFileASCII(filename.c_str(), cloud);
#endif
}
if (m_use_compressed_format)
filename = cv::format("%s/raw/color.png", frame_dir.c_str());
else
filename = cv::format("%s/raw/color.bmp", frame_dir.c_str());
imwrite(filename, image.rawRgb());
if (!m_only_raw && image.mappedDepth().data)
{
filename = cv::format("%s/mapped_depth.png", frame_dir.c_str());
imwrite_normalized(filename, image.mappedDepth());
filename = cv::format("%s/mapped_color.png", frame_dir.c_str());
imwrite(filename, image.mappedRgb());
filename = cv::format("%s/depth.yml", frame_dir.c_str());
imwrite_yml(filename, image.mappedDepth());
}
if (!m_only_raw)
{
filename = cv::format("%s/raw/depth.png", frame_dir.c_str());
if (image.rawDepth().data)
imwrite_normalized(filename.c_str(), image.rawDepth());
filename = cv::format("%s/depth.png", frame_dir.c_str());
if (image.depth().data)
imwrite_normalized(filename.c_str(), image.depth());
filename = cv::format("%s/intensity.png", frame_dir.c_str());
if (image.intensity().data)
imwrite_normalized(filename.c_str(), image.intensity());
}
if (image.rawDepth().data)
{
if (m_use_binary_raw)
{
filename = cv::format("%s/raw/depth.raw", frame_dir.c_str());
imwrite_Mat1f_raw(filename.c_str(), image.rawDepth());
}
else
{
filename = cv::format("%s/raw/depth.yml", frame_dir.c_str());
imwrite_yml(filename.c_str(), image.rawDepth());
}
}
if (m_save_intensity && image.rawIntensity().data)
{
if (m_use_binary_raw)
{
filename = cv::format("%s/raw/intensity.raw", frame_dir.c_str());
imwrite_Mat1f_raw(filename.c_str(), image.rawIntensity());
}
else
{
filename = cv::format("%s/raw/intensity.yml", frame_dir.c_str());
imwrite_yml(filename.c_str(), image.rawIntensity());
}
}
if (!m_only_raw)
{
filename = cv::format("%s/raw/amplitude.png", frame_dir.c_str());
if (image.rawAmplitude().data)
imwrite_normalized(filename.c_str(), image.rawAmplitude());
filename = cv::format("%s/amplitude.png", frame_dir.c_str());
if (image.amplitude().data)
imwrite_normalized(filename.c_str(), image.amplitude());
}
if (image.rawAmplitude().data)
{
if (m_use_binary_raw)
{
filename = cv::format("%s/raw/amplitude.raw", frame_dir.c_str());
imwrite_Mat1f_raw(filename.c_str(), image.rawAmplitude());
}
else
{
filename = cv::format("%s/raw/amplitude.yml", frame_dir.c_str());
imwrite_yml(filename.c_str(), image.rawAmplitude());
}
}
}
void RGBDFrameRecorder :: saveCurrentFrame(const RGBDImage& image)
{
std::string frame_dir = format("%s/view%04d", m_dir.absolutePath().toStdString().c_str(), m_frame_index);
std::string raw_frame_dir = format("%s/raw", frame_dir.c_str(), m_frame_index);
QDir dir (frame_dir.c_str());
dir.mkpath("raw");
std::string filename;
if (!m_only_raw)
{
filename = cv::format("%s/color.png", frame_dir.c_str());
imwrite(filename, image.rgb());
}
filename = cv::format("%s/raw/color.png", frame_dir.c_str());
imwrite(filename, image.rawRgb());
if (!m_only_raw && image.mappedDepth().data)
{
filename = cv::format("%s/mapped_depth.png", frame_dir.c_str());
imwrite_normalized(filename, image.mappedDepth());
filename = cv::format("%s/mapped_color.png", frame_dir.c_str());
imwrite(filename, image.mappedRgb());
filename = cv::format("%s/depth.yml", frame_dir.c_str());
imwrite_yml(filename, image.mappedDepth());
}
if (!m_only_raw)
{
filename = cv::format("%s/raw/depth.png", frame_dir.c_str());
