/home/laradmin/lar/perception/driver_monitoring/src/colision_time.cpp

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#include <class_colision_time.h>



visualization_msgs::Marker mark_cluster(pcl::PointCloud<pcl::PointXYZ>::Ptr cloud_cluster, std::string ns ,int id, float r, float g, float b);

visualization_msgs::Marker mark_side_cluster(pcl::PointCloud<pcl::PointXYZ>::Ptr cloud_cluster, std::string ns ,int id, float r, float g, float b);

visualization_msgs::Marker generic_text(float x, float y, float z , float r, float g, float b, float scale, std::string txt, std::string frm_id, std::string ns);


ros::Publisher points_pub;
// front_zone of the car
ros::Publisher marker_fronts_publisher;
ros::Publisher marker_front_text_publisher;
//ros::Publisher marker_generic_text_publisher;

//side zone of the car
ros::Publisher marker_side_publisher;
ros::Publisher marker_side_text_publisher;
ros::Publisher marker_side_text_blink_publisher;
ros::Publisher marker_generic_text_blink_left_publisher;                        
// class_colision_time colision;
//ros::Publisher marker_front_grid_publisher;


tf::TransformListener *listener_center_bumper_ptr;
class_colision_time::TYPE_msg_mtt obstacle_zone_front; 
class_colision_time::TYPE_msg_mtt obstacle_left; 
class_colision_time::TYPE_msg_partial partial_msg;
class_colision_time::TYPE_msg_velocity velocity_msg;
class_colision_time::TYPE_msg_plc plc_msg;
class_colision_time::TYPE_msg_bags colision_time;


int cria_txt(int x)
{
   FILE *fp;
   string nane_file;
  
   nane_file.append("../");
   nane_file.append(colision_time.name_file);  
   nane_file.erase(nane_file.end()-4, nane_file.end());
   nane_file.append(".txt");  
   cout<< "msg_save:"<< colision_time.name_file<<endl;
   fp = fopen(nane_file.c_str(),"a+"); //tenta ler o ficheiro já existente

    /* Verificar se a abertura foi feita com sucesso */

        if (fp==NULL) //Não consegue abir o ficheiro
        {
                
                cout<<"cannot open file: " << nane_file.c_str() <<endl;
                   // return 1;
        }
                if (x==1){
                        fprintf(fp,"%s \t %s \t %f \t %f \t %f \n", colision_time.name_file.c_str(), colision_time.sit_type_1.c_str(),colision_time.sit_begin_1, colision_time.duration_1,  colision_time.sit_end_1);
                        cout<<"cria txt 1"<<endl; 
                }
                if (x==2){
                        fprintf(fp,"%s \t %s \t %f \t %f \t %f \n", colision_time.name_file.c_str(), colision_time.sit_type_2.c_str(),colision_time.sit_begin_2, colision_time.duration_2,  colision_time.sit_end_2);
                        cout<<"cria txt 2"<<endl; 
                }
                if (x==3){
                        fprintf(fp,"%s \t %s \t %f \t %f \t %f \n", colision_time.name_file.c_str(), colision_time.sit_type_3.c_str(),colision_time.sit_begin_3, colision_time.duration_3, colision_time.sit_end_3);
                        cout<<"cria txt 3"<<endl; 
                }
                if (x==4){
                        fprintf(fp,"%s \t %s \t %f \t %f \t %f \n", colision_time.name_file.c_str(), colision_time.sit_type_4.c_str(),colision_time.sit_begin_4, colision_time.duration_4,  colision_time.sit_end_4);
                        cout<<"cria txt 4"<<endl; 
                }
                
