static gboolean
set_look_at_smooth_func (BotViewHandler *vhandler)
{
BotDefaultViewHandler *dvh = (BotDefaultViewHandler*) vhandler->user;
gboolean end_timeout = TRUE;
double elapsed_ms = (bot_timestamp_now() - dvh->viewpath_timer_start) * 1e-3;
double time_param = elapsed_ms / dvh->viewpath_duration_ms;
if (time_param >= 1) {
time_param = 1;
end_timeout = FALSE;
}
for (int i=0; i<3; i++) {
dvh->eye[i] = dvh->origin_eye[i] + time_param * (dvh->goal_eye[i] - dvh->origin_eye[i]);
dvh->lookat[i] = dvh->origin_lookat[i] + time_param * (dvh->goal_lookat[i] - dvh->origin_lookat[i]);
dvh->up[i] = dvh->origin_up[i] + time_param * (dvh->goal_up[i] - dvh->origin_up[i]);
}
look_at_changed(dvh);
bot_viewer_request_redraw(dvh->viewer);
return end_timeout;
}
void operator()() {
int publishPeriod = 1.0e6/mPublishFrequency;
bot_core::utime_t msg;
auto lcm = mLcmWrapper->get();
int64_t currentTime, remainingTime;
while (true) {
msg.utime = bot_timestamp_now();
lcm->publish(mOutputChannel, &msg);
currentTime = bot_timestamp_now();
remainingTime = publishPeriod - (currentTime - msg.utime);
if (remainingTime > 0) {
std::this_thread::sleep_for(std::chrono::microseconds(remainingTime));
}
}
}
/* apply the transition update to the belief state
* <dg> is the graph (entire map)
* <cg> is the current gate
*/
void state_transition_update (dijk_graph_t *dg, int radius, double state_sigma)
{
if (!dg) return;
g_state_sigma = state_sigma;
int64_t timestamp = bot_timestamp_now ();
/* reset all pdf to zero */
for (GList *iter=g_queue_peek_head_link(dg->nodes);iter;iter=iter->next) {
dijk_node_t *nd = (dijk_node_t*)iter->data;
nd->pdf0 = .0;
}
/* loop through all nodes */
for (GList *iter=g_queue_peek_head_link(dg->nodes);iter;iter=iter->next) {
dijk_node_t *nd = (dijk_node_t*)iter->data;
// convert to dual tree
GNode *tr = dijk_to_tree (nd, radius);
// convolve with gaussian kernel
double val = .0;
g_node_traverse (tr, G_PRE_ORDER, G_TRAVERSE_ALL, -1, state_transition_convolve_cb, &val);
nd->pdf0 = val;
g_node_destroy (tr);
}
// normalize
double t = .0;
for (GList *iter=g_queue_peek_head_link(dg->nodes);iter;iter=iter->next) {
dijk_node_t *nd = (dijk_node_t*)iter->data;
t += nd->pdf0;
}
if (t > 1E-6) {
for (GList *iter=g_queue_peek_head_link(dg->nodes);iter;iter=iter->next) {
dijk_node_t *nd = (dijk_node_t*)iter->data;
nd->pdf0 /= t;
}
}
}
static void set_look_at_smooth (BotViewHandler *vhandler, const double eye[3], const double lookat[3], const double up[3], double duration_ms)
{
BotDefaultViewHandler *dvh = (BotDefaultViewHandler*) vhandler->user;
dvh->viewpath_duration_ms = duration_ms;
dvh->viewpath_timer_start = bot_timestamp_now();
// get the origin for the view path, and set the goal
vhandler->get_eye_look(vhandler, dvh->origin_eye, dvh->origin_lookat, dvh->origin_up);
memcpy(dvh->goal_eye, eye, 3 * sizeof(double));
memcpy(dvh->goal_lookat, lookat, 3 * sizeof(double));
double up_norm = sqrt(up[0]*up[0] + up[1]*up[1] + up[2]*up[2]);
