Benchmarking motion planners for wheeled mobile robots in cluttered environments on scenarios close to real-world autonomous driving settings.
chomp
implementation used here), included as submodule and automatically builtThe following boost libraries (version 1.58+) need to be installed:
boost_serialization
boost_filesystem
boost_system
boost_program_options
The provided CHOMP implementation requires, GLUT and other OpenGL libraries to be present, which can be installed through the freeglut3-dev
package. PNG via libpng-dev
, expat via libexpat1-dev
.
Optionally, to support visual debugging, Qt5 with the Charts
and Svg
modules needs to be installed.
The Python front-end dependencies are defined in python/requirements.txt
which can be installed through
pip install -r python/requirements.txt
Build the Docker image
docker build -t mpb .
Run the image to be able to access the Jupyter Lab instance on port 8888 in your browser from where you can run and evaluate benchmarks:
docker run -p 8888:8888 -it mpb
Optionally, you can mount your local mpb
copy to its respective folder inside the docker via
docker run -p 8888:8888 -v $(pwd):/root/code/mpb -it mpb
# use %cd% in place of $(pwd) on Windows
Now you can edit files from outside the docker and use this container to build and run the experiments.
You can connect multiple times to this same running docker, for example if you want to access it from multiple shell instances via
docker exec -it $(docker ps -qf "ancestor=mpb") bash
Alternatively, run the provided script ./docker_connect.sh
that executes this command.
Check out the submodules
git submodule init && git submodule update
Create build and log folders
mkdir build
Build project
cd build
cmake ..
cmake --build . -- -j4
If you see an error during the cmake ..
command that Qt or one of the Qt modules could
not be found, you can ignore this message as this dependency is optional.
This project contains several build targets in the experiments/
folder.
The main application for benchmarking is the benchmark
executable that gets built
in the bin/
folder in the project directory.
⚠ It is recommended to run the benchmarks from the Jupyter front-end.
Run
jupyter lab
from the project folder and navigate to thepython/
directory where you can find several notebooks that can execute experiments and allow you to plot and analyze the benchmark results.
Alternatively, you have the option to manually run benchmarks via JSON configuration files that define which planners to execute, and many other settings concerning environments, steer functions, etc.
In the bin/
folder, start a benchmark via
./benchmark configuration.json
where configuration.json
is any of the json
files in the benchmarks/
folder.
Optionally, if multiple CPUs are available, multiple benchmarks can be run in parallel using GNU Parallel, e.g., via
parallel -k ./benchmark ::: ../benchmarks/corridor_radius_*
This command will execute the experiments with varying corridor sizes in parallel. For more information, consult the GNU Parallel tutorial.
This will eventually output a line similar to
Info: Saved path statistics log file <...>
The resulting JSON log file can be used for visualizing the planning results and plotting
the statistics. To get started, check out the Jupyter notebooks inside the python/
folder
where all the plotting tools are provided.
This project uses forks from some of the following repositories:
Besides the above contributions, the authors thank Nathan Sturtevant's Moving AI Lab
for providing the 2D Pathfinding "MovingAI" Datasets
.
Please consider citing our corresponding article:
@article{heiden2021benchmr,
author={Heiden, Eric and Palmieri, Luigi and Bruns, Leonard and Arras, Kai O. and Sukhatme, Gaurav S. and Koenig, Sven},
journal={IEEE Robotics and Automation Letters},
title={Bench-MR: A Motion Planning Benchmark for Wheeled Mobile Robots},
year={2021},
volume={6},
number={3},
pages={4536-4543},
doi={10.1109/LRA.2021.3068913}}