//      cout <<"antes de sair."<<endl;
     fclose(fp);

  return 0;
};


void initialization_variables(void)
{
        colision_time.internal_1=0;
        colision_time.internal_2=0;
        colision_time.internal_3=0;
        colision_time.internal_4=0;
}

void begin_situation(void)
{
        //cout<<"entrou no begin_situation "<<endl; 
        //cout<<"internal_1: "<< colision_time.internal_1<<" sit_1: "<< colision_time.sit_1<<endl; 
        //cout<< "data do ficheiro bag"<<colision_time.bag_time<<endl;
//                      verifica se ainda está em situação de perigo numero 1-> Objecto detectado na parte lateral do carro

        if(colision_time.sit_1==1 && colision_time.internal_1==0) //só entra aqui umavez, pois a segunda o valor internal é 1, logo faz else
                {
                        //sacar o tempo da primeira vez que é apanhado a situação tempo inicial
                        colision_time.lst_obj_sit_1=ros::Time::now().toSec(); // colision_time.bag_time;
                        colision_time.sit_begin_1=ros::Time::now().toSec();
                        colision_time.internal_1=1;
                }
        if (colision_time.sit_1==1 && colision_time.internal_1==1) //para todas as vezes que seja chamado a verificar a data
                {colision_time.lst_obj_sit_1=ros::Time::now().toSec(); }

        if(ros::Time::now().toSec()-colision_time.lst_obj_sit_1<1 )  //se o tempo que passou for menor que 300 milisegundos assumimos que tem objecto durente esse tempo, para evitar ruido no ficheiro a gravar.
                {
                        colision_time.sit_1=1;
                        //variavel interna que só é usada uma vez
                }else 
                {
                        if(colision_time.sit_1==0 && colision_time.internal_1==1)
                        {
                                colision_time.sit_type_1="object detected--> vehicle behind the car";
                                //colision_time.sit_begin=colision_time.lst_obj_sit_1; // inicio da situação
                                colision_time.duration_1=colision_time.bag_time-colision_time.sit_begin_1; //duração da situação
                                colision_time.sit_end_1=colision_time.bag_time; // final da situação
                                
                                //colision_time.sit_1=0;
                                colision_time.internal_1=0;
                                cria_txt(1);
                                
                        }
                }


        if(colision_time.sit_2==1 && colision_time.internal_2==0) //só entra aqui umavez, pois a segunda o valor internal é 1, logo faz else
                {
                        //sacar o tempo da primeira vez que é apanhado a situação tempo inicial
                        colision_time.lst_obj_sit_2=ros::Time::now().toSec(); // colision_time.bag_time;
                        colision_time.sit_begin_2=ros::Time::now().toSec();
                        colision_time.internal_2=1;
                }
        if (colision_time.sit_2==1 && colision_time.internal_2==1) //para todas as vezes que seja chamado a verificar a data
                {colision_time.lst_obj_sit_2=ros::Time::now().toSec(); }

        if(ros::Time::now().toSec()-colision_time.lst_obj_sit_2<1 )  //se o tempo que passou for menor que 300 milisegundos assumimos que tem objecto durente esse tempo, para evitar ruido no ficheiro a gravar.
                {
                        colision_time.sit_2=1;
                        //variavel interna que só é usada uma vez
                }else 
                {
                        if(colision_time.sit_2==0 && colision_time.internal_2==1)
                        {
                                colision_time.sit_type_2="object detected--> Colision Risk";
                                //colision_time.sit_begin=colision_time.lst_obj_sit_1; // inicio da situação
                                colision_time.duration_2=colision_time.bag_time-colision_time.sit_begin_2; //duração da situação
                                colision_time.sit_end_2=colision_time.bag_time; // final da situação
                                
                                //colision_time.sit_1=0;
                                colision_time.internal_2=0;
                                cria_txt(2);
                                cout<<"cria txt 2"<<endl; 
                        }
                }

if(colision_time.sit_3==1 && colision_time.internal_3==0) //só entra aqui umavez, pois a segunda o valor internal é 1, logo faz else
                {
                        //sacar o tempo da primeira vez que é apanhado a situação tempo inicial
                        colision_time.lst_obj_sit_3=ros::Time::now().toSec(); // colision_time.bag_time;
                        colision_time.sit_begin_3=ros::Time::now().toSec();
                        colision_time.internal_3=1;
                }
        if (colision_time.sit_3==1 && colision_time.internal_3==1) //para todas as vezes que seja chamado a verificar a data
                {colision_time.lst_obj_sit_3=ros::Time::now().toSec(); }

