Example #1
0
/**
 * Main.
 *
 * @param   int      number of arguments
 * @param   char**   arguments
 * @return  int
 */
int main(int argc, char **argv)
{
	// Make sure we have the minimum number of arguments
	if (argc != 9)
	{
		printf("Not enough arguments: %d", argc);
		throw;
	}

	Simulator::Config config = Simulator::Config();

	// Set bitmap file locations
	config.real_bitmap = argv[2];
	config.robot_bitmap = argv[3];

	// Start position (x, y)
	config.start.first = atoi(argv[4]);
	config.start.second = atoi(argv[5]);

	// Goal position (x, y)
	config.goal.first = atoi(argv[6]);
	config.goal.second = atoi(argv[7]);

	// Robot scan radius
	config.scan_radius = atoi(argv[8]);

	// Build the simulator and draw
	Simulator sim = Simulator(argv[1], config);
	sim.draw();

	return 0;
}
Example #2
0
int main() {
	cout << "Hello World!!!" << endl; // prints Hello World!!!

	string u=getenv("USER");

//	string filename="/home/vapashos/JSVM/jsvm/JSVM/H264Extension/data/test.264";
//	string traceFile="/home/vapashos/JSVM/jsvm/JSVM/H264Extension/data/trace.txt";
	string filename="/home/"+u+"/JSVM/jsvm/JSVM/H264Extension/data/test.264";
	string traceFile="/home/"+u+"/JSVM/jsvm/JSVM/H264Extension/data/trace.txt";




	Simulator sim=Simulator(5,filename,traceFile);
	sim.createMeshTopology();
	sim.s->createCodedPacket(sim.s->segments[12]);

	char c;
	for(int simTime=0;simTime<2000;simTime++){
		cout<<"###############################################################"<<endl;
		cout<<"#                                    TIMESLOT "<<simTime+1<<"                           							#"<<endl;
		cout<<"###############################################################"<<endl;
		sim.simulate3GTransmissions(simTime);
		sim.simulateWIFIBroadcasts(simTime);
		//cin>>c;
		//sim.showChannelBuffer();
		if(channel3G::status==0 ){
			cout<<"All downloads on 3G finished "<<endl;
			if(sim.checkNodeQueues(simTime)){
				cout<<"There is nothing to be transmitted inside the lan"<<endl;
				break;
			}

			//sim.showNodeSegmentList();
			//break;
		}
		/*if(simTime%100==0)
			cin>>c;*/


		cout<<"********************Enf OF   TimeSlot "<<simTime+1<<" ***********************"<<endl;
	//	if(simTime%2==0)
			//cin>>c;

	}
	cout.flush();
	cout<<"*****************************************"<<endl;


	cout<<"finished"<<endl;
	cout<<"-------------------------- "<<endl;

	return 0;
}
Example #3
0
int main( int argc, char* args[] )
{
	printf("Main started\n");
	Simulator sim = Simulator(1);
	sim.Initialize();
	sim.Start();

	// Add Gravity module
	
	SimulatorModule_Gravity* Gravity = new SimulatorModule_Gravity();

	sim.AddModule( (SimulatorModule*) Gravity );
	
	sim.NextTick();
	
	//SDL_Delay(2000);
	
	sim.Stop();
	return 0;
}
Example #4
0
int Manual()
{
  int PVi, k;
        K= uatof(Gain);
  /* Things will be drawn more quickly if you always acquire the screen before
     trying to draw onto it. */
  acquire_screen();
  
  Graphics();	/* Call to graphics from a different function to avoid messy code */
  
  int dir = 1;   //since we are receiving data, direction should be 1
  int mode = IEEE1284_MODE_COMPAT; // parameter to set mode 'receive'
  RLE_SPRITE *rle;
  
  /* Set the direction for reception */
  ioctl(fd, PPDATADIR, &dir);
  ioctl(fd, PPWDATA, 0);
  
  PVi= 0;  k= 100;  M=0;
  while (!key[KEY_ESC])	/* Only pressing ESC can Exit */
    {
      M++;
      /* Check if user needs some help */
      if(key[KEY_F1])
	Help();

      k++;
      i= 897;
      
