IMPORTANT : THIS REPOSITORY WAS MOVED TO THE NEW ORGANIZATION "RoboCup Rescue Simulation Virtual Robot League."
This repository includes a robot model and field models used in RoboCup World Champion Ship 2017 Rescue Simulation Virtual Robot League(RC2017RVRL).
You can find other records of the RC2017RVRL game in wiki page of this repository.
And you can find important information like the latest rule in the rescue virtual robot league wiki page.
In this year, we used "pioneer3at" robot, 5 fields for 3 preliminary games and a final game including 2 runs.
And 4 kinds of victims were prepared; hot victim, moving victim, voice victim, dead victim.
The hot victim can be seen as white by using a thermal camera.
The moving victim is waving his right arm.
The voice victim is saying "Help me".
Dead victim is not hot, does not move his arm, and does not say anything.
In all game, only hot victims and dead victims were used. Because Moving victims took CPU power too much and almost of all teams wanted to use their own pioneer3at models that did not have a microphone.
At the first team leader meeting(night of 25th), we defined sensor parameter values to keep same performance(Real Time Factor of gazebo). Each team did set those values of sensor parameters into their robot code.
Sensor parameters were:
HOKUYO:
The number of beams: 1040
Frequency: 30
Camera:
Resolusion: 320 x 240
Frequency: 30
Thermal Camera:
Resolusion: 160 x 120
Frequency: 10
Quadrotor model was added.
You can see and control 4 quadrotor robots by following instructions:
At Terminal 1:
$ cd ~/RoboCup2017RVRL_Demo
$ source setup.bash
$ roslaunch rc2017rvrl F1_sdf_quadrotor.launch
OR
$ cd ~/RoboCup2017RVRL_Demo
$ source setup.bash
$ roslaunch rc2017rvrl F2_sdf_quadrotor.launch
OR
$ cd ~/RoboCup2017RVRL_Demo
$ source setup.bash
$ roslaunch rc2017rvrl PreL1_sdf_quadrotor.launch (BUGGY, do not use this)
OR
$ cd ~/RoboCup2017RVRL_Demo
$ source setup.bash
$ roslaunch rc2017rvrl PreL2_sdf_quadrotor.launch
OR
$ cd ~/RoboCup2017RVRL_Demo
$ source setup.bash
$ roslaunch rc2017rvrl PreL3_sdf_quadrotor.launch
At Terminal 2:
$ cd ~/RoboCup2017RVRL_Demo
$ source setup.bash
$ roslaunch hector_quadrotor_teleop buffalo_gamepad.launch robot:=robot0
(AND PUSH No.4 BUTTON TO START!!)
(You can also use logitech_gamepad.launch or sony_dualshock3.launch or xbox_controller.launch, and you should read them to find whch button is for start.)
At Terminal 3:
$ rosrun image_view2 image_view2 image:=/robot0/camera_ros/image
You can use robot1, robot2, robot3 instead of robot0.
Centaur robot model was added.
You can see and control 4 quadrotor robots by following instructions:
At Terminal 1:
$ cd ~/RoboCup2017RVRL_Demo
$ source setup.bash
$ roslaunch rc2017rvrl F1_sdf_centaur.launch
OR
$ cd ~/RoboCup2017RVRL_Demo
$ source setup.bash
$ roslaunch rc2017rvrl F2_sdf_centaur.launch
OR
$ cd ~/RoboCup2017RVRL_Demo
$ source setup.bash
$ roslaunch rc2017rvrl PreL1_sdf_centaur.launch (BUGGY, do not use this)
OR
$ cd ~/RoboCup2017RVRL_Demo
$ source setup.bash
$ roslaunch rc2017rvrl PreL2_sdf_centaur.launch
OR
$ cd ~/RoboCup2017RVRL_Demo
$ source setup.bash
$ roslaunch rc2017rvrl PreL3_sdf_centaur.launch
At Terminal 2:
$ cd ~/RoboCup2017RVRL_Demo
$ source setup.bash
$ roslaunch rc2017rvrl centaur_init_pose4.launch (do this after the map displayed)
$ roslaunch rc2017rvrl centaur_joint_trajectory.launch robot_name:=robot0
You can know how to use the rqt trajectory controller heuristically.