if (image.rawDepth().data)
imwrite_normalized(filename.c_str(), image.rawDepth());
filename = cv::format("%s/depth.png", frame_dir.c_str());
if (image.depth().data)
imwrite_normalized(filename.c_str(), image.depth());
filename = cv::format("%s/intensity.png", frame_dir.c_str());
if (image.intensity().data)
imwrite_normalized(filename.c_str(), image.intensity());
}
if (image.rawDepth().data)
{
if (m_use_binary_raw)
{
filename = cv::format("%s/raw/depth.raw", frame_dir.c_str());
imwrite_Mat1f_raw(filename.c_str(), image.rawDepth());
}
else
{
filename = cv::format("%s/raw/depth.yml", frame_dir.c_str());
imwrite_yml(filename.c_str(), image.rawDepth());
}
}
if (image.rawIntensity().data)
{
if (m_use_binary_raw)
{
filename = cv::format("%s/raw/intensity.raw", frame_dir.c_str());
imwrite_Mat1f_raw(filename.c_str(), image.rawIntensity());
}
else
{
filename = cv::format("%s/raw/intensity.yml", frame_dir.c_str());
imwrite_yml(filename.c_str(), image.rawIntensity());
}
}
if (!m_only_raw)
{
filename = cv::format("%s/raw/amplitude.png", frame_dir.c_str());
if (image.rawAmplitude().data)
imwrite_normalized(filename.c_str(), image.rawAmplitude());
filename = cv::format("%s/amplitude.png", frame_dir.c_str());
if (image.amplitude().data)
imwrite_normalized(filename.c_str(), image.amplitude());
}
if (image.rawAmplitude().data)
{
if (m_use_binary_raw)
{
filename = cv::format("%s/raw/amplitude.raw", frame_dir.c_str());
imwrite_Mat1f_raw(filename.c_str(), image.rawAmplitude());
}
else
{
filename = cv::format("%s/raw/amplitude.yml", frame_dir.c_str());
imwrite_yml(filename.c_str(), image.rawAmplitude());
}
}
++m_frame_index;
}
void LabicCV::display() {
Mat depthMat(Size(width, height), CV_8UC3, Scalar(0));
Mat left(cameras, Rect(0, 0, width, height));
Mat right(cameras, Rect(width, 0, width, height));
RGBDImage frame;
uint32_t timestampPrevious = 0;
long long unsigned int clicks = 0;
double fps = 0;
double seconds = 0;
startCapture = !captureHold;
hrclock::time_point first, start, end, lastCap;
dinfo << "[LabicCV] Display started" << endl;
first = lastCap = start = hrclock::now();
do {
kinect->grabRGBDImage(frame);
// Skip redrawing if there was no change
if (frame.timestamp() == timestampPrevious) continue;
generateDepthImage(frame.depth(), depthMat);
frame.rgb().copyTo(left);
depthMat.copyTo(right);
timestampPrevious = frame.timestamp();
// Calculate FPS
end = hrclock::now();
seconds = diffTime(end, start);
if (seconds > 0) fps = clicks++ / seconds;
// If automatic mode is on and can start capture
if (captureInterval > 0 && startCapture) {
seconds = diffTimeMs(end,lastCap);
if (seconds > captureInterval || !savedFrames) {
//ddebug << "difftime for capture in ms: " << seconds << endl;
lastCap = hrclock::now();
if (!savedFrames) first = lastCap;
saveFrame();
savedFrames++;
}
}
ostringstream fps_str;
fps_str << "OpenCV FPS: " << fps;
putText(cameras, fps_str.str(), Point(20,30), CV_FONT_HERSHEY_PLAIN, 1.0f, Scalar::all(0));
processedFrames++;
} while (!*stop);
windowClosed = true;
totalTime = diffTime(lastCap, first);
}
int main(int argc, char **argv)
{
// Parse command line options.
arg_base::set_help_option("-h");
arg_parse(argc, argv);
// Set debug level to 1.
ntk::ntk_debug_level = 1;
// Set current directory to application directory.
