Deep Bayesian Reinforcement Learning -- Unifying Perception, Planning, and Control

ERC (European Research Council)HORIZON-ERCID: 101041250
EC Contribution
€15,000
Consortium Size
1 orgs
Start Year
2022
Summary

For robots to assist humanity in homes, or hospitals, the capability to manipulate diverse objects is imperative. So far, however, robotic manipulation technology has struggled in managing the uncertainty and unstructuredness that characterize human environments.Machine learning is a natural approach -- the robot can adapt to a given scenario, even if it was not programmed to handle it beforehand. Indeed, Deep Reinforcement Learning (deep RL), which has recently led to AI breakthroughs in computer games, has been publicized as the learning-based approach to robotics. To date, however, deep RL studies focused on known and observable systems, where uncertainty was resolved by lengthy trial and error. Quickly learning to act in novel environments, as required for robotics, is not yet within our reach.The crux of the matter is the tight coupling between perception and control under high uncertainty -- the robot must actively reduce uncertainty while also trying to solve the task; for complex and high-dimensional systems, we do not have a suitable algorithmic framework for this.In this proposal, our overarching goal is to: Develop the algorithmic framework of using deep learning in problems that tightly couple perception, planning, and control, for advancing robotic AI to reliably manipulate general objects in unstructured environments.Towards this end, we shall develop neural network representations of uncertainty, and algorithms that estimate uncertainty from data. We will develop theory and algorithms for decision making under uncertainty, bringing in a fresh perspective to the problem based on Bayesian reinforcement learning (Bayes-RL). These advances will allow us to study safety certificates for deep RL, and develop a general and practical methodology for learning-based robotic manipulation under uncertainty, validated on real robot experiments. Aside from robotic manipulation, we expect impact on various fields where decision making plays an important role.

Consortium (1)

Project Results (17)

Source: CORDIS, the EU research results database.

Publications (15)
EC-Diffuser: Multi-Object Manipulation via Entity-Centric Behavior Generation
ICLR· 2025DOI
Carl Qi, Dan Haramati, Tal Daniel, Aviv Tamar, Amy Zhang
From Configuration-Space Clearance to Feature-Space Margin: Sample Complexity in Learning-Based Collision Detection
ICRA· 2025DOI
Sapir Tubul, Aviv Tamar, Kiril Solovey, Oren Salzman
Entity-centric reinforcement learning for object manipulation from pixels
ICLR· 2024DOI
D. Haramati, T. Daniel, and A. Tamar
Mamba: an effective world model approach for meta-reinforcement learning
ICLR· 2024DOI
Z. Rimon, T. Jurgenson, O. Krupnik, G. Adler, and A. Tamar
Test-Time Regret Minimization in Meta Reinforcement Learning
ICML· 2024DOI
Mirco Mutti, Aviv Tamar
ContraBAR: Contrastive Bayes-Adaptive Deep RL
ICML· 2023DOI
Choshen, Era; Tamar, Aviv
DDLP: Unsupervised Object-Centric Video Prediction with Deep Dynamic Latent Particles
TMLR· 2023DOI
Daniel, Tal; Tamar, Aviv
Dote: Rethinking wan traffic engineering
USENIX Symposium on Networked Systems Design and Implementation (NSDI)· 2023
Y. Perry, F. Frujeri, C. Hoch, S. Kandula, I. Menache, M. Schapira, and A. Tamar
Explore to Generalize in Zero-Shot RL
NeurIPS· 2023DOI
Zisselman, Ev; Lavie, Itai; Soudry, Daniel; Tamar, Aviv
Fine-Tuning Generative Models as an Inference Method for Robotic Tasks
CoRL· 2023DOI
Krupnik, Orr; Shafer, Elisei; Jurgenson, Tom; Tamar, Aviv
Hierarchical planning for rope manipulation using knot theory and a learned inverse model
CoRL· 2023
M. Sudry, T. Jurgenson, A. Tamar, and E. Karpas
Learning Control by Iterative Inversion
ICML· 2023DOI
Leibovich, Gal; Jacob, Guy; Avner, Or; Novik, Gal; Tamar, Aviv
Online Tool Selection with Learned Grasp Prediction Models
ICRA· 2023DOI
Rohanimanesh, Khashayar; Metzger, Jake; Richards, William; Tamar, Aviv
Meta reinforcement learning with finite training tasks – a density estimation approach
NeurIPS· 2022DOI
Rimon, Zohar, A. Tamar, and G. Adler
Unsupervised image representation learning with deep latent particles
ICML· 2022DOI
Daniel, Tal and A. Tamar
Deliverables (1)
Documents, reports
Other Results (1)
Periodic Reporting for period 1 - BAYES-RL (Deep Bayesian Reinforcement Learning -- Unifying Perception, Planning, and Control)