Soft actor-critic is a deep reinforcement learning framework for training maximum entropy policies in continuous domains.

Related tags

Deep Learningsac
Overview

This repository is no longer maintained. Please use our new Softlearning package instead.

Soft Actor-Critic

Soft actor-critic is a deep reinforcement learning framework for training maximum entropy policies in continuous domains. The algorithm is based on the paper Soft Actor-Critic: Off-Policy Maximum Entropy Deep Reinforcement Learning with a Stochastic Actor presented at ICML 2018.

This implementation uses Tensorflow. For a PyTorch implementation of soft actor-critic, take a look at rlkit by Vitchyr Pong.

See the DIAYN documentation for using SAC for learning diverse skills.

Getting Started

Soft Actor-Critic can be run either locally or through Docker.

Prerequisites

You will need to have Docker and Docker Compose installed unless you want to run the environment locally.

Most of the models require a Mujoco license.

Docker installation

If you want to run the Mujoco environments, the docker environment needs to know where to find your Mujoco license key (mjkey.txt). You can either copy your key into /.mujoco/mjkey.txt , or you can specify the path to the key in your environment variables:

export MUJOCO_LICENSE_PATH=
   
    /mjkey.txt

   

Once that's done, you can run the Docker container with

docker-compose up

Docker compose creates a Docker container named soft-actor-critic and automatically sets the needed environment variables and volumes.

You can access the container with the typical Docker exec-command, i.e.

docker exec -it soft-actor-critic bash

See examples section for examples of how to train and simulate the agents.

To clean up the setup:

docker-compose down

Local installation

To get the environment installed correctly, you will first need to clone rllab, and have its path added to your PYTHONPATH environment variable.

  1. Clone rllab
cd 
   
    
git clone https://github.com/rll/rllab.git
cd rllab
git checkout b3a28992eca103cab3cb58363dd7a4bb07f250a0
export PYTHONPATH=$(pwd):${PYTHONPATH}

   
  1. Download and copy mujoco files to rllab path: If you're running on OSX, download https://www.roboti.us/download/mjpro131_osx.zip instead, and copy the .dylib files instead of .so files.
mkdir -p /tmp/mujoco_tmp && cd /tmp/mujoco_tmp
wget -P . https://www.roboti.us/download/mjpro131_linux.zip
unzip mjpro131_linux.zip
mkdir 
   
    /rllab/vendor/mujoco
cp ./mjpro131/bin/libmujoco131.so 
    
     /rllab/vendor/mujoco
cp ./mjpro131/bin/libglfw.so.3 
     
      /rllab/vendor/mujoco
cd ..
rm -rf /tmp/mujoco_tmp

     
    
   
  1. Copy your Mujoco license key (mjkey.txt) to rllab path:
cp 
   
    /mjkey.txt 
    
     /rllab/vendor/mujoco

    
   
  1. Clone sac
cd 
   
    
git clone https://github.com/haarnoja/sac.git
cd sac

   
  1. Create and activate conda environment
cd sac
conda env create -f environment.yml
source activate sac

The environment should be ready to run. See examples section for examples of how to train and simulate the agents.

Finally, to deactivate and remove the conda environment:

source deactivate
conda remove --name sac --all

Examples

Training and simulating an agent

  1. To train the agent
python ./examples/mujoco_all_sac.py --env=swimmer --log_dir="/root/sac/data/swimmer-experiment"
  1. To simulate the agent (NOTE: This step currently fails with the Docker installation, due to missing display.)
python ./scripts/sim_policy.py /root/sac/data/swimmer-experiment/itr_
   
    .pkl

   

mujoco_all_sac.py contains several different environments and there are more example scripts available in the /examples folder. For more information about the agents and configurations, run the scripts with --help flag. For example:

python ./examples/mujoco_all_sac.py --help
usage: mujoco_all_sac.py [-h]
                         [--env {ant,walker,swimmer,half-cheetah,humanoid,hopper}]
                         [--exp_name EXP_NAME] [--mode MODE]
                         [--log_dir LOG_DIR]

mujoco_all_sac.py contains several different environments and there are more example scripts available in the /examples folder. For more information about the agents and configurations, run the scripts with --help flag. For example:

python ./examples/mujoco_all_sac.py --help
usage: mujoco_all_sac.py [-h]
                         [--env {ant,walker,swimmer,half-cheetah,humanoid,hopper}]
                         [--exp_name EXP_NAME] [--mode MODE]
                         [--log_dir LOG_DIR]

Benchmark Results

Benchmark results for some of the OpenAI Gym v2 environments can be found here.

Credits

The soft actor-critic algorithm was developed by Tuomas Haarnoja under the supervision of Prof. Sergey Levine and Prof. Pieter Abbeel at UC Berkeley. Special thanks to Vitchyr Pong, who wrote some parts of the code, and Kristian Hartikainen who helped testing, documenting, and polishing the code and streamlining the installation process. The work was supported by Berkeley Deep Drive.

