template <class T> void DDSProxyPoseStamped::messageCallback(
const ros::MessageEvent<T const>& event) {
ROS_DEBUG("[Debug]: Received message event of type geometry_msgs::PoseStamped\n");
// if (event.getPublisherName() != node_name) {
ROS_DEBUG("Received message from %s", event.getPublisherName().c_str());
ros::Time receipt_time = event.getReceiptTime();
const geometry_msgs::PoseStampedConstPtr& msg = event.getMessage();
proxyPoseStamped *proxyPoseStamped_msg = new proxyPoseStamped();
// Filling in data for *proxyPoseStamped.idl*
std::string frame_id = "/";
frame_id.append(robot_name.c_str());
frame_id.append(std::string(msg->header.frame_id).c_str());
proxyPoseStamped_msg->header.frame_id = frame_id.c_str();
proxyPoseStamped_msg->header.seq = msg->header.seq;
proxyPoseStamped_msg->header.stamp.nsec = msg->header.stamp.nsec;
proxyPoseStamped_msg->header.stamp.sec = msg->header.stamp.sec;
// fill pose/position
proxyPoseStamped_msg->pose.position.x = msg->pose.position.x;
proxyPoseStamped_msg->pose.position.y = msg->pose.position.y;
proxyPoseStamped_msg->pose.position.z = msg->pose.position.z;
// fill pose/orientation
proxyPoseStamped_msg->pose.orientation.x = msg->pose.orientation.x;
proxyPoseStamped_msg->pose.orientation.y = msg->pose.orientation.y;
proxyPoseStamped_msg->pose.orientation.z = msg->pose.orientation.z;
proxyPoseStamped_msg->pose.orientation.w = msg->pose.orientation.w;
ReturnCode_t ret = m_data_writer->write(*proxyPoseStamped_msg, NULL);
checkStatus(ret, "proxyPoseStamped::Write");
// ROS_INFO("Print return code %d", ret);
//}
}
void rcInCB(const ros::MessageEvent<mavros_msgs::RCIn const>& event)
{
const std::string& sender = event.getPublisherName();
const ros::M_string& header = event.getConnectionHeader();
ros::Time receipt_time = event.getReceiptTime();
const mavros_msgs::RCIn::ConstPtr& msg = event.getMessage();
const mavros_msgs::RCIn rc_in = *(msg.get());
joy_.axes[JOY_AXES_THROTTLE] = scaleRC(rc_in.channels[RC_THROTTLE], false);
joy_.axes[JOY_AXES_YAW] = scaleRC(rc_in.channels[RC_YAW], false);
joy_.axes[JOY_AXES_PITCH] = scaleRC(rc_in.channels[RC_PITCH], false);
joy_.axes[JOY_AXES_ROLL] = scaleRC(rc_in.channels[RC_ROLL], false);
joy_.axes[JOY_AXES_AUX] = scaleRC(rc_in.channels[RC_AUX3], false);
joy_.buttons[JOY_BUTTON_0] = switchRC2(rc_in.channels[RC_GEAR]);
joy_.buttons[JOY_BUTTON_1] = switchRC3(rc_in.channels[RC_FLAP]);
joy_.buttons[JOY_BUTTON_2] = switchRC3(rc_in.channels[RC_AUX2]);
joy_.header.stamp = msg.get()->header.stamp;
joy_pub_.publish(joy_);
}
void DecisionMakerNode::callbackFromLightColor(const ros::MessageEvent<autoware_msgs::TrafficLight const> &event)
{
const autoware_msgs::TrafficLight *light = event.getMessage().get();
// const ros::M_string &header = event.getConnectionHeader();
// std::string topic = header.at("topic");
if(!isManualLight){// && topic.find("manage") == std::string::npos){
current_traffic_light_ = light->traffic_light;
if (current_traffic_light_ == state_machine::E_RED || current_traffic_light_ == state_machine::E_YELLOW)
{
ctx->setCurrentState(state_machine::DRIVE_BEHAVIOR_TRAFFICLIGHT_RED_STATE);
ctx->disableCurrentState(state_machine::DRIVE_BEHAVIOR_TRAFFICLIGHT_GREEN_STATE);
}
else
{
ctx->setCurrentState(state_machine::DRIVE_BEHAVIOR_TRAFFICLIGHT_GREEN_STATE);
ctx->disableCurrentState(state_machine::DRIVE_BEHAVIOR_TRAFFICLIGHT_RED_STATE);
}
}
}
void smfCallback(const ros::MessageEvent<smfwin::SMF const>& event)
{
const std::string& publisher_name = event.getPublisherName();
ros::M_string header = event.getConnectionHeader();
ros::Time receipt_time = event.getReceiptTime();
const smfwin::SMF::ConstPtr& msg = event.getMessage();
//ROS_INFO("callback");