dvh->goal_up[0] = up[0] / up_norm;
dvh->goal_up[1] = up[1] / up_norm;
dvh->goal_up[2] = up[2] / up_norm;
// memcpy(dvh->goal_up, up, 3 * sizeof(double));
// periodically update the viewpoint until the goal viewpoint is reached
g_timeout_add(30, (GSourceFunc)set_look_at_smooth_func, vhandler);
}
static void on_param_widget_changed(BotGtkParamWidget *pw, const char *name, void *user)
{
RendererFrames *self = (RendererFrames*) user;
if (self->updating) {
return;
}
BotViewer *viewer = self->viewer;
int activeSensorNum = bot_gtk_param_widget_get_enum(pw, PARAM_FRAME_SELECT);
if (!strcmp(name, PARAM_FRAME_SELECT)) {
if (activeSensorNum > 0) {
self->updating = 1;
bot_viewer_set_status_bar_message(self->viewer, "Modify Calibration relative to %s", bot_frames_get_relative_to(
self->frames, self->frameNames[activeSensorNum]));
bot_gtk_param_widget_set_enabled(self->pw, PARAM_X, 1);
bot_gtk_param_widget_set_enabled(self->pw, PARAM_Y, 1);
bot_gtk_param_widget_set_enabled(self->pw, PARAM_Z, 1);
bot_gtk_param_widget_set_enabled(self->pw, PARAM_ROLL, 1);
bot_gtk_param_widget_set_enabled(self->pw, PARAM_PITCH, 1);
bot_gtk_param_widget_set_enabled(self->pw, PARAM_YAW, 1);
bot_gtk_param_widget_set_enabled(self->pw, PARAM_SAVE, 1);
frames_update_handler(self->frames, self->frameNames[activeSensorNum], bot_frames_get_relative_to(self->frames,
self->frameNames[activeSensorNum]), bot_timestamp_now(), self);
}
else {
bot_viewer_set_status_bar_message(self->viewer, "");
bot_gtk_param_widget_set_enabled(self->pw, PARAM_X, 0);
bot_gtk_param_widget_set_enabled(self->pw, PARAM_Y, 0);
bot_gtk_param_widget_set_enabled(self->pw, PARAM_Z, 0);
bot_gtk_param_widget_set_enabled(self->pw, PARAM_ROLL, 0);
bot_gtk_param_widget_set_enabled(self->pw, PARAM_PITCH, 0);
bot_gtk_param_widget_set_enabled(self->pw, PARAM_YAW, 0);
bot_gtk_param_widget_set_enabled(self->pw, PARAM_SAVE, 0);
}
}
else if (!strcmp(name, PARAM_SAVE) && activeSensorNum > 0) {
char save_fname[1024];
sprintf(save_fname, "manual_calib_%s.cfg", self->frameNames[activeSensorNum]);
fprintf(stderr, "saving params to: %s\n", save_fname);
FILE * f = fopen(save_fname, "w");
double pos[3];
pos[0] = bot_gtk_param_widget_get_double(self->pw, PARAM_X);
pos[1] = bot_gtk_param_widget_get_double(self->pw, PARAM_Y);
pos[2] = bot_gtk_param_widget_get_double(self->pw, PARAM_Z);
double rpy[3];
rpy[0] = bot_gtk_param_widget_get_double(self->pw, PARAM_ROLL);
rpy[1] = bot_gtk_param_widget_get_double(self->pw, PARAM_PITCH);
rpy[2] = bot_gtk_param_widget_get_double(self->pw, PARAM_YAW);
double rpy_rad[3];
for (int i = 0; i < 3; i++)
rpy_rad[i] = bot_to_radians(rpy[i]);
double quat[4];
bot_roll_pitch_yaw_to_quat(rpy_rad, quat);
double rod[3];
bot_quat_to_rodrigues(quat, rod);
fprintf(f, ""
"%s {\n"
"position = [%f, %f, %f];\n"
"rpy = [%f, %f, %f];\n"
"relative_to = \"%s\";\n"
"}", self->frameNames[activeSensorNum], pos[0], pos[1], pos[2], rpy[0], rpy[1], rpy[2],