Try it!
At Terminal 3:
$ rosrun image_view2 image_view2 image:=/robot0/camera_ros/image
You can use robot1, robot2, robot3 instead of robot0.
Several field models are heavy. You should use a desktop machine having a graphic card.
Following is a common specification of PCs used in RC2017RVRL.
CPU: intel Core i-7 4790K 4GHz 8 cores
MEM: 16G Bytes
GPU: nVidia GTX 1070
Please done installation of Ubuntu 16.04 LTS (64bit).
Do followings:
sudo sh -c 'echo "deb http://packages.ros.org/ros/ubuntu $(lsb_release -sc) main" > /etc/apt/sources.list.d/ros-latest.list'
sudo apt-key adv --keyserver hkp://pool.sks-keyservers.net --recv-key 0xB01FA116
sudo sh -c 'echo "deb http://packages.osrfoundation.org/gazebo/ubuntu `lsb_release -cs` main" > /etc/apt/sources.list.d/gazebo-latest.list'
wget http://packages.osrfoundation.org/gazebo.key -O - | sudo apt-key add -
sudo apt-get update
sudo apt-get install -y cmake g++ protobuf-compiler pavucontrol libgazebo7 libgazebo7-dev ros-kinetic-desktop ros-kinetic-gazebo-ros-pkgs ros-kinetic-gazebo-ros-control ros-kinetic-ros-control ros-kinetic-ros-controllers ros-kinetic-image-view2 ros-kinetic-rqt ros-kinetic-rqt-common-plugins ros-kinetic-joy ros-kinetic-teleop-twist-keyboard ros-kinetic-message-to-tf ros-kinetic-tf2-geometry-msgs ros-kinetic-audio-common ros-kinetic-costmap-2d ros-kinetic-image-transport ros-kinetic-image-transport-plugins ros-kinetic-hector-mapping ros-kinetic-hector-geotiff ros-kinetic-hector-pose-estimation ros-kinetic-hector-gazebo-plugins ros-kinetic-hector-gazebo-worlds ros-kinetic-hector-sensors-description
sudo rosdep init
rosdep update
sudo apt-get install -y python−rosinstall
gazebo (and wait for finish of downloading fundamental models)
IMPORTANT NOTICE
NOW YOU CAN USAE GAZEBO VERSION over 7.7.0, evenif 7.8.1.
But if you saw your robot written in SDF, you have to read following lines.
At last, WE USED GAZEBO VERSION 7.7.0 in the final.
In Gazebo version 7.8.1, pioneer3at written in sdf slipped.
In Gazebo version 7.0.0, each pioneer3at written in sdf and urdf could move normally, but a field model for 2nd run of final game could not be loaded.
Gazebo version 7.7.0 could let pioneer3at move normally and load the last field model.
If you can not install gazebo version 7.7.0 in binary package, you can install it from source.
See here.
Type following commands in a terminal.
$ cd
$ git clone https://github.com/m-shimizu/RoboCup2017RVRL_Demo
Build packages including this repository.
$ cd ~/RoboCup2017RVRL_Demo
$ catkin_make
In the preliminary 1, by solving each team's connectivity trouble between each the game server and the team own robot controller, an old "victim175" model was used. All 5 victims were alive instead of "4 alive victims and 1 dead victim".
In this repository, You can see 4 alive victims and 1 dead victim in the preliminary 1 field.
| Game | Size | # of robots | # of alive victims | # of dead victims |
|---|---|---|---|---|
| Preliminary 1 | 88m x 92m | 4 | 4 | 1 |
| Preliminary 2 | 90m x 70m | 4 | 4 | 4 |
| Preliminary 3 | 220m x 200m | 4 | 4 | 4 |
| Final 1st run | 154m x 162m | 4 | 4 | 4 |
| Final 2nd run | 104m x 204m | 4 | 4 | 6 |
At first, run following commands in each terminal:
$ cd
$ cd RoboCup2017RVRL_Demo
$ source setup.bash
Then run a command which you want to try.