// This is to find Nite config in config/ directory.
QApplication app (argc, argv);
QDir::setCurrent(QApplication::applicationDirPath());
// Declare the global OpenNI driver. Only one can be instantiated in a program.
OpenniDriver ni_driver;
// Declare the frame grabber.
OpenniGrabber grabber(ni_driver, opt::kinect_id());
// High resolution 1280x1024 RGB Image.
if (opt::high_resolution())
grabber.setHighRgbResolution(true);
// Use mirrored images.
grabber.setMirrored(true);
// Start the grabber.
grabber.connectToDevice();
grabber.start();
// Holder for the current image.
RGBDImage image;
// Image post processor. Compute mappings when RGB resolution is 1280x1024.
OpenniRGBDProcessor post_processor;
namedWindow("depth");
namedWindow("color");
namedWindow("users");
char last_c = 0;
while (true && (last_c != 27))
{
// Wait for a new frame, get a local copy and postprocess it.
grabber.waitForNextFrame();
grabber.copyImageTo(image);
post_processor.processImage(image);
// Prepare the depth view, with skeleton and handpoint.
cv::Mat1b debug_depth_img = normalize_toMat1b(image.depth());
if (image.skeleton())
image.skeleton()->drawOnImage(debug_depth_img);
// Prepare the color view (mapped to depth frame), with skeleton and handpoint.
cv::Mat3b debug_color_img;
image.mappedRgb().copyTo(debug_color_img);
if (image.skeleton())
image.skeleton()->drawOnImage(debug_color_img);
// Prepare the user mask view as colors.
cv::Mat3b debug_users;
image.fillRgbFromUserLabels(debug_users);
imshow("depth", debug_depth_img);
imshow("color", debug_color_img);
imshow("users", debug_users);
last_c = (cv::waitKey(10) & 0xff);
}
}
int main(int argc, char **argv)
{
// Parse command line options.
arg_base::set_help_option("-h");
arg_parse(argc, argv);
// Set debug level to 1.
ntk::ntk_debug_level = 1;
// Set current directory to application directory.
// This is to find Nite config in config/ directory.
// FIXME: this is disabled for OpenCV QT compatibility.
// QApplication app (argc, argv);
// QDir::setCurrent(QApplication::applicationDirPath());
// Prepare body event listeners.
MyBodyListener body_event_listener;
BodyEventDetector detector;
detector.addListener(&body_event_listener);
// Declare the global OpenNI driver. Only one can be instantiated in a program.
OpenniDriver ni_driver;
// Declare the frame grabber.
OpenniGrabber grabber(ni_driver, opt::kinect_id());
grabber.setBodyEventDetector(&detector);
// High resolution 1280x1024 RGB Image.
if (opt::high_resolution())
grabber.setHighRgbResolution(true);
// Start the grabber.
grabber.connectToDevice();
grabber.start();
// Holder for the current image.
RGBDImage image;
// Image post processor. Compute mappings when RGB resolution is 1280x1024.
OpenniRGBDProcessor post_processor;
namedWindow("depth");
namedWindow("color");
namedWindow("users");
while (true)
{
// Wait for a new frame, get a local copy and postprocess it.
grabber.waitForNextFrame();
grabber.copyImageTo(image);
post_processor.processImage(image);
// Get the last hand point position.
cv::Point3f handpoint = body_event_listener.getLastHandPosInImage();
ntk_dbg_print(handpoint, 1);
// Prepare the depth view, with skeleton and handpoint.
cv::Mat1b debug_depth_img = normalize_toMat1b(image.depth());
if (image.skeleton())
image.skeleton()->drawOnImage(debug_depth_img);
circle(debug_depth_img, Point(handpoint.x, handpoint.y), 5, Scalar(0, 255, 255));
// Prepare the color view, with skeleton and handpoint.
cv::Mat3b debug_color_img;
image.mappedRgb().copyTo(debug_color_img);
if (image.skeleton())
image.skeleton()->drawOnImage(debug_color_img);
circle(debug_color_img, Point(handpoint.x, handpoint.y), 5, Scalar(0, 255, 255));
// Prepare the user mask view as colors.
cv::Mat3b debug_users;
image.fillRgbFromUserLabels(debug_users);
imshow("depth", debug_depth_img);
imshow("color", debug_color_img);
imshow("users", debug_users);
cv::waitKey(10);
}
// return app.exec();
}
int main(int argc, char **argv)
{
// Parse command line options.
arg_base::set_help_option("-h");
arg_parse(argc, argv);
// Set debug level to 1.
ntk::ntk_debug_level = 1;
// Set current directory to application directory.