ros::M_string::iterator it = header.find("type");
std::string mtype = it->second;
it = header.find("message_definition");
std::string mdef = it->second;
std::stringstream ss;
ros::WallTime t= ros::WallTime::now();
std::stringstream s; // Allocates memory on stack
s << t.sec << "." << t.nsec;
std::string tstamp = s.str();
distributeMessage(publisher_name, msg->type.c_str(), msg->data.c_str(), tstamp, 0);
//ROS_INFO("Message sent from ROS to %s type", msg->type.c_str());
}
void ImageNodelet::processCameraInfo( const ros::MessageEvent<sensor_msgs::CameraInfo const>& event, const std::string& topic )
{
boost::mutex::scoped_lock lock(image_history_mutex_);
const std::string& publisher_name = event.getPublisherName();
// publishing on my own topic; return
if(publisher_name == this->getName())
return;
//ROS_ERROR("Received camera info from %s on topic %s",publisher_name.c_str(),topic.c_str());
const sensor_msgs::CameraInfo::ConstPtr& msg = event.getMessage();
unsigned int image_index;
for(image_index = 0; image_index < image_history_.size(); image_index++)
if(msg->header.stamp == image_history_[image_index].header.stamp)
break;
// if it doesn't exist
if(image_index == image_history_.size())
{
std::cout << "Adding new image to history (" << id_counter_ << "); using CameraInfo." << std::endl;
ImageStruct newimg;
newimg.id = id_counter_++;
newimg.camera_info = *msg;
newimg.topic = topic;
newimg.topic = newimg.topic.erase(newimg.topic.find("/camera_info"),strlen("/camera_info"));
image_history_.push_back(newimg);
}
else
{
std::cout << "Adding CameraInfo to existing history image (" << image_history_[image_index].id << ")." << std::endl;
image_history_[image_index].camera_info = *msg;
publishImageAdded(image_index);
}
}
void ImageNodelet::processImage( const ros::MessageEvent<sensor_msgs::Image const>& event, const std::string& topic )
{
boost::mutex::scoped_lock lock(image_history_mutex_);
const std::string& publisher_name = event.getPublisherName();
std::vector<int> qualitytype;
qualitytype.push_back(CV_IMWRITE_JPEG_QUALITY);
qualitytype.push_back(90);
// publishing on my own topic; return
if(publisher_name == this->getName())
return;
//ROS_ERROR("Received image from %s on topic %s",publisher_name.c_str(),topic.c_str());
const sensor_msgs::Image::ConstPtr& msg = event.getMessage();
unsigned int image_index;
for(image_index = 0; image_index < image_history_.size(); image_index++)
if(msg->header.stamp == image_history_[image_index].camera_info.header.stamp)
break;
// if it doesn't exist
if(image_index == image_history_.size())
{
std::cout << "Adding new image to history (" << id_counter_ << "); using Image." << std::endl;
ImageStruct newimg;
newimg.id = id_counter_++;
newimg.header.stamp = msg->header.stamp;
//newimg.image = *msg;
newimg.topic = topic;
newimg.topic = newimg.topic.erase(newimg.topic.find("/image_raw"),strlen("/image_raw"));
image_history_.push_back(newimg);
}
else
{
std::cout << "Adding Image to existing history image (" << image_history_[image_index].id << ")." << std::endl;
// image_history_[image_index].image = *msg;
image_history_[image_index].header.stamp = msg->header.stamp;
publishImageAdded(image_index);
}
cv_bridge::CvImagePtr cv_ptr;
try
{
cv_ptr = cv_bridge::toCvCopy(*msg, sensor_msgs::image_encodings::BGR8);
}
catch (cv_bridge::Exception& e)
{
// ROS_ERROR("cv_bridge exception: %s", e.what());
return;
}
cv::Size2i img_size;
img_size.width=(double)msg->width;
img_size.height=msg->height;
cv::resize(cv_ptr->image, cv_ptr->image, img_size, 0, 0, cv::INTER_NEAREST);
std::stringstream stream;
stream.str("");
stream << id_counter_-1;
std::cout<<"Image size:"<<img_size.width;