You should use a set of terminals by a team and a game slot.
To increase stability, by every game, we checked connectivity between each game server and each team's own robot control software, and improved server side launch files.
FOR THE NEXT YEAR
We will have to start getting a commonsense about server side launch files and robot models from the next January. Checking game environment by each team at least 1 month before the next competition will be a required condition from the next competition.
__[Preliminary 1] __
| Team Name/Terminal # | Command |
|---|---|
| * ChukyoRescue A | |
| Terminal 1 | roslaunch rc2017rvrl PreL1_sdf_org.launch |
| * ChukyoRescue B | |
| Terminal 1 | roslaunch rc2017rvrl PreL1_sdf_org.launch |
| * Echoic | |
| Terminal 1 | roslaunch rc2017rvrl PreL1_urdf_echoic.launch |
| Terminal 2 | roslaunch pioneer2017 spawn_robots_PreL1.launch |
| * MRL | |
| Terminal 1 | roslaunch rc2017rvrl PreL1_sdf_org.launch |
| * SOSVR | |
| Terminal 1 | roslaunch p3at_urdf PreL1.launch |
| * Yildiz | |
| Terminal 1 | roslaunch rc2017rvrl PreL1_sdf_yildiz.launch |
__[Preliminary 2] __
| Team Name/Terminal # | Command |
|---|---|
| * ChukyoRescue A | |
| Terminal 1 | roslaunch rc2017rvrl PreL2_sdf_org.launch |
| * ChukyoRescue B | |
| Terminal 1 | roslaunch rc2017rvrl PreL2_sdf_org.launch |
| * Echoic | |
| Terminal 1 | roslaunch rc2017rvrl PreL2_urdf_echoic.launch |
| Terminal 2 | roslaunch pioneer2017 spawn_robots_PreL2.launch |
| * MRL | |
| Terminal 1 | roslaunch rc2017rvrl PreL2_sdf_MRL.launch |
| * SOSVR | |
| Terminal 1 | roslaunch rc2017rvrl PreL2_urdf_sos.launch |
| Terminal 2 | roslaunch rc2017rvrl PreL2_urdf_sos_spawn.launch |
| Terminal 3 | roslaunch rc2017rvrl PreL2_urdf_sos_spawn_1.launch |
| Terminal 4 | roslaunch rc2017rvrl PreL2_urdf_sos_spawn_2.launch |
| Terminal 5 | roslaunch rc2017rvrl PreL2_urdf_sos_spawn_3.launch |
| * Yildiz | |
| Terminal 1 | roslaunch rc2017rvrl PreL2_sdf_yildiz.launch |
__[Preliminary 3] __
| Team Name/Terminal # | Command |
|---|---|
| * ChukyoRescue A | |
| Terminal 1 | roslaunch rc2017rvrl PreL3_sdf_org.launch |
| * ChukyoRescue B | |
| Terminal 1 | roslaunch rc2017rvrl PreL3_sdf_org.launch |
| * Echoic | |
| Terminal 1 | roslaunch rc2017rvrl PreL3_urdf_no_robot.launch |
| Terminal 2 | roslaunch pioneer2017 spawn_robots_PreL3.launch |
| * MRL | |
| Terminal 1 | roslaunch rc2017rvrl PreL3_sdf_MRL.launch |
| * SOSVR | |
| Terminal 1 | roslaunch rc2017rvrl PreL3_no_robot.launch |
| Terminal 2 | roslaunch rc2017rvrl PreL3_urdf_sos_spawn.launch |
| Terminal 3 | roslaunch rc2017rvrl PreL3_urdf_sos_spawn_1.launch |
| Terminal 4 | roslaunch rc2017rvrl PreL3_urdf_sos_spawn_2.launch |
| Terminal 5 | roslaunch rc2017rvrl PreL3_urdf_sos_spawn_3.launch |
| * Yildiz | |
