Q Learning Parallels to Behavior: The Quest for an Accurate State Representation

<b>Abstract: </b>This paper is directed by the question “To what extent does Q-learning imitate reinforcement learning in rats?” Using computational modeling with empirical validation of an externally sourced rat data set, and cross-validated parameter optimization using Bayesian optimization, this paper recognizes the importance of an accurate state representation when training a model. The task at hand on which the Q learning model is trained and evaluated is a double T maze with reversing goals, created by the Blair Lab at UCLA. The experimental process this paper follows is first, building the digital environment of the model, training it on a Q Learning model, and optimizing hyperparameters of the Q learning model with Optuna’s Bayesian optimizer. The resulting observations highlight the importance of choosing an optimal state representation to improve the interpretation of the learning mechanisms underlying biological experiments.

Publication Details

Journal
Figshare
Published
2025-01-01
DOI
https://doi.org/10.6084/m9.figshare.29012237.v1
Primary Topic
Reinforcement Learning in Robotics
Type
article
Field-Weighted Citation Impact
0.00
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Q Learning Parallels to Behavior: The Quest for an Accurate State Representation

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Reinforcement Learning in Robotics
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Q Learning Parallels to Behavior: The Quest for an Accurate State Representation

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Abstract

<b>Abstract: </b>This paper is directed by the question “To what extent does Q-learning imitate reinforcement learning in rats?” Using computational modeling with empirical validation of an externally sourced rat data set, