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Legs that can walk: Embodiment-Based Modular Reinforcement Learning applied

Daniel Jacob, Daniel Polani, Chrystopher L. Nehaniv

Year
2005
Citations
13

Abstract

Experiments to illustrate a novel methodology for reinforcement learning in embodied physical agents are described. A simulated legged robot is decomposed into structure-based modules following the authors' EMBER principles of local sensing, action and learning. The legs are individually trained to 'walk' in isolation, and re-attached to the robot; walking is then sufficiently stable that learning in situ can continue. The experiments demonstrate the benefits of the modular decomposition: state-space factorisation leads to faster learning, in this case to the extent that an otherwise intractable problem becomes learnable.

Keywords

Reinforcement learningModular designRobotComputer scienceArtificial intelligenceEmbodied cognitionReinforcementHuman–computer interactionEngineeringStructural engineering

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