const char dir_path[] = "/home/vigir/image";
boost::filesystem::path dir(dir_path);
if(boost::filesystem::create_directory(dir))
{
std::cout << "Successfully created directory /home/vigir/image" << "\n";
}
else
std::cout<<"\nFolder not created!!";
imwrite("/home/vigir/image/"+stream.str()+".jpg",cv_ptr->image,qualitytype);
}
void tresD::imageCb(const ros::MessageEvent<sensor_msgs::PointCloud2 const>& msg){
//std::cerr<<"entro"<<std::endl;
actualizar = false;
sensor_msgs::PointCloud2 in_basefoot;
pcl_ros::transformPointCloud("/base_link", *(msg.getMessage()), in_basefoot, tfL);
pcl::PointCloud<pcl::PointXYZRGB> PCxyzrgb, PCxyzrgbout;
pcl::fromROSMsg(in_basefoot, PCxyzrgb);
PCxyzrgbout = PCxyzrgb;
PCxyzrgbout.clear();
int a=0;
pcl::PointCloud<pcl::PointXYZRGB>::iterator it;
for (it = PCxyzrgb.begin(); it != PCxyzrgb.end(); ++it) {
pcl::PointXYZHSV hsv;
pcl::PointXYZRGBtoXYZHSV(*it, hsv);
if ((it->x == it->x)&&(it->y == it->y)&&(it->z == it->z)){
if (((hsv.h >= hlower_magenta) && (hsv.h <= hupper_magenta))
&& ((hsv.s >=nslower) && (hsv.s <= nsupper))
&& ((hsv.v >= nvlower)&& (hsv.v <= nvupper))){
//ROS_INFO("MAGENTA");
PCxyzrgbout.push_back(*it);
tresD::update(MAGENTA, (float) it->x, (float) it->y, (float) it->z);
}else if (((hsv.h >= hlower_blue) && (hsv.h <= hupper_blue))
&& ((hsv.s >=slower_blue) && (hsv.s <= supper_blue))
&& ((hsv.v >= vlower_blue)&& (hsv.v <= vupper_blue))){
//ROS_INFO("BLUE");
PCxyzrgbout.push_back(*it);
tresD::update(BLUE, (float) it->x, (float) it->y, (float) it->z);
}else if ((((hsv.h >= hlower_yellow) && (hsv.h <= hupper_yellow))
&& ((hsv.s >=slower_yellow) && (hsv.s <= supper_yellow))
&& ((hsv.v >= vlower_yellow)&& (hsv.v <= vupper_yellow)))||
(((hsv.h >= 0.0) && (hsv.h <= 87.0))
&& ((hsv.s >=88.0/255.0f) && (hsv.s <= 155.0/255.0f))
&& ((hsv.v >= 151.0/255.0f)&& (hsv.v <= 224.0/255.0f)))){
PCxyzrgbout.push_back(*it);
tresD::update(YELLOW, (float) it->x, (float) it->y, (float) it->z);
//std::cout<<"YELLOW 1"<<std::endl;
}else if (((hsv.h >= hlower_light_orange) && (hsv.h <= hupper_light_orange))
&& ((hsv.s >=slower_light_orange) && (hsv.s <= supper_light_orange))
&& ((hsv.v >= vlower_light_orange)&& (hsv.v <= vupper_light_orange))){
//ROS_INFO("LIGHT_ORANGE");
PCxyzrgbout.push_back(*it);
tresD::update(LIGHT_ORANGE, (float) it->x, (float) it->y, (float) it->z);
}else if (((hsv.h >= hlower_red) && (hsv.h <= hupper_red))
&& ((hsv.s >=slower_red) && (hsv.s <= supper_red))
&& ((hsv.v >= vlower_red)&& (hsv.v <= vupper_red))){
if(((hsv.h >= hlower_orange) && (hsv.h <= hupper_orange))
&& ((hsv.s >=slower_orange) && (hsv.s <= supper_orange))
&& ((hsv.v >= vlower_orange)&& (hsv.v <= vupper_orange))){
//ROS_INFO("ORANGE");
PCxyzrgbout.push_back(*it);
tresD::update(ORANGE, (float) it->x, (float) it->y, (float) it->z);
}else{
// ROS_INFO("RED");
PCxyzrgbout.push_back(*it);
tresD::update(RED, (float) it->x, (float) it->y, (float) it->z);
}
}else {
it->r = 0;
it->g = 0;
it->b = 0;
}
}
}
//tresD::seleccionar();
tresD::es_baliza();
tresD::es_pelota();
tresD::borrar();
//tansform PCxyzrgb (pcl::PointCloud<pcl::PointXYZRGB>) to Image to display in the OpenCV window
pcl::toROSMsg(PCxyzrgb, in_basefoot);
sensor_msgs::Image image;
//cv_bridge::CvImagePtr cv_imageout;
pcl::toROSMsg(in_basefoot, image);
float x, y, z;
x = y = z = 0.0;
int c = 0;
for (it = PCxyzrgbout.begin(); it != PCxyzrgbout.end(); ++it) {
if (it->x == it->x) //This seems to be the only way to detect if it is NaN
{
x = x + it->x;
y = y + it->y;
z = z + it->z;
c++;
}
}
if (c > 0) {
x = x / (float) c;
y = y / (float) c;
z = z / (float) c;
}
sensor_msgs::PointCloud2 pcout;
pcl::toROSMsg(PCxyzrgbout, pcout);
image_pub_.publish(in_basefoot);
}