Andes environment for OpenAI Gym
- Free software: GPL v3+
Create an empty conda environment with
conda create -n drl-andes python=3.8
The detailed instruction of Andes installation can be found here.
conda config --add channels conda-forge
conda config --set channel_priority flexible
Use conda install
instead of pip install
for andes
installation
conda install andes
or in the root directory of andes
, run
conda install --file requirements.txt
conda install --file requirements-dev.txt
python3 -m pip install -e .
Test if andes
has been successfully installed by
andes selftest
Install mpi4py
from Intel with
conda install -c intel mpi4py
Install gym
pip install gym
Install a recent version of ANDES with
Install tensorflow (cpu version)
pip install andes==1.5.8
Install keras
pip install keras
Install stable-baselines
or stable-baselines3
Refer to the stable-baselines website or stable-baselines3 for detailed instruction.
For stable-baselines
Option 1:
First Homebrew
will be needed. Then, install the dependencies of stable-baselines
as
brew install cmake openmpi
Then, open the stable-baselines
repo, cd to the directory and
pip install -e .
Option 2:
pip install stable-baselines
For stable-baselines3
(uses Pytorch 1.7)
pip install stable-baselines3
or in the root directory
pip install -e .
In the root directory of andes_gym
, install andes_gym
in the development mode with
pip install -e .
Try out examples in the folder examples
.
Edit the number of time steps in train_freq_ddpg.py
to a proper value. The larger the value, the longer it takes to simulate and train.
Run the example with
python train_freq_ddpg.py
Some deprecation warnings can be safely ignored.
When the training is completed, replay the trained model with
python play_freq_ddpg.py
You may need to install additional packages, such as matplotlib, to show the visualization. The matplotlib window might appear frozen, but is actually refreshed after each run.
While most of the computation time was spent in ANDES, tests show that Linux perform consistently better than Windows, especially with cvxoptklu
installed.
Currently, it is difficult to install cvxoptklu
on Windows. Therefore, a Linux box is recommended whenever possible.
Some algorithms can take advantage of multi-core processors but most cannot. Please check the algorithm documentation from stable-baselines to verify. A quick way to check if an algorithm is taking advantage of your multi-core processor is to check the utilization of CPU (in Windows Task Manager or in htop
of Linux).
When working on the source code, please branch from master
and work on your own branch.
You can either use GitHub for Desktop or learn the commands. The following are some commands for quick reference.
Branching can be done the collowing command
git checkout -b YOUR_BRANCH_NAME
where YOUR_BRANCH_NAME
is the branch name of your choice.
To stage changes, use
git add PATH_TO_FILE
To commit changes, use
git commit
To push to a not-yet-exising branch, use
git push -u origin YOUR_BRANCH_NAME
After the first push, your local git will memorize the tracking branch. Next time, you can simply push with
git push
- TODO