      Captura = create_sub_bitmap(screen, 72, 350, 898, 368);
      rle = get_rle_sprite(Captura);
      destroy_bitmap(Captura);
      draw_rle_sprite(screen, rle, 71, 350);
      destroy_rle_sprite(rle);
      
      /* This line reads data from the interfase which is
	 the process variable(measured variable) of the system */
      ioctl(fd, PPRDATA, &PVi);
      PV= PVi;
      
      if(PV<=40)
	{
	  PV= 51;
	  system("festival --tts Messages/Disconnected&");
	  blit(Disconnected, screen, 0, 0, 70, 290, 887, 52);   
	}
      
      if(PV<=48)
        PVi= 51;
      
      PV= 1.794117647*(PVi-51);
      SP= PV;
      
      if(key[KEY_RIGHT])
	{
          fd = close("/dev/parport0");	
	  Simulator();
        }
      if(key[KEY_PGUP])
	OP= (OP+46);
      
      if(key[KEY_PGDN])
	OP= (OP-46);
      
      if(key[KEY_UP])
	OP= (OP+3.66);
      
      if(key[KEY_DOWN])
	{
	  if(OP>=1)
	    OP= (OP-3.66);
	}
      
      if(key[KEY_PRTSCR])
	{
          Captura = create_sub_bitmap(screen, 0, 0, 1024, 768);
          save_bitmap("images/User/Captura.pcx", Captura, pal);
          destroy_bitmap(Captura);
        }
      
      Timer++;
      
      if(OP<=0)
	OP= 0;
      
      
      if (PV>=40)
	{
	  textprintf_ex(screen, font, 230, 297, BLACK, WHITE, "%3.1f", (PV/368)*100);	// Medición
	  textprintf_ex(screen, font, 450, 297, BLACK, WHITE, "%3.1f", (SP/368)*100);	// SP
	  textprintf_ex(screen, font, 710, 297, BLACK, WHITE, "%3.1f", (OP/368)*100);	// Controlador
	}
      
      if(k>=100)
	{
 	  k= 0;
	  vline(screen, 967, 351, 717, GRAY);
          blit(Clean, screen, 0, 0, 968, 350, 2, 368);
	}
      
      int Recorder;
      Recorder++;
      if(Recorder>=900)
	{
 	  Recorder= 0;
	  Captura = create_sub_bitmap(screen, 258, 350, 715, 368);
	}
      
      Captura = create_sub_bitmap(screen, 248, 350, 705, 368);
      
      
      if(PV>=362) PV= 365;
      if(OP>=367) OP= 365;
      
      if(PV<=0) PV= 0;
      if(OP<=0) OP= 0;
      
      /* Draw the behaviour of the PV, SP and OP over time */
      line(screen, 71+i, 717-PV, 71+i, 717-PVj, RED);	
      PVj= PV;    /* Flag for line y2 as a precedent state */
      line(screen, 71+i, 717-OP, 71+i, 717-OPj, BLUE);	
      OPj= OP;    /* Flag for line y2 as a precedent state */
      
      fprintf(outfile,"%i\t%f\t %f\t %f\n", M, ((PV/368)*100), ((SP/368)*100), ((OP/368)*100));
      rest(Delay);
    }
  int ScreenWide;
  RLE_SPRITE *rle0, *rle1;
  BITMAP *Screen3;

  Screen3 = load_bitmap("images/Close/Base.pcx", pal);
  system("mp3blaster /home/mentesuprema/Residencia/sounds/swing2.wav &");
  rest(5);

  rle0= get_rle_sprite(Screen2);
  rle1= get_rle_sprite(Screen3);
  
  for(ScreenWide=0;ScreenWide<=768;ScreenWide=ScreenWide+5)
    {
      draw_rle_sprite(screen, rle0, 0, 768);
      draw_rle_sprite(screen, rle1, 0, -768+ScreenWide);
    }

  destroy_rle_sprite(rle0);  
  destroy_rle_sprite(rle1);    
  destroy_bitmap(Screen2);
  destroy_bitmap(Screen3);
  destroy_bitmap(Clean);
  destroy_bitmap(Disconnected);
  release_screen();
  Close();
  exit(0);
} 
Example #5
0
int Manual(int argc, unsigned char **argv)
{
  /* Serial port initialization */

  fd = open("/dev/ttyS0", O_RDWR | O_NOCTTY | O_NDELAY);
  if (fd == -1) {
    perror("open_port: Unable to open /dev/ttyS0 - ");
    return 1;
  } else {
    fcntl(fd, F_SETFL, 0);
  }
  getbaud(fd);

  initport(fd);

  int PVi, k;
        K= uatof(Gain);
  /* Things will be drawn more quickly if you always acquire the screen before
     trying to draw onto it. */
  acquire_screen();
  
