Minimum Description Length Control
Ted Moskovitz, Ta-Chu Kao, Maneesh Sahani, Matthew M. Botvinick

TL;DR
This paper introduces MDL-control, a multitask reinforcement learning framework that leverages the minimum description length principle to learn shared structures, enabling faster learning and better generalization across tasks.
Contribution
It presents a novel MDL-based approach for multitask RL, establishing theoretical guarantees and demonstrating empirical success on various control tasks.
Findings
MDL-control improves learning speed and generalization.
Theoretical performance guarantees are provided.
Effective on both discrete and continuous control tasks.
Abstract
We propose a novel framework for multitask reinforcement learning based on the minimum description length (MDL) principle. In this approach, which we term MDL-control (MDL-C), the agent learns the common structure among the tasks with which it is faced and then distills it into a simpler representation which facilitates faster convergence and generalization to new tasks. In doing so, MDL-C naturally balances adaptation to each task with epistemic uncertainty about the task distribution. We motivate MDL-C via formal connections between the MDL principle and Bayesian inference, derive theoretical performance guarantees, and demonstrate MDL-C's empirical effectiveness on both discrete and high-dimensional continuous control tasks.
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Taxonomy
TopicsReinforcement Learning in Robotics · Adversarial Robustness in Machine Learning · Explainable Artificial Intelligence (XAI)
MethodsMinimum Description Length