bot_frames_get_relative_to(self->frames, self->frameNames[activeSensorNum]));
fprintf(f, ""
"\n"
"%s {\n"
"position = [%f, %f, %f];\n"
"rodrigues = [%f, %f, %f];\n"
"relative_to = \"%s\";\n"
"}", self->frameNames[activeSensorNum], pos[0], pos[1], pos[2], rod[0], rod[1], rod[2],
bot_frames_get_relative_to(self->frames, self->frameNames[activeSensorNum]));
fclose(f);
bot_viewer_set_status_bar_message(self->viewer, "Calibration saved to %s", save_fname);
}
else if (activeSensorNum > 0) {
self->updating = 1;
BotTrans curr;
curr.trans_vec[0] = bot_gtk_param_widget_get_double(self->pw, PARAM_X);
curr.trans_vec[1] = bot_gtk_param_widget_get_double(self->pw, PARAM_Y);
curr.trans_vec[2] = bot_gtk_param_widget_get_double(self->pw, PARAM_Z);
double rpy[3];
rpy[0] = bot_to_radians(bot_gtk_param_widget_get_double(self->pw, PARAM_ROLL));
rpy[1] = bot_to_radians(bot_gtk_param_widget_get_double(self->pw, PARAM_PITCH));
rpy[2] = bot_to_radians(bot_gtk_param_widget_get_double(self->pw, PARAM_YAW));
bot_roll_pitch_yaw_to_quat(rpy, curr.rot_quat);
if (fabs(rpy[0]) > M_PI || fabs(rpy[1]) > M_PI || fabs(rpy[2]) > M_PI) {
bot_gtk_param_widget_set_double(self->pw, PARAM_ROLL, bot_to_degrees(bot_mod2pi(rpy[0])));
bot_gtk_param_widget_set_double(self->pw, PARAM_PITCH, bot_to_degrees(bot_mod2pi(rpy[1])));
bot_gtk_param_widget_set_double(self->pw, PARAM_YAW, bot_to_degrees(bot_mod2pi(rpy[2])));
}
//and update the link
const char * frame_name = self->frameNames[activeSensorNum];
const char * relative_to = bot_frames_get_relative_to(self->frames, frame_name);
bot_frames_update_frame(self->frames, frame_name, relative_to, &curr, bot_timestamp_now());
}
bot_viewer_request_redraw(self->viewer);
}
void FilterPlanes::filterPlanes(vector<BasicPlane> &plane_stack){
pcl::PointCloud<pcl::PointXYZRGB>::Ptr cloud_filtered (new pcl::PointCloud<pcl::PointXYZRGB>), cloud_p (new pcl::PointCloud<pcl::PointXYZRGB>);
if (verbose_text>0){
cout << "PointCloud before filtering: " << cloud->width * cloud->height << " data points." << std::endl;
}
#if DO_TIMING_PROFILE
vector<int64_t> tic_toc;
tic_toc.push_back(bot_timestamp_now());
#endif
/* Ptcoll_cfg ptcoll_cfg;
ptcoll_cfg.point_lists_id =pose_element_id; //bot_timestamp_now();
ptcoll_cfg.collection = pose_coll_id;
ptcoll_cfg.element_id = pose_element_id; */
//1. Downsample the dataset using a leaf size of 1cm
// this is 99% of the cpu time
pcl::VoxelGrid<pcl::PointXYZRGB> sor;
sor.setInputCloud (cloud);
// for table dataset: sor.setLeafSize (0.01, 0.01, 0.01);
sor.setLeafSize (0.05, 0.05, 0.05);
// sor.setLeafSize (0.1, 0.1, 0.1);
sor.filter (*cloud_filtered);
if (verbose_text>0){
cout << "PointCloud after filtering: " << cloud_filtered->width * cloud_filtered->height << " data points." << std::endl;
}
#if DO_TIMING_PROFILE
tic_toc.push_back(bot_timestamp_now());
#endif
if (verbose_lcm>2){
/* ptcoll_cfg.id = 200;
ptcoll_cfg.reset=true;
ptcoll_cfg.name ="cloud_downsampled";