  Graphics();	/* Call to graphics from a different function to avoid messy code */
  
  RLE_SPRITE *rle;
 
            sCmd[0]= 'C';
            writeport(fd, sCmd);

  PVi= 0;  k= 100;  M=0;
  while (!key[KEY_ESC])	/* Only pressing ESC can Exit */
    {
	char ValveState;
	if(ValveState=='O')
	{
            sCmd[0]= 'A';
            writeport(fd, sCmd);
	}
	if(ValveState=='C')
	{
            sCmd[0]= 'C';
            writeport(fd, sCmd);
	}
	


      M++;
      /* Check if user needs some help */
      if(key[KEY_F1])
	Help();

      k++;
      i= 897;
      
      Captura = create_sub_bitmap(screen, 72, 350, 898, 368);
      rle = get_rle_sprite(Captura);
      destroy_bitmap(Captura);
      draw_rle_sprite(screen, rle, 71, 350);
      destroy_rle_sprite(rle);

      /* This line reads data from the interfase which is
	 the process variable(measured variable) of the system */
          fcntl(fd, F_SETFL, FNDELAY); // don't block serial read
	  readport(fd,sResult);
	  PVi= (int) *sResult;
	  PV= PVi;      
/*
      if(PVi<=40)
	{
	  PV= 51;
	  system("festival --tts Messages/Disconnected&");
	  blit(Disconnected, screen, 0, 0, 70, 290, 887, 52);   
	}
   */   
      if(PV<=48)
        PVi= 51;
      
      PV= 1.794117647*(PVi-51);
      SP= PV;
      
      if(key[KEY_RIGHT])
	{
          //fd = close("/dev/parport0");	
	  Simulator();
        }
      if(key[KEY_PGUP])
	OP= (OP+46);
      
      if(key[KEY_PGDN])
	OP= (OP-46);
      
      if(key[KEY_UP])
	{
	    OP=162; //(OP+3.66);
            sCmd[0]= 'A';
            writeport(fd, sCmd);
	    ValveState='O';
	}

      if(key[KEY_DOWN])
	{
	  if(OP>=1)
	    OP= 0;//(OP-3.66);
            sCmd[0]= 'C';
            writeport(fd, sCmd);
	    ValveState='C';
	}
      
      if(key[KEY_PRTSCR])
	{
          Captura = create_sub_bitmap(screen, 0, 0, 1024, 768);
          save_bitmap("images/User/Captura.pcx", Captura, pal);
          destroy_bitmap(Captura);
        }
      
      Timer++;
      
      if(OP<=0)
	OP= 0;
      
      
//      if (PV>=40)
//	{
	  textprintf_ex(screen, font, 230, 297, BLACK, WHITE, "%3.1f", (PV/368)*100);	// Medición
	  textprintf_ex(screen, font, 450, 297, BLACK, WHITE, "%3.1f", (SP/368)*100);	// SP
	  textprintf_ex(screen, font, 710, 297, BLACK, WHITE, "%3.1f", (OP/368)*100);	// Controlador
//	}
      
      if(k>=100)
	{
 	  k= 0;
	  vline(screen, 967, 351, 717, GRAY);
          blit(Clean, screen, 0, 0, 968, 350, 2, 368);
	}
      
      int Recorder;
      Recorder++;
      if(Recorder>=900)
	{
 	  Recorder= 0;
	  Captura = create_sub_bitmap(screen, 258, 350, 715, 368);
	}
      