| Terminal 1 | roslaunch rc2017rvrl PreL3_sdf_yildiz.launch |
__[Final 1st run] __
| Team Name/Terminal # | Command |
|---|---|
| * ChukyoRescue B | |
| Terminal 1 | roslaunch rc2017rvrl F1_sdf_org.launch |
| * Echoic | |
| Terminal 1 | roslaunch rc2017rvrl F1_urdf_no_robot.launch |
| Terminal 2 | roslaunch pioneer2017 spawn_robots_F1_1.launch |
| Terminal 3 | roslaunch pioneer2017 spawn_robots_F1_2.launch |
| Terminal 4 | roslaunch pioneer2017 spawn_robots_F1_3.launch |
| Terminal 5 | roslaunch pioneer2017 spawn_robots_F1_4.launch |
| * SOSVR | |
| Terminal 1 | roslaunch rc2017rvrl F1_no_robot.launch |
| Terminal 2 | roslaunch rc2017rvrl F1_urdf_sos_spawn.launch |
| Terminal 3 | roslaunch rc2017rvrl F1_urdf_sos_spawn_1.launch |
| Terminal 4 | roslaunch rc2017rvrl F1_urdf_sos_spawn_2.launch |
| Terminal 5 | roslaunch rc2017rvrl F1_urdf_sos_spawn_3.launch |
| * Yildiz | |
| Terminal 1 | roslaunch rc2017rvrl F1_sdf_yildiz.launch |
__[Final 2nd run] __
| Team Name/Terminal # | Command |
|---|---|
| * ChukyoRescue B | |
| Terminal 1 | roslaunch rc2017rvrl F2_sdf_org.launch |
| * Echoic | |
| Terminal 1 | roslaunch rc2017rvrl F2_urdf_no_robot.launch |
| Terminal 2 | roslaunch pioneer2017 spawn_robots_F2_1.launch |
| Terminal 3 | roslaunch pioneer2017 spawn_robots_F2_2.launch |
| Terminal 4 | roslaunch pioneer2017 spawn_robots_F2_3.launch |
| Terminal 5 | roslaunch pioneer2017 spawn_robots_F2_4.launch |
| * SOSVR | |
| Terminal 1 | roslaunch rc2017rvrl F2_no_robot.launch |
| Terminal 2 | roslaunch rc2017rvrl F2_urdf_sos_spawn.launch |
| Terminal 3 | roslaunch rc2017rvrl F2_urdf_sos_spawn_1.launch |
| Terminal 4 | roslaunch rc2017rvrl F2_urdf_sos_spawn_2.launch |
| Terminal 5 | roslaunch rc2017rvrl F2_urdf_sos_spawn_3.launch |
| * Yildiz | |
| Terminal 1 | roslaunch rc2017rvrl F2_sdf_yildiz.launch |
At first, you need to check topic names of each robot.
And then, you can cnotrol a robot.
Followings are an exampole in case of pioneer3at_ros was spawned.
$ rostopic list
$ rosrun teleop_twist_keyboard teleop_twist_keyboard.py cmd_vel:=/pioneer3at_ros/cmd_vel
A network configuration set shown as below was used. All PC has next 6 entries in /etc/hosts.
host1 10.3.2.1
host2 10.3.2.2
host3 10.3.2.3
host4 10.3.2.4
player1 10.3.2.5
player6 10.3.2.6
Below table shows each PC's hostname, role and IP address.
| Hostname | Role | /etc/hostname | IP address |
|---|---|---|---|
| host1 | Game server | host1 | 10.3.2.1 |
| host2 | Game server | host2 | 10.3.2.2 |
| host3 | Test server /Game server |
host3 | 10.3.2.3 |
| host4 | Test server /Game server |
host4 | 10.3.2.4 |
| player1 | Team robot controller1 | player1 | 10.3.2.5 |
| player2 | Team robot controller2 | player2 | 10.3.2.6 |
IP addresses, a network mask and name server addresses were given by a network administrators of the venue.