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NeurIPS 2019: Learn to Move – Walk Around
2nd place solution – powered by Catalyst.RL

alt text

Telegram Gitter Slack

How2run

System requirements

You need to install Anaconda and Redis:

sudo apt install redis-server

Python requirements

(Taken from the official repo).

Anaconda is required to run our simulations. Anaconda will create a virtual environment with all the necessary libraries, to avoid conflicts with libraries in your operating system. You can get anaconda from here https://docs.anaconda.com/anaconda/install/. In the following instructions we assume that Anaconda is successfully installed.

For the challenge we prepared OpenSim binaries as a conda environment to make the installation straightforward

We support Windows, Linux, and Mac OSX (all in 64-bit). To install our simulator, you first need to create a conda environment with the OpenSim package.

On Windows, open a command prompt and type:

conda create -n opensim-rl -c kidzik opensim python=3.6.1
activate opensim-rl

On Linux/OSX, run:

conda create -n opensim-rl -c kidzik opensim python=3.6
source activate opensim-rl
conda install python=3.6.1 -c conda-forge

These commands will create a virtual environment on your computer with the necessary simulation libraries installed. Next, you need to install our python reinforcement learning environment. Type (on all platforms):

conda install -c conda-forge lapack git -y
pip install osim-rl -y
conda remove nb_conda_kernels -y
conda install -c conda-forge nb_conda_kernels -y
conda install notebook jupyter nb_conda -y
conda remove nbpresent -y
pip install -r ./requirements.txt

Run ensemble training

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Catalyst.RL achitecture. Samplers interact with the environment and gather training data. Trainers retrieve collected data and update parameters of value function and policy approximators. All communication is conducted through a database.

export LOGDIR=/path/to/logdir
export PORT=14001
bash bin/prepare_configs.sh

redis-server --port $PORT

CUDA_VISIBLE_DEVICES="0" \
PYTHONPATH="." \
EXP_CONFIG="./configs/_exp_common.yml ./configs/env_l2m.yml ./configs/_dpg_common.yml ./configs/td3.yml" \
DB_SPEC="null" \
OMP_NUM_THREADS=1 MKL_NUM_THREADS=1 catalyst-rl-run \
    --db/prefix=td3-quan-01-04:str \
    --environment/history_len=1:int \
    --environment/frame_skip=4:int

CUDA_VISIBLE_DEVICES="1" \
PYTHONPATH="." \
EXP_CONFIG="./configs/_exp_common.yml ./configs/env_l2m.yml ./configs/_dpg_common.yml ./configs/td3.yml" \
DB_SPEC="null" \
OMP_NUM_THREADS=1 MKL_NUM_THREADS=1 catalyst-rl-run \
    --db/prefix=td3-quan-04-04:str \
    --environment/history_len=4:int \
    --environment/frame_skip=4:int

CUDA_VISIBLE_DEVICES="2" \
PYTHONPATH="." \
EXP_CONFIG="./configs/_exp_common.yml ./configs/env_l2m.yml ./configs/_dpg_common.yml ./configs/td3.yml" \
DB_SPEC="null" \
OMP_NUM_THREADS=1 MKL_NUM_THREADS=1 catalyst-rl-run \
    --db/prefix=td3-quan-08-04:str \
    --environment/history_len=8:int \
    --environment/frame_skip=4:int

CUDA_VISIBLE_DEVICES="3" \
PYTHONPATH="." \
EXP_CONFIG="./configs/_exp_common.yml ./configs/env_l2m.yml ./configs/_dpg_common.yml ./configs/td3.yml" \
DB_SPEC="null" \
OMP_NUM_THREADS=1 MKL_NUM_THREADS=1 catalyst-rl-run \
    --db/prefix=td3-quan-12-04:str \
    --environment/history_len=12:int \
    --environment/frame_skip=4:int

Check results in Tensorboard

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Average raw reward on validation seeds versus training time (in hours).
Different graphs correspond to different history lengths used for training.

Additional links [WIP]

  1. Catalyst.RL
  2. Analysis of the solution - slides (in English)
  3. Analysis of the solution - video (in Russian)
  4. Cool video with agent run
  5. NeurIPS 2019: Learn to Move - Walk Around – starter kit

Citation

Please cite the following paper if you feel this repository useful.

@article{run_skeleton_in3d,
  title={Sample Efficient Ensemble Learning with Catalyst.RL},
  author = {Kolesnikov, Sergey and Khrulkov, Valentin},
  journal={arXiv preprint arXiv:[WIP]},
  year={2019}
}