      Captura = create_sub_bitmap(screen, 248, 350, 705, 368);
      
      
      if(PV>=362) PV= 365;
      if(OP>=367) OP= 365;
      
      if(PV<=0) PV= 0;
      if(OP<=0)
	 OP= 1;
/*
      OPi= fixtoi(itofix((OP*0.69234783)/255*100));
      sCmd[0]= (unsigned char)OPi+50;
      sCmd[0]= sCmd[0]+0.00;
      writeport(fd, sCmd);
*/
//     textprintf_ex(screen, font, 30, 297, BLACK, WHITE, "%i - %s - %3.1f", PVi, sResult, PV);	// Medición      

      /* Draw the behaviour of the PV, SP and OP over time */
      line(screen, 71+i, 717-PV, 71+i, 717-PVj, RED);	
      PVj= PV;    /* Flag for line y2 as a precedent state */
      line(screen, 71+i, 717-OP, 71+i, 717-OPj, BLUE);	
      OPj= OP;    /* Flag for line y2 as a precedent state */
      
      fprintf(outfile,"%i\t%f\t %f\t %f\n", M, ((PV/368)*100), ((SP/368)*100), ((OP/368)*100));
      rest(Delay);
    }
  int ScreenWide;
  RLE_SPRITE *rle0, *rle1;
  BITMAP *Screen3;

  Screen3 = load_bitmap("images/Close/Base.pcx", pal);
  system("mp3blaster /home/mentesuprema/Residencia/sounds/swing2.wav &");
  rest(5);

  rle0= get_rle_sprite(Screen2);
  rle1= get_rle_sprite(Screen3);
  
  for(ScreenWide=0;ScreenWide<=768;ScreenWide=ScreenWide+5)
    {
      draw_rle_sprite(screen, rle0, 0, 768);
      draw_rle_sprite(screen, rle1, 0, -768+ScreenWide);
    }

  destroy_rle_sprite(rle0);  
  destroy_rle_sprite(rle1);    
  destroy_bitmap(Screen2);
  destroy_bitmap(Screen3);
  destroy_bitmap(Clean);
  destroy_bitmap(Disconnected);
  release_screen();
  Close();
  exit(0);
} 
Example #6
0
void Selection (int argc, char **argv)
{
    clear ();
    refresh ();
    flushinp ();

    struct passwd *user = getpwnam (getlogin ());

    attrset (A_BOLD);
    box (stdscr, 0, 0);
    attrset (A_NORMAL);
    mvaddstr (4, 3,  "   OOOOOOOOOO O");
    mvaddstr (5, 3,  " O        OOO  OOOOOOO");
    mvaddstr (6, 3,  "O                     O");
    mvaddstr (7, 3,  "OOOOOOOOOOOOOOOOOOOOOOOO");
    mvaddstr (8, 3,  "  OOOOO         OOOOO");
    mvaddstr (9, 3,  "   OOO           OOO");
    mvaddstr (2, 34, "         /--\\                /--\\");
    mvaddstr (3, 34, "        / || \\              / || \\");
    mvaddstr (4, 34, "       /  ||  \\            /  ||  \\");
    mvaddstr (5, 34, "      /   ||   \\          /   ||   \\");
    mvaddstr (6, 34, "     /    ||    \\        /    ||    \\");
    mvaddstr (7, 34, "    /     ||     \\______/     ||     \\");
    mvaddstr (8, 34, "   /      ||                  ||      \\");
    mvaddstr (9, 34, "__/       ||                  ||       \\__");
    attrset (A_STANDOUT);
    mvaddstr (11, 1,  ":::::::::::::::...");
    mvaddstr (11, 59, "...:::::::::::::::::");
    attrset (A_NORMAL);
    attrset (A_REVERSE);
    mvaddstr (11, 19, "WELCOME TO THE VEHICLE DRIVING SIMULATOR");
    attrset (A_NORMAL);
    mvaddstr (13, 4,  "With the freeway under construction traffic has ");
    mvaddstr (13, 52, "reached critical mass.");
    mvprintw (14, 4,  "%s, what kind of vehicle would you like to drive?", user->pw_gecos);
    attrset (A_BOLD | A_BLINK);
    mvprintw (2,  6,  "Hi %s!", user->pw_name);
    attrset (A_NORMAL);
    attrset (A_BOLD);
    mvprintw (14, 4,  "%s", user->pw_gecos);
    mvaddstr (16, 23, "For a regular car, press..... C");
    mvaddstr (17, 23, "For a fast truck, press...... T");
    mvaddstr (18, 23, "For a slow bus, press........ B");
    mvaddstr (19, 23, "To quit simulator, press..... ESC");
    attrset (A_NORMAL);
    mvaddstr (22, 19, "Your vehicle will be illustrated in bold.");