        if(ros::Time::now().toSec()-colision_time.lst_obj_sit_3<1 )  //se o tempo que passou for menor que 300 milisegundos assumimos que tem objecto durente esse tempo, para evitar ruido no ficheiro a gravar.
                {
                        colision_time.sit_3=1;
                        //variavel interna que só é usada uma vez
                }else 
                {
                        if(colision_time.sit_3==0 && colision_time.internal_3==1)
                        {
                                colision_time.sit_type_3="object detected--> Forgot to blink left!";
                                //colision_time.sit_begin=colision_time.lst_obj_sit_1; // inicio da situação
                                colision_time.duration_3=colision_time.bag_time-colision_time.sit_begin_3; //duração da situação
                                colision_time.sit_end_3=colision_time.bag_time; // final da situação
                                
                                //colision_time.sit_1=0;
                                colision_time.internal_3=0;
                                cria_txt(3);
                                cout<<"cria txt 3"<<endl; 
                        }
                }

if(colision_time.sit_4==1 && colision_time.internal_4==0) //só entra aqui umavez, pois a segunda o valor internal é 1, logo faz else
                {
                        //sacar o tempo da primeira vez que é apanhado a situação tempo inicial
                        colision_time.lst_obj_sit_4=ros::Time::now().toSec(); // colision_time.bag_time;
                        colision_time.sit_begin_4=ros::Time::now().toSec();
                        colision_time.internal_4=1;
                }
        if (colision_time.sit_4==1 && colision_time.internal_4==1) //para todas as vezes que seja chamado a verificar a data
                {colision_time.lst_obj_sit_4=ros::Time::now().toSec(); }

        if(ros::Time::now().toSec()-colision_time.lst_obj_sit_4<1 )  //se o tempo que passou for menor que 300 milisegundos assumimos que tem objecto durente esse tempo, para evitar ruido no ficheiro a gravar.
                {
                        colision_time.sit_4=1;
                        //variavel interna que só é usada uma vez
                }else 
                {
                        if(colision_time.sit_4==0 && colision_time.internal_4==1)
                        {
                                colision_time.sit_type_4="object detected--> Forgot to blink right";
                                //colision_time.sit_begin=colision_time.lst_obj_sit_1; // inicio da situação
                                colision_time.duration_4=colision_time.bag_time-colision_time.sit_begin_4; //duração da situação
                                colision_time.sit_end_4=colision_time.bag_time; // final da situação
                                
                                //colision_time.sit_1=0;
                                colision_time.internal_4=0;
                                cria_txt(4);
                                cout<<"cria txt 4 "<<endl; 
                        }
                }

};


void topic_callback_partial(atlascar_base::AtlascarPartialStatus AtlascarPartialStatus_msg)
                {
                                partial_msg.lights_high=AtlascarPartialStatus_msg.lights_high; 
                                partial_msg.lights_medium=AtlascarPartialStatus_msg.lights_medium; 
                                partial_msg.ignition=AtlascarPartialStatus_msg.ignition; 
                                partial_msg.lights_left=AtlascarPartialStatus_msg.lights_left; 
                                partial_msg.lights_right=AtlascarPartialStatus_msg.lights_right; 
                                partial_msg.danger_lights=AtlascarPartialStatus_msg.danger_lights; 
                                partial_msg.horn=AtlascarPartialStatus_msg.horn; 
                                partial_msg.throttle=AtlascarPartialStatus_msg.throttle; 
                                partial_msg.brake=AtlascarPartialStatus_msg.brake; 
                                partial_msg.clutch=AtlascarPartialStatus_msg.clutch;
                };
//      