ptcoll_cfg.npoints = cloud_filtered->points.size();
float colorm_temp0[] ={-1.0,-1.0,-1.0,-1.0};
ptcoll_cfg.rgba.assign(colorm_temp0,colorm_temp0+4*sizeof(float));
ptcoll_cfg.type =1;
pcdXYZRGB_to_lcm(publish_lcm,ptcoll_cfg, *cloud_filtered);*/
}
// 2. Set up the Ransac Plane Fitting Object:
pcl::ModelCoefficients::Ptr coefficients (new pcl::ModelCoefficients ());
pcl::PointIndices::Ptr inliers (new pcl::PointIndices ());
pcl::SACSegmentation<pcl::PointXYZRGB> seg;
// Optional
seg.setOptimizeCoefficients (true);
// Mandatory
seg.setModelType (pcl::SACMODEL_PLANE);
seg.setMethodType (pcl::SAC_RANSAC);
seg.setMaxIterations (100); // was 4000
seg.setDistanceThreshold (distance_threshold_); // 0.01 for table data set
// Create the filtering object
pcl::ExtractIndices<pcl::PointXYZRGB> extract;
#if DO_TIMING_PROFILE
tic_toc.push_back(bot_timestamp_now());
#endif
int n_major = 0, nr_points = cloud_filtered->points.size ();
//vector<BasicPlaneX> plane_stack;
BasicPlane one_plane;
// Extract the primary planes:
// major planes are the coarse planes extracted via ransac. they might contain disconnected points
// these are broken up into minor planes which are portions of major planes
if(verbose_lcm > 2){
for (int i=0;i<7;i++){
char n_major_char[10];
sprintf(n_major_char,"%d",i);
/* ptcoll_cfg.id =210+ i+3;
ptcoll_cfg.reset=true;
ptcoll_cfg.name =(char*) "cloud_p ";
ptcoll_cfg.name.append(n_major_char);
ptcoll_cfg.npoints = 0;
float colorm_temp0[] ={-1.0,-1.0,-1.0,-1.0};
ptcoll_cfg.rgba.assign(colorm_temp0,colorm_temp0+4*sizeof(float));
ptcoll_cfg.type=1;
pcdXYZRGB_to_lcm(publish_lcm,ptcoll_cfg, *cloud_filtered);
*/
}
for (int i=0;i<7;i++){
/*
Ptcoll_cfg ptcoll_cfg2;
// the i below accounts for super planes in the same utime
ptcoll_cfg2.point_lists_id =pose_element_id; //bot_timestamp_now();
ptcoll_cfg2.collection = pose_coll_id;
ptcoll_cfg2.element_id = pose_element_id;
if (i==0){
ptcoll_cfg2.reset=true;
}else{
ptcoll_cfg2.reset=false;
}
ptcoll_cfg2.id =500;
ptcoll_cfg2.name.assign("Grown Stack Final");
ptcoll_cfg2.npoints = 0;
ptcoll_cfg2.type =1;
pcdXYZRGB_to_lcm(publish_lcm,ptcoll_cfg2, *cloud_filtered);
*/
}
// TODO: this will rest this object. need to add publish of reset
// at start of this block and set rese ttofal
for (int i=0;i<7;i++){
/*
Ptcoll_cfg ptcoll_cfg2;
// the i below accounts for super planes in the same utime
ptcoll_cfg2.point_lists_id =pose_element_id; //bot_timestamp_now();
ptcoll_cfg2.collection = pose_coll_id;
ptcoll_cfg2.element_id = pose_element_id;
if (i==0){
ptcoll_cfg2.reset=true;
}else{
ptcoll_cfg2.reset=false;
}
ptcoll_cfg2.id =501;
ptcoll_cfg2.name.assign("Grown Stack Final Hull");
ptcoll_cfg2.npoints = 0;
ptcoll_cfg2.type =3;
pcdXYZRGB_to_lcm(publish_lcm,ptcoll_cfg2, *cloud_filtered);
*/
}
}
#if DO_TIMING_PROFILE
tic_toc.push_back(bot_timestamp_now());
#endif
while (cloud_filtered->points.size () > stop_proportion_ * nr_points) {