// This is to find Nite config in config/ directory.
QApplication app (argc, argv);
QDir::setCurrent(QApplication::applicationDirPath());
// Declare the global OpenNI driver. Only one can be instantiated in a program.
OpenniDriver ni_driver;
// Declare the frame grabber.
OpenniGrabber grabber(ni_driver, opt::kinect_id());
// High resolution 1280x1024 RGB Image.
if (opt::high_resolution())
grabber.setHighRgbResolution(true);
// Start the grabber.
grabber.connectToDevice();
grabber.start();
// Holder for the current image.
RGBDImage image;
// Image post processor. Compute mappings when RGB resolution is 1280x1024.
OpenniRGBDProcessor post_processor;
// Wait for a new frame, get a local copy and postprocess it.
grabber.waitForNextFrame();
grabber.copyImageTo(image);
post_processor.processImage(image);
ntk_ensure(image.calibration(), "Uncalibrated rgbd image, cannot project to 3D!");
// Initialize the object modeler.
PointCloud<PointXYZ> cloud;
rgbdImageToPointCloud(cloud, image);
TableObjectDetector<PointXYZ> detector;
detector.setObjectVoxelSize(0.003); // 3 mm voxels.
bool ok = detector.detect(cloud);
ntk_throw_exception_if(!ok, "No cluster detected on a table plane!");
for (int cluster_id = 0; cluster_id < detector.objectClusters().size(); ++cluster_id)
{
TableObjectRGBDModeler modeler;
modeler.feedFromTableObjectDetector(detector, cluster_id);
Pose3D pose = *image.calibration()->depth_pose;
modeler.addNewView(image, pose);
modeler.computeMesh();
modeler.currentMesh().saveToPlyFile(cv::format("object%d.ply", cluster_id).c_str());
}
grabber.stop();
grabber.disconnectFromDevice();
}
void PlaneEstimator :: estimate(RGBDImage& image, Mat1b& plane_points)
{
// Passing from 3D to the optimizer
const cv::Mat3f& normal_image = image.normal();
const cv::Mat1f& distance_image = image.depth();
cv::Mat1b& mask_image = image.depthMaskRef();
cv::Mat1b objfilter;
mask_image.copyTo(objfilter);
plane_points = image.normal().clone();
plane_points = 0;
if (!image.normal().data)
{
ntk_dbg(0) << "WARNING: you must active the normal filter to get plane estimation!";
return;
}
double min[dim];
double max[dim];
int i;
for (i=0;i<dim;i++)
{
max[i] = 1000.0;
min[i] = -1000.0;
}
m_solver.Setup(min,max,DifferentialEvolutionSolver::stBest1Exp,0.8,0.75);
// Early estimation of plane points projecting the normal values
for (int r = 1; r < plane_points.rows-1; ++r)
for (int c = 1; c < plane_points.cols-1; ++c)
{
if (objfilter.data && objfilter(r,c))
{
cv::Vec3f normal = normal_image(r,c);
double prod = normal.dot(m_ref_plane);
if (prod > 0.95)
plane_points(r,c) = 255;
else
plane_points(r,c) = 0;
}
}
// cleaning of the surface very first estimation
dilate(plane_points,plane_points,cv::Mat());
erode(plane_points,plane_points,cv::Mat());
//imwrite("plane-initial.png",plane_points);
std::vector<Point3f>& g = m_solver.planePointsRef();
g.clear();
for (int r = 1; r < plane_points.rows-1; ++r)
for (int c = 1; c < plane_points.cols-1; ++c)
{
if (plane_points(r,c))
{
// possible table member!
Point3f p3d = image.calibration()->depth_pose->unprojectFromImage(Point2f(c,r), distance_image(r,c));
g.push_back(p3d);
}
}
// Calculating...
m_solver.Solve(max_generations);
double *solution = m_solver.Solution();
// Plane normalizer
float suma = solution[0] + solution[1] + solution[2] + solution[3] ;
for (int i = 0; i < 4; i++)
solution[i] = solution[i]/ suma;
ntk::Plane plano (solution[0], solution[1], solution[2], solution[3]);
//Update RGBD object
m_plane.set(solution[0], solution[1], solution[2], solution[3]);
// Final estimation of plane points projecting the normal values
cv::Vec3f diffevolnormal(solution[0], solution[1], solution[2]);
for (int r = 1; r < plane_points.rows-1; ++r)
for (int c = 1; c < plane_points.cols-1; ++c)
{
if (objfilter.data && objfilter(r,c))
{
cv::Vec3f normal = normal_image(r,c);
double prod = normal.dot(diffevolnormal);
if (prod > 0.5)
plane_points(r,c) = 255;
else
plane_points(r,c) = 0;
}
}
// Cleaning of the DE plane-pixels solution
dilate(plane_points,plane_points,cv::Mat());
erode(plane_points,plane_points,cv::Mat());
// imwrite("plane-DE.png",plane_points);
}
LabelImage RandomForestImage::improveHistograms(const RGBDImage& image, const LabelImage& labelImage, const bool onGPU, bool useDepthImages) const {
LabelImage prediction(image.getWidth(), image.getHeight());
const LabelType numClasses = getNumClasses();
if (treeData.size() != ensemble.size()) {
throw std::runtime_error((boost::format("tree data size: %d, ensemble size: %d. histograms normalized?")
% treeData.size() % ensemble.size()).str());
}
cuv::ndarray<float, cuv::host_memory_space> hostProbabilities(
cuv::extents[numClasses][image.getHeight()][image.getWidth()],
m_predictionAllocator);
//These offsets should have been used instead of traversing to the leaf again
/* cuv::ndarray<unsigned int, cuv::dev_memory_space> nodeOffsets(
cuv::extents[image.getHeight()][image.getWidth()],
m_predictionAllocator);
*/
if (onGPU) {
cuv::ndarray<float, cuv::dev_memory_space> deviceProbabilities(
cuv::extents[numClasses][image.getHeight()][image.getWidth()],
m_predictionAllocator);
cudaSafeCall(cudaMemset(deviceProbabilities.ptr(), 0, static_cast<size_t>(deviceProbabilities.size() * sizeof(float))));
{
utils::Profile profile("classifyImagesGPU");
for (const boost::shared_ptr<const TreeNodes>& data : treeData) {
classifyImage(treeData.size(), deviceProbabilities, image, numClasses, data, useDepthImages);
bool found_tree = false;
//should be change to parallel for and add lock
for (size_t treeNr = 0; treeNr < ensemble.size(); treeNr++) {
if (data->getTreeId() == ensemble[treeNr]->getId()) {
found_tree =true;
const boost::shared_ptr<RandomTree<PixelInstance, ImageFeatureFunction> >& tree = ensemble[treeNr]->getTree();
//this should have been used and done before trying to classify the images, since it doesn't change
//std::vector<size_t> leafSet;
//tree->collectLeafNodes(leafSet);
for (int y = 0; y < image.getHeight(); y++)
for (int x = 0; x < image.getWidth(); x++) {
LabelType label = labelImage.getLabel(x,y);
if (!shouldIgnoreLabel(label)) {
PixelInstance pixel(&image, label, x, y);
//This should be changed. When classifying the image, the nodeoffsets should be returned and those used directly
//instead of traversing again to the leaves. As a test, can check if the nodeoffset is the same as the one returned
//by travertoleaf
tree->setAllPixelsHistogram(pixel);
}
}
}
if (found_tree)
break;
}
}
}
}
//should also add the CPU code!
return prediction;
}