void topic_callback_velocity(atlascar_base::AtlascarVelocityStatus AtlascarVelocityStatus_msg)
                {
                                velocity_msg.counting=AtlascarVelocityStatus_msg.counting;
                                velocity_msg.pulses_sec=AtlascarVelocityStatus_msg.pulses_sec;
                                velocity_msg.revolutions_sec=AtlascarVelocityStatus_msg.revolutions_sec;
                                velocity_msg.velocity=AtlascarVelocityStatus_msg.velocity;
                };
void topic_callback_plc_status(atlascar_base::AtlascarStatus AtlascarStatus_msg)
                {
                                plc_msg.steering_wheel=AtlascarStatus_msg.steering_wheel;
                                plc_msg.rpm=AtlascarStatus_msg.rpm;
                                cout<<plc_msg <<endl;
                };
                        
void topic_callback_rosout_cool(rosgraph_msgs::Log rosout_msg)
                {
                        
                        if (rosout_msg.msg[0]=='O' && rosout_msg.msg[1]=='p'&& rosout_msg.msg[2]=='e'&& rosout_msg.msg[6]=='g')
                        {
                                char name_file[1024];
                                sscanf(rosout_msg.msg.c_str(),"%*s %s",name_file); 
                                colision_time.name_file= name_file;
                                
                                //cout<< "msg_txt:"<<name_file <<endl;
                                //cria_txt();
                        }
                };

                
void topic_callback(const mtt::TargetListPC::Ptr& msg)
{
        colision_time.bag_time=ros::Time::now().toSec();
        colision_time.sit_1=0;
        colision_time.sit_2=0;
        colision_time.sit_3=0;
        colision_time.sit_4=0;
        
        
        //cout<<colision_time.bag_time<<" isto foi a data" <<endl;
        
        PointCloud<PointXYZ> velocity;
        PointCloud<PointXYZ> velocity_1;
        PointCloud<PointXYZ> position_1; 
        PointCloud<PointXYZ> position;
  
        fromROSMsg(msg->velocity,velocity_1);
        fromROSMsg(msg->position,position_1);
        
        tf::StampedTransform transform;
    try
      {
                listener_center_bumper_ptr->lookupTransform("/atc/vehicle/center_bumper", msg->header.frame_id, ros::Time(0), transform);
      }
    catch (tf::TransformException ex)
      {
                ROS_ERROR("%s",ex.what());
      }
                
                        pcl_ros::transformPointCloud (position_1,position,transform); 
                        pcl_ros::transformPointCloud (velocity_1,velocity,transform);
                        position.header.frame_id="/atc/vehicle/center_bumper";
                        velocity.header.frame_id="/atc/vehicle/center_bumper";
                        
                        PointCloud<PointXYZ>::Ptr front_zone (new PointCloud<PointXYZ> ());
                        front_zone->header.frame_id="/atc/vehicle/center_bumper";
                        
                        
                        PointCloud<PointXYZ>::Ptr left_zone (new PointCloud<PointXYZ> ());
                        left_zone->header.frame_id="/atc/vehicle/center_bumper";
        
        
        PointXYZ point;
        //PointXYZ point_side_left;
        for (int i=0; i<(int)position.size(); ++i)
        {
          point=position.points[i];
              //Front of the car!!
          if (point.x>0 && point.x<40 && point.y>-1 && point.y<1)
              {
                front_zone->points.push_back(point);
                obstacle_zone_front.id=msg->id[i];
                obstacle_zone_front.x=point.x;
                obstacle_zone_front.y=point.y;
                obstacle_zone_front.z=point.z;
                obstacle_zone_front.v_x=velocity[i].x;
                obstacle_zone_front.v_y=velocity[i].y;
                obstacle_zone_front.v_z=velocity[i].z;
              }  

          if (point.x>-40 && point.x<-0.5 && point.y>1.2 && point.y<3.5)
              {
                left_zone->points.push_back(point);
                obstacle_left.id=msg->id[i];
                obstacle_left.x=point.x;
                obstacle_left.y=point.y;
                obstacle_left.z=point.z;
                obstacle_left.v_x=velocity[i].x;
                obstacle_left.v_y=velocity[i].y;
                obstacle_left.v_z=velocity[i].z;
              }  
          
                }

      sensor_msgs::PointCloud2 ptc_front;
      toROSMsg(*front_zone,ptc_front);
      ptc_front.header.frame_id="/atc/vehicle/center_bumper";
      points_pub.publish(ptc_front);
      
      
      sensor_msgs::PointCloud2 ptc_side;
      toROSMsg(*left_zone,ptc_side);
      ptc_side.header.frame_id="/atc/vehicle/center_bumper";
      points_pub.publish(ptc_side);
      
      
      
      
      //reference of points with a cube
      visualization_msgs::Marker marker_front=mark_cluster(front_zone, "front_cube" ,0, 0, 0, 1);
      marker_fronts_publisher.publish(marker_front);

      //cout <<obstacle_zone_front <<endl;
      //condição para entrar na situação de risco!!
      float velocity_car_front;
      float time_car_front;
      velocity_car_front=obstacle_zone_front.v_x+velocity_msg.velocity;
      time_car_front=obstacle_zone_front.x/obstacle_zone_front.v_x;
      
      cout<<"V Atlascar ->"<< velocity_msg.velocity<<endl;
      cout<<"V objecto->"<< obstacle_zone_front.v_x<< endl;
      cout<<"V total ->"<< velocity_car_front <<endl;
      cout<<"eime total ->"<<time_car_front <<endl;
      
          if(time_car_front>-4 && time_car_front< 0)//obstacle_zone_front.x < 10 && obstacle_zone_front.v_x < -2)
              {
                colision_time.sit_2=1;
                string msg_text="Colision Risk!!";
                visualization_msgs::Marker marker_front_text_front=generic_text( obstacle_zone_front.x , obstacle_zone_front.y, obstacle_zone_front.z , 1, 0, 0, 1, msg_text , "/atc/vehicle/center_bumper", "front_warning");
                        
                marker_front_text_publisher.publish(marker_front_text_front);    
                      
                  //inserir condição para caso entre aqui, contar o tempo que aqui passou, 
                  //terá um intervalo superior a 0,2segundos, para verificar que ainda tem alguma.
                
              }
      //tratamento de dados, tentar visualizar a velocidade em x do ponto.
     
      
       
      
      //reference of points with a cube
      visualization_msgs::Marker marker_side=mark_side_cluster(left_zone, "side_cube" ,0, 0, 0, 1);
      marker_side_publisher.publish(marker_side);
      
      
      //reference to text and id of the point more 

      //cout<<"nuvem de pontos esquerda"<<left_zone->points.size()<<endl;
      long int exist_points_side=left_zone->points.size();
      if(exist_points_side>0)
          {
                colision_time.sit_1=1;
                
            string msg_text_side="OBJECT DETECTED";
            visualization_msgs::Marker marker_side_text =generic_text( 0 , obstacle_left.y, 2 , 0, 0, 0.487, 1, msg_text_side ,"/atc/vehicle/center_bumper","cannot_pass");
        
            marker_side_text_publisher.publish(marker_side_text);           
          }/*else{colision_time.sit_1=0;}*/
          
      
          if( partial_msg.lights_left==0 &&  plc_msg.steering_wheel<(-0.315)  ) //falta inserir se existe alguem a frente do carro!!
        {
          colision_time.sit_3=1;
          string msg_blink_side="Forgot to blink left!";
            
          visualization_msgs::Marker marker_side_text_left_blink= generic_text( 3 , 6, 2 , 0, 0, 1, 1, msg_blink_side ,"/atc/vehicle/center_bumper","Blink_left");
          
          marker_generic_text_blink_left_publisher.publish(marker_side_text_left_blink);
          //marker_side_text_blink_publisher.publish(marker_side_text_blink);
        }
         
      
         //long int exist_points_front=front_zone->points.size();
         if(  partial_msg.lights_right==0 && plc_msg.steering_wheel>(-0.275) && plc_msg.steering_wheel!=0 ) //falta inserir se existe alguem a frente do carro!!
        {
          colision_time.sit_4=1;
          string msg_blink_side="Forgot to blink right!";
            
          visualization_msgs::Marker marker_side_text_right_blink= generic_text(3 , -6, 2 , 0, 0, 1, 1, msg_blink_side ,"/atc/vehicle/center_bumper","Blink_right");
          
          marker_side_text_blink_publisher.publish(marker_side_text_right_blink);
        }
        
        begin_situation();
 
//  plc_msg={0};
// obstacle_zone_front={0};
        obstacle_zone_front.v_x =0;
};


                
int main (int argc, char **argv)
{
  ROS_INFO("Starting colision time node.");
  
  ros::init(argc,argv,"colision_time"); 
  ros::NodeHandle n;
  
  initialization_variables();
  
  //class_colision_time cenas_fixes;
  
  tf::TransformListener listener_center_bumper;   // atc/vehicle/center_bumper
  listener_center_bumper_ptr=&listener_center_bumper;
  
  //   Subscribe mtt message
  ros::Subscriber sub = n.subscribe("/mtt/trck/targets", 1, topic_callback);
//   ros::Subscriber sub_status_plc = n.subscribe("/atc/base/status/plc", 1, topic_callback_plc_status);
//   ros::Subscriber sub_partial_status = n.subscribe("/partial_status", 1, topic_callback_partial);
//   ros::Subscriber sub_velocity_status = n.subscribe("/velocity_status", 1, topic_callback_velocity);
  ros::Subscriber sub_rosout =n.subscribe("/rosout_agg", 1, topic_callback_rosout_cool);
  
  
  
  ros::Subscriber sub_status_plc = n.subscribe("/vhc/plc/status", 1, topic_callback_plc_status);
  ros::Subscriber sub_partial_status = n.subscribe("/vhc/driver/status", 1, topic_callback_partial);
  ros::Subscriber sub_velocity_status = n.subscribe("/vhc/velocity/status", 1, topic_callback_velocity);
  
  
  
  //  Publicador de pontos dentro da região
  points_pub = n.advertise<sensor_msgs::PointCloud2>("/atc/monitoring/danger_zone", 1);
 
//   cubo frontal
  marker_fronts_publisher= n.advertise<visualization_msgs::Marker>("/prcp/front_mrk", 1000);
    
  //cubo lateral
  marker_side_publisher= n.advertise<visualization_msgs::Marker>("/prcp/side_mrk", 1000);
  
  //colision Risk
  marker_front_text_publisher= n.advertise<visualization_msgs::Marker>("/prcp/front_text_mrk", 1000);
  
  //objecto detectado zona na lateral
  marker_side_text_publisher= n.advertise<visualization_msgs::Marker>("/prcp/side_text_mrk", 1000);

  
  //lado direito
  marker_side_text_blink_publisher= n.advertise<visualization_msgs::Marker>("/prcp/side_text_blink_right_mrk", 1000);
  
  //lado esquerdo
  marker_generic_text_blink_left_publisher= n.advertise<visualization_msgs::Marker>("/prcp/side_text_blink_left_mrk", 1000);
  
  
 
  ros::spin();
  
  return 1;
}


                
visualization_msgs::Marker generic_text(float x, float y, float z , float r,
float g, float b, float scale, std::string txt, std::string frm_id, std::string
ns)
{
  uint32_t shape = visualization_msgs::Marker::TEXT_VIEW_FACING;
  visualization_msgs::Marker marker_front;
  
  marker_front.header.frame_id = frm_id;
  marker_front.header.stamp = ros::Time::now();
  
  
  marker_front.ns = ns;
  marker_front.id = 0;
  marker_front.type = shape;
  marker_front.action = visualization_msgs::Marker::ADD;
  
  marker_front.pose.position.x = x;
  marker_front.pose.position.y = y;
  marker_front.pose.position.z = z;
  marker_front.scale.z = scale;
  