// While XX% of the original cloud is still there
char n_major_char[10];
sprintf(n_major_char,"%d",n_major);
if (n_major >6) {
if (verbose_text >0){
std::cout << n_major << " is the max number of planes to find, quitting" << std::endl;
}
break;
}
//a Segment the largest planar component from the remaining cloud
seg.setInputCloud (cloud_filtered);
seg.segment (*inliers, *coefficients);
if (inliers->indices.size () == 0)
{
std::cout << "Could not estimate a planar model for the given dataset." << std::endl;
break;
}
if (inliers->indices.size () < stop_cloud_size_) // stop when the plane is only a few points
{
//std::cerr << "No remaining planes in this set" << std::endl;
break;
}
//b Extract the inliers
extract.setInputCloud (cloud_filtered);
extract.setIndices (inliers);
extract.setNegative (false);
extract.filter (*cloud_p);
if (verbose_text>0){
std::cout << "PointCloud representing the planar component: " << cloud_p->width * cloud_p->height << " data points." << std::endl;
}
// Create the filtering object
pcl::StatisticalOutlierRemoval<pcl::PointXYZRGB> sor;
sor.setInputCloud (cloud_p);
sor.setMeanK (30);
sor.setStddevMulThresh (0.5); //was 1.0
sor.filter (*cloud_p);
if(verbose_lcm > 2){
/*
ptcoll_cfg.id =210+ n_major+3;
ptcoll_cfg.reset=true;
ptcoll_cfg.name ="cloud_p ";
ptcoll_cfg.name.append(n_major_char);
ptcoll_cfg.npoints = cloud_p->points.size();
float colorm_temp0[] ={-1.0,-1.0,-1.0,-1.0};
ptcoll_cfg.rgba.assign(colorm_temp0,colorm_temp0+4*sizeof(float));
ptcoll_cfg.type=1;
pcdXYZRGB_to_lcm(publish_lcm,ptcoll_cfg, *cloud_p);
*/
}
vector<BasicPlane> grown_stack;
vector<BasicPlane> * grown_stack_ptr;
grown_stack_ptr = &grown_stack;
GrowCloud grow;
grow.setInputCloud(cloud_p);
grow.setMinCloudSize(stop_cloud_size_); // useing stop cloud size here too
grow.setLCM(publish_lcm);
grow.doGrowCloud(*grown_stack_ptr);
if (verbose_text>0){
cout << "grow_cloud new found " << grown_stack.size() << " seperate clouds\n";
}
// Spit raw clouds out to LCM:
if(verbose_lcm > 2){
for (int i=0;i<grown_stack.size();i++){
/*
Ptcoll_cfg ptcoll_cfg2;
ptcoll_cfg2.reset=false;
// the i below accounts for super planes in the same utime
ptcoll_cfg2.point_lists_id =10*n_major + i; //filterplanes->pose_element_id;
ptcoll_cfg2.collection = pose_coll_id;
ptcoll_cfg2.element_id = pose_element_id;
ptcoll_cfg2.id =500;
ptcoll_cfg2.name.assign("Grown Stack Final");
ptcoll_cfg2.npoints = grown_stack[i].cloud.points.size ();
ptcoll_cfg2.type =1;
int id = plane_stack.size() + i; // 10*n_major + i;
float colorm_temp0[] ={colors[3*(id%num_colors)],colors[3*(id%num_colors)+1],colors[3*(id%num_colors)+2] ,0.0};
ptcoll_cfg2.rgba.assign(colorm_temp0,colorm_temp0+4*sizeof(float));
pcdXYZRGB_to_lcm(publish_lcm,ptcoll_cfg2, grown_stack[i].cloud);
*/
}
}
BasicPlane one_plane;
int n_minor=0;
BOOST_FOREACH( BasicPlane one_plane, grown_stack ){
pcl::PointCloud<pcl::PointXYZRGB>::Ptr cloud_projected (new pcl::PointCloud<pcl::PointXYZRGB>);
