CE23 - Intelligence artificielle et science des données 2023

Robust reinforcement-learning for real-world autonomous multitask agents – R3AMA

Submission summary

In the last decade, Reinforcement Learning (RL) has shown exceptional results on a wide range of tasks, in particular when applied to video games. Most strikingly, these agents have been able to solve both games that require fast, nimble actions, and deep, well-planned decisions. When applied to robotics, these agents have shown similar aptitudes, often outperforming their classical control counterparts. The recent progress in robotic manipulation and legged robot locomotion is a representative example of their capacities on low dimension continuous control tasks. Moreover, the advent of RL, Neural-Networks (NN), and ever-more-efficient edge devices are offering the ability to deploy high-performance visuomotor policies in real time on robots. However, key challenges remain: unlike low dimensions policies, simulators capable of recreating high-fidelity environments are slow, and the appearance of their environments, in particular visual, remains largely different from the real-world. This is notably true for outdoor application, where the complexity of the environment is much higher than indoor. This leads to a gap between what can be simulated and the deployment environments.
From these limitations emerge a wide range of problems. The main developments proposed in this project are focused on the development of Reinforcement Learning solutions applicable to real robotic system operating in unstructured environments with real sensors. In particular, RL will be applied to sensorimotor tasks, coordination of tasks on a single agent ad coordination of tasks between agents in a shared environment. The core tools supported these contributions will be model-based reinforcement learning and high-performance, high-fidelity simulation environment.
The project demonstrations will address two use-cases: the automation of robotic boats used for waste collection and pollution control and the automation of space debris capture and de-orbiting with robotic satellites.

Project coordination

Cédric Pradalier (GEORGIATECH-CNRS)

The author of this summary is the project coordinator, who is responsible for the content of this summary. The ANR declines any responsibility as for its contents.

Partnership

GEORGIATECH-CNRS
IADYS

Help of the ANR 422,048 euros
Beginning and duration of the scientific project: December 2023 - 42 Months

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