   
  //message to send in the msg.
  
  marker_front.text=txt;
 
  marker_front.color.r = r;
  marker_front.color.g = g;
  marker_front.color.b = b;
  marker_front.color.a = 0.8;
  
  marker_front.lifetime = ros::Duration(0.4);
  return marker_front;
}






visualization_msgs::Marker mark_cluster(pcl::PointCloud<pcl::PointXYZ>::Ptr cloud_cluster, std::string ns ,int id, float r, float g, float b)
{
  Eigen::Vector4f centroid;
  Eigen::Vector4f min;
  Eigen::Vector4f max;
  
  pcl::compute3DCentroid (*cloud_cluster, centroid);
  pcl::getMinMax3D (*cloud_cluster, min, max);
  
  uint32_t shape = visualization_msgs::Marker::CUBE;
  visualization_msgs::Marker marker_front;
  marker_front.header.frame_id = cloud_cluster->header.frame_id;
  marker_front.header.stamp = ros::Time::now();
  
  marker_front.ns = ns;
  marker_front.id = id;
  marker_front.type = shape;
  marker_front.action = visualization_msgs::Marker::ADD;
  
  
  //market's position is in the minimum x cordinate of the point
  marker_front.pose.position.x = min[0];
  marker_front.pose.position.y = centroid[1];
  marker_front.pose.position.z = centroid[2];
  marker_front.pose.orientation.x = 0.0;
  marker_front.pose.orientation.y = 0.0;
  marker_front.pose.orientation.z = 0.0;
  marker_front.pose.orientation.w = 1.0;
  
  marker_front.scale.x = 1;//(max[0]-min[0]);
  marker_front.scale.y = 1;//(max[1]-min[1]);
  marker_front.scale.z = 1;//(max[2]-min[2]);

  marker_front.color.r = r;
  marker_front.color.g = g;
  marker_front.color.b = b;
  marker_front.color.a = 0.5;
  
//   marker_front.lifetime = ros::Duration();
    marker_front.lifetime = ros::Duration(0.3);
  return marker_front;
}





visualization_msgs::Marker mark_side_cluster(pcl::PointCloud<pcl::PointXYZ>::Ptr cloud_cluster, std::string ns ,int id, float r, float g, float b)
{
  Eigen::Vector4f centroid;
  Eigen::Vector4f min;
  Eigen::Vector4f max;
  
  pcl::compute3DCentroid (*cloud_cluster, centroid);
  pcl::getMinMax3D (*cloud_cluster, min, max);
  
  uint32_t shape = visualization_msgs::Marker::CUBE;
  visualization_msgs::Marker marker_side;
  marker_side.header.frame_id = cloud_cluster->header.frame_id;
  marker_side.header.stamp = ros::Time::now();
  
  marker_side.ns = ns;
  marker_side.id = id;
  marker_side.type = shape;
  marker_side.action = visualization_msgs::Marker::ADD;
  
  
  //market's position is in the minimum x cordinate of the point
  marker_side.pose.position.x = max[0];
  marker_side.pose.position.y = centroid[1];
  marker_side.pose.position.z = centroid[2];
  marker_side.pose.orientation.x = 0.0;
  marker_side.pose.orientation.y = 0.0;
  marker_side.pose.orientation.z = 0.0;
  marker_side.pose.orientation.w = 1.0;
  
  marker_side.scale.x = 1;//(max[0]-min[0]);
  marker_side.scale.y = 1;//(max[1]-min[1]);
  marker_side.scale.z = 1;//(max[2]-min[2]);

  marker_side.color.r = r;
  marker_side.color.g = g;
  marker_side.color.b = b;
  marker_side.color.a = 1;
  
//   marker_front.lifetime = ros::Duration();
    marker_side.lifetime = ros::Duration(0.3);
  return marker_side;
}

---

driver_monitoring
Author(s): artur
autogenerated on Wed Jul 23 04:35:08 2014