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DeepMind Control Suite

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DeepMind Control Suite
NameDeepMind Control Suite
DeveloperDeepMind
Released2016
Programming languagePython, C++
Operating systemCross-platform
LicenseApache License 2.0

DeepMind Control Suite is a software library providing a collection of continuous control tasks for benchmarking reinforcement learning agents. It offers physics-based environments, task specifications, and standard interfaces for evaluation used in research and development by organizations, laboratories, and academic groups. The Suite has been cited in studies comparing algorithms, in integrations with simulation tools, and in curricula for graduate courses.

Overview

The Suite was developed by DeepMind researchers and contributors from affiliated projects and has been used by teams at Google and laboratories collaborating with University of Oxford, University of Cambridge, Massachusetts Institute of Technology, and Stanford University. It built on earlier simulation efforts such as MuJoCo-based benchmarks and influenced comparisons in papers from conferences like NeurIPS, ICML, ICLR, AAAI, and AAMAS. The codebase interacts with ecosystems maintained by organizations including OpenAI, TensorFlow, PyTorch, Google Research, and groups publishing at JMLR and PMLR. Contributions and citations appear in work by researchers affiliated with institutes such as Max Planck Institute for Intelligent Systems, Carnegie Mellon University, ETH Zurich, and UC Berkeley.

Design and Components

The Suite's architecture integrates physics simulators, task definitions, and agent interfaces. Core components include a binding to inverse-dynamics and forward-dynamics engines seen in projects like MuJoCo, interoperability code used in ROS-based labs, and wrappers compatible with standards from OpenAI Gym. Configuration and experimentation utilities mirror practices from toolkits authored by teams at Google Brain and DeepMind publications. The software exposes observation and action spaces described in schemas similar to those adopted by datasets released by ImageNet-related consortia, and it has been instrumented in evaluations at events such as NeurIPS 2018 workshops and tutorials organized by ICML program committees.

Tasks and Environments

Environments in the Suite include articulated agents, locomotion, manipulation, and balancing tasks inspired by control problems explored at institutions like CERN and in robotics research groups at MIT CSAIL, Harvard John A. Paulson School of Engineering and Applied Sciences, and Stanford AI Lab. Specific tasks echo experimental setups found in publications from laboratories such as DeepMind Robotics, Google X prototypes, and academic groups at University of Washington and University of Toronto. The Suite's environments are often used alongside benchmarks produced by consortia like DARPA programs and demonstrated at forums including ICRA and IROS. Baseline tasks are comparable to those used in datasets and challenges hosted by Kaggle and in competitions run by Robotics: Science and Systems.

Evaluation Metrics and Benchmarks

Evaluation protocols associated with the Suite borrow from statistical practices used in reports by Nature, Science, and conference proceedings at NeurIPS and ICML. Common metrics include cumulative reward, sample efficiency, and stability measures that appear in benchmarking studies by groups at OpenAI, DeepMind, Facebook AI Research, and academic teams at Princeton University and Yale University. Comparisons often cite leaderboards curated by research groups at Berkeley AI Research and publications in journals such as JMLR and IEEE Transactions on Robotics. Reproducibility efforts reference guidelines from initiatives like those by ACM and standards discussed in panels at AAAI and ICLR.

Usage and Integration

Practitioners integrate the Suite with training frameworks maintained by TensorFlow and PyTorch developers, orchestration systems from Kubernetes deployments in cloud environments run by Google Cloud Platform and Amazon Web Services, and experiment tracking tools used in labs at Microsoft Research and OpenAI. The Suite pairs with policy optimization libraries from groups at DeepMind and implementations contributed by researchers at Columbia University, Cornell University, and University of Illinois Urbana-Champaign. It has been used in educational settings at California Institute of Technology and Imperial College London courses, and appears in tutorials at workshops hosted by NeurIPS and ICLR.

Community and Extensions

An active community expanded the Suite with wrappers, task suites, and interfaces developed by contributors from organizations like OpenAI, Google Research, DeepMind, and university labs at University of Edinburgh and Technical University of Munich. Extensions and forks incorporate integrations with simulation platforms such as Gazebo, interfaces by ROS Industrial projects, and data-collection pipelines used in partnerships with Bosch Research and NVIDIA Research. Collaborative efforts and code contributions are discussed on code hosting services used by teams at GitHub and in mailing lists and forums frequented by academics from University of Melbourne and University of Toronto. The Suite's role in benchmarking continuous control continues to influence evaluations in workshops and special sessions at ICLR and NeurIPS.

Category:Reinforcement learning