Reference

@article{haarnoja2017soft,
  title={Soft Actor-Critic: Off-Policy Maximum Entropy Deep Reinforcement Learning with a Stochastic Actor},
  author={Haarnoja, Tuomas and Zhou, Aurick and Abbeel, Pieter and Levine, Sergey},
  booktitle={Deep Reinforcement Learning Symposium},
  year={2017}
}
Owner
Tuomas Haarnoja
Tuomas Haarnoja
Relaxed-machines - explorations in neuro-symbolic differentiable interpreters

Relaxed Machines Explorations in neuro-symbolic differentiable interpreters. Baby steps: inc_stop Libraries JAX Haiku Optax Resources Chapter 3 (∂4: A

Nada Amin 6 Feb 02, 2022
RATE: Overcoming Noise and Sparsity of Textual Features in Real-Time Location Estimation (CIKM'17)

RATE: Overcoming Noise and Sparsity of Textual Features in Real-Time Location Estimation This is the implementation of RATE: Overcoming Noise and Spar

Yu Zhang 5 Feb 10, 2022
Official implementation of Deep Reparametrization of Multi-Frame Super-Resolution and Denoising

Deep-Rep-MFIR Official implementation of Deep Reparametrization of Multi-Frame Super-Resolution and Denoising Publication: Deep Reparametrization of M

Goutam Bhat 39 Jan 04, 2023
Tensorflow implementation of "Learning Deep Features for Discriminative Localization"

Weakly_detector Tensorflow implementation of "Learning Deep Features for Discriminative Localization" B. Zhou, A. Khosla, A. Lapedriza, A. Oliva, and

Taeksoo Kim 363 Jun 29, 2022
Learning hierarchical attention for weakly-supervised chest X-ray abnormality localization and diagnosis

Hierarchical Attention Mining (HAM) for weakly-supervised abnormality localization This is the official PyTorch implementation for the HAM method. Pap

Xi Ouyang 22 Jan 02, 2023
Deep Learning for Human Part Discovery in Images - Chainer implementation

Deep Learning for Human Part Discovery in Images - Chainer implementation NOTE: This is not official implementation. Original paper is Deep Learning f

Shintaro Shiba 63 Sep 25, 2022
Repo for FUZE project. I will also publish some Linux kernel LPE exploits for various real world kernel vulnerabilities here. the samples are uploaded for education purposes for red and blue teams.

Linux_kernel_exploits Some Linux kernel exploits for various real world kernel vulnerabilities here. More exploits are yet to come. This repo contains

Wei Wu 472 Dec 21, 2022
Repository of our paper 'Refer-it-in-RGBD' in CVPR 2021

Refer-it-in-RGBD This is the repository of our paper 'Refer-it-in-RGBD: A Bottom-up Approach for 3D Visual Grounding in RGBD Images' in CVPR 2021 Pape

Haolin Liu 34 Nov 07, 2022
SymPy-powered, Wolfram|Alpha-like answer engine totally in your browser, without backend computation

SymPy Beta SymPy Beta is a fork of SymPy Gamma. The purpose of this project is to run a SymPy-powered, Wolfram|Alpha-like answer engine totally in you

Liumeo 25 Dec 21, 2022
PyTea: PyTorch Tensor shape error analyzer

PyTea: PyTorch Tensor Shape Error Analyzer paper project page Requirements node.js = 12.x python = 3.8 z3-solver = 4.8 How to install and use # ins

ROPAS Lab. 240 Jan 02, 2023
[CVPR 2022] CoTTA Code for our CVPR 2022 paper Continual Test-Time Domain Adaptation

CoTTA Code for our CVPR 2022 paper Continual Test-Time Domain Adaptation Prerequisite Please create and activate the following conda envrionment. To r

Qin Wang 87 Jan 08, 2023
Source code of NeurIPS 2021 Paper ''Be Confident! Towards Trustworthy Graph Neural Networks via Confidence Calibration''

CaGCN This repo is for source code of NeurIPS 2021 paper "Be Confident! Towards Trustworthy Graph Neural Networks via Confidence Calibration". Paper L

6 Dec 19, 2022
This repository comes with the paper "On the Robustness of Counterfactual Explanations to Adverse Perturbations"

Robust Counterfactual Explanations This repository comes with the paper "On the Robustness of Counterfactual Explanations to Adverse Perturbations". I

Marco 5 Dec 20, 2022
Conservative Q Learning for Offline Reinforcement Reinforcement Learning in JAX

CQL-JAX This repository implements Conservative Q Learning for Offline Reinforcement Reinforcement Learning in JAX (FLAX). Implementation is built on

Karush Suri 8 Nov 07, 2022
Voice of Pajlada with model and weights.

Pajlada TTS Stripped down version of ForwardTacotron (https://github.com/as-ideas/ForwardTacotron) with pretrained weights for Pajlada's (https://gith

6 Sep 03, 2021
DEEPAGÉ: Answering Questions in Portuguese about the Brazilian Environment

DEEPAGÉ: Answering Questions in Portuguese about the Brazilian Environment This repository is related to the paper DEEPAGÉ: Answering Questions in Por

0 Dec 10, 2021
ROS support for Velodyne 3D LIDARs

Overview Velodyne1 is a collection of ROS2 packages supporting Velodyne high definition 3D LIDARs3. Warning: The master branch normally contains code

ROS device drivers 543 Dec 30, 2022
Monitor your ML jobs on mobile devices📱, especially for Google Colab / Kaggle

TF Watcher TF Watcher is a simple to use Python package and web app which allows you to monitor 👀 your Machine Learning training or testing process o

Rishit Dagli 54 Nov 01, 2022
Tensorflow Implementation of the paper "Spectral Normalization for Generative Adversarial Networks" (ICML 2017 workshop)

tf-SNDCGAN Tensorflow implementation of the paper "Spectral Normalization for Generative Adversarial Networks" (https://www.researchgate.net/publicati

Nhat M. Nguyen 248 Nov 25, 2022
Optimized Gillespie algorithm for simulating Stochastic sPAtial models of Cancer Evolution (OG-SPACE)

OG-SPACE Introduction Optimized Gillespie algorithm for simulating Stochastic sPAtial models of Cancer Evolution (OG-SPACE) is a computational framewo

Data and Computational Biology Group UNIMIB (was BI*oinformatics MI*lan B*icocca) 0 Nov 17, 2021