    int distance = DEFAULT_DISTANCE, again = 1;

    while (again)
        switch (getch ())
        {
            case 'c':
            case 'C':
            case '\n':
                SelectDistance (argc, argv, distance);
                Simulator (new Car (distance), "Car", distance);
                again = 0;
                break;
            case 't':
            case 'T':
                SelectDistance (argc, argv, distance);
                Simulator (new Truck (distance), "Truck", distance);
                again = 0;
                break;
            case 'b':
            case 'B':
                SelectDistance (argc, argv, distance);
                Simulator (new Bus (distance), "Bus", distance);
                again = 0;
                break;
            case 033:
                clear ();
                refresh ();
                endwin ();
                exit (0);
            default:
                beep ();
                again = 1;
        }
}
int main(int argc, char **argv)
{
	//ROS stuff
	ros::init(argc, argv, "simulate_node");
	ros::NodeHandle n;
	ros::Publisher filter_target_pub = n.advertise<laser_package::state>("/filter_topic",1000); //publish targets to new topic
	//ros::ServiceClient client_update = n.serviceClient<laser_package::update_tracker>("updateFilter");
	//ros::ServiceClient client_initialize = n.serviceClient<laser_package::update_tracker>("initializeFilter");
	laser_package::update_tracker srv;
	laser_package::state state_msg;
	ros::Rate r(floor(1/SAMPLING_INTERVAL+0.5));
	
	//random noise stuff
	std::default_random_engine measurement_generator;
	std::normal_distribution<double> meas_noise(MU_W_SIMULATE,VAR_W_SIMULATE);
	
	//simulator class
	Simulator simulator = Simulator();
	
	//other variables
	Eigen::VectorXd next_x(5), past_x(5);
	double w;
	past_x << 0, 10, 0, 0, OMEGA_RADS; // initial vector: xi, xi_dot, eta, eta_dot, omega
	
	
	simulator.initializeSimulators(past_x);
	/*srv.request.initial_x = past_x(XI);
	srv.request.initial_x_velocity = past_x(XI_DOT);
	srv.request.initial_y = past_x(ETA);
	srv.request.initial_y_velocity = past_x(ETA_DOT);
	srv.request.initial_turn_rate = past_x(OMEGA);
	srv.request.sampling_interval = SAMPLING_INTERVAL;
	srv.request.update_time = ros::Time::now().toSec();
	srv.request.measurement_noise_mean = MU_W;
	srv.request.measurement_noise_variance = VAR_W;*/
	//initialize tracker(s)

	
	int counter = 0;
	
	//client_initialize.call(srv);
	
	while(ros::ok())
	{
		w = meas_noise(measurement_generator);//noises
		if(counter<300)
		{
			next_x = simulator.simulateCoordinatedTurn(OMEGA_RADS);	
			//next_x = simulator.simulateUniformMotion();
		}
		else if (counter>300&counter<500)
		{
			//next_x = simulator.simulateUniformMotion();
			next_x = simulator.simulateCoordinatedTurn(OMEGA_RADS);	
		}
		else if (counter>500&&counter<1100)
		{
			next_x = simulator.simulateUniformMotion();
			//next_x = simulator.simulateCoordinatedTurn(OMEGA_RADS);	
		}
		else
		{
			next_x = simulator.simulateUniformMotion();
			//next_x = simulator.simulateCoordinatedTurn(OMEGA_RADS);	
		}
		//update values
		state_msg.Real_X = next_x(XI);
		state_msg.Measured_X = next_x(XI) + w;
		state_msg.Real_Y = next_x(ETA);
		state_msg.Measured_Y = next_x(ETA) + w;
		state_msg.Time_Of_Measurement = ros::Time::now().toSec();
		filter_target_pub.publish(state_msg);
		counter++;
		//send update
		//if(client_update.call(srv));
		
		ros::spinOnce();
		
		r.sleep();
	}
	
	
	
	

	return 0;
}