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Published on: May 10, 2024
Dynamic Input Deep Learning Control of Artificial Avatars in a Multi-Agent Joint Motor Task
Maria Lombardi1,2, Davide Liuzza3, Mario di Bernardo1,4
1Department of Engineering Mathematics, University of Bristol, Bristol, United Kingdom.
Abstract:
In many real-word scenarios, humans and robots are required to coordinate their movements in joint tasks to fulfil a common goal. While several examples regarding dyadic human robot interaction exist in the current literature, multi-agent scenarios in which one or more artificial agents need to interact with many humans are still seldom investigated. In this paper we address the problem of synthesizing an autonomous artificial agent to perform a paradigmatic oscillatory joint task in human ensembles while exhibiting some desired human kinematic features. We propose an architecture based on deep reinforcement learning which is flexible enough to make the artificial agent interact with human groups of different sizes. As a paradigmatic coordination task we consider a multi-agent version of the mirror game, an oscillatory motor task largely used in the literature to study human motor coordination.
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