pcl::PointCloud<pcl::PointXYZRGB>::Ptr cloud_hull (new pcl::PointCloud<pcl::PointXYZRGB>);
// c Project the model inliers (seems to be necessary to fitting convex hull
pcl::ProjectInliers<pcl::PointXYZRGB> proj;
proj.setModelType (pcl::SACMODEL_PLANE);
pcl::PointCloud<pcl::PointXYZRGB>::Ptr temp (new pcl::PointCloud<pcl::PointXYZRGB> ());
*temp = (one_plane.cloud);
proj.setInputCloud (temp);
proj.setModelCoefficients (coefficients);
proj.filter (*cloud_projected);
std::vector <pcl::Vertices> vertices;
if (1==1){ // convex:
pcl::ConvexHull<pcl::PointXYZRGB> chull;
chull.setInputCloud (cloud_projected);
chull.setDimension(2);
chull.reconstruct (*cloud_hull,vertices);
}else { // concave
pcl::ConcaveHull<pcl::PointXYZRGB> chull;
chull.setInputCloud (cloud_projected);
chull.setKeepInformation(true);
chull.setAlpha(0.5);
// for arch way:
// 1.1 too few
// 0.7 a little to few but much better
chull.reconstruct (*cloud_hull,vertices);
}
//std::cout << "Hull has: " << cloud_hull->points.size () << " vertices." << std::endl;
if (cloud_hull->points.size () ==0){
cout <<"ERROR: CONVEX HULL HAS NO POINTS! - NEED TO RESOLVE THIS\n";
}
// d.2 Find the mean colour of the hull:
int rgba[]={0,0,0,0};
for(int i=0;i<temp->points.size();i++){
int rgba_one = *reinterpret_cast<int*>(&temp->points[i].rgba);
rgba[3] += ((rgba_one >> 24) & 0xff);
rgba[2] += ((rgba_one >> 16) & 0xff);
rgba[1] += ((rgba_one >> 8) & 0xff);
rgba[0] += (rgba_one & 0xff);
}
double scale = ((double) temp->points.size());
rgba[3] =(int) round(((double) rgba[3]) / scale);
rgba[2] =(int) round(((double) rgba[2]) / scale);
rgba[1] =(int) round(((double) rgba[1]) / scale);
rgba[0] =(int) round(((double) rgba[0]) / scale);
// Write the plane to file for experimentation:
//stringstream oss;
//oss << ptcoll_cfg.element_id <<"_" << ptcoll_cfg.name << ".pcd";
//writer.write (oss.str(), *this_hull, false);
for(int i=0;i<cloud_hull->points.size();i++){
unsigned char* rgba_ptr = (unsigned char*)&cloud_hull->points[i].rgba;
(*rgba_ptr) = rgba[0] ;
(*(rgba_ptr+1)) = rgba[1];
(*(rgba_ptr+2)) = rgba[2];
(*(rgba_ptr+3)) = rgba[3];
}
(one_plane.coeffs) = *coefficients;
one_plane.cloud = *cloud_hull;
one_plane.utime = pose_element_id;
one_plane.major = n_major;
one_plane.minor = n_minor;
one_plane.n_source_points = cloud_projected->points.size();
plane_stack.push_back(one_plane);
n_minor++;
// int stop;
// cout << "int to cont: ";
// cin >> stop;
}
// Create the filtering object
extract.setNegative (true);
extract.filter (*cloud_filtered);
n_major++;
}
HRESULT DeckLinkCaptureDelegate::VideoInputFrameArrived(IDeckLinkVideoInputFrame* videoFrame, IDeckLinkAudioInputPacket* audioFrame)
{
IDeckLinkVideoFrame* rightEyeFrame = NULL;
IDeckLinkVideoFrame3DExtensions* threeDExtensions = NULL;
void* frameBytes;
void* audioFrameBytes;
// Handle Video Frame
if (videoFrame)
{
// If 3D mode is enabled we retreive the 3D extensions interface which gives.
// us access to the right eye frame by calling GetFrameForRightEye() .
if ( (videoFrame->QueryInterface(IID_IDeckLinkVideoFrame3DExtensions, (void **) &threeDExtensions) != S_OK) ||
(threeDExtensions->GetFrameForRightEye(&rightEyeFrame) != S_OK))
{
rightEyeFrame = NULL;
}
if (threeDExtensions)
threeDExtensions->Release();
if (videoFrame->GetFlags() & bmdFrameHasNoInputSource)
{
printf("Frame received (#%lu) - No input signal detected\n", g_frameCount);
}
else
{
const char *timecodeString = NULL;
if (g_config.m_timecodeFormat != 0)
{
IDeckLinkTimecode *timecode;
if (videoFrame->GetTimecode(g_config.m_timecodeFormat, &timecode) == S_OK)
{
timecode->GetString(&timecodeString);
}
}
int64_t timestampNow = bot_timestamp_now();
if (g_config.m_lcmChannelName)
{
IDeckLinkMutableVideoFrame* outputFrame;
g_deckLinkOutput->CreateVideoFrame(videoFrame->GetWidth(), videoFrame->GetHeight(), videoFrame->GetWidth()*4, bmdFormat8BitBGRA, bmdFrameFlagDefault, &outputFrame);
HRESULT convertResult = g_conversionInst->ConvertFrame(videoFrame, outputFrame);
frameConsumer.Queue.enqueue(FrameData(outputFrame, timestampNow));
}
static int64_t baseTime = timestampNow;
static uint64_t frameCount = g_frameCount;
double elapsedTime = (timestampNow - baseTime) * 1e-6;
if (elapsedTime > 1.0)
{
printf("capturing at %.2f fps.\n", (g_frameCount - frameCount)/elapsedTime);
baseTime = timestampNow;
frameCount = g_frameCount;
}
if (timecodeString)
free((void*)timecodeString);
if (g_videoOutputFile != -1)
{
videoFrame->GetBytes(&frameBytes);
write(g_videoOutputFile, frameBytes, videoFrame->GetRowBytes() * videoFrame->GetHeight());
if (rightEyeFrame)
{
rightEyeFrame->GetBytes(&frameBytes);
write(g_videoOutputFile, frameBytes, videoFrame->GetRowBytes() * videoFrame->GetHeight());
}
}
}
if (rightEyeFrame)
rightEyeFrame->Release();
g_frameCount++;
}
// Handle Audio Frame
if (audioFrame)
{
if (g_audioOutputFile != -1)
{
audioFrame->GetBytes(&audioFrameBytes);
write(g_audioOutputFile, audioFrameBytes, audioFrame->GetSampleFrameCount() * g_config.m_audioChannels * (g_config.m_audioSampleDepth / 8));
}
}
if (g_config.m_maxFrames > 0 && videoFrame && g_frameCount >= g_config.m_maxFrames)
{
g_do_exit = true;
pthread_cond_signal(&g_sleepCond);
}
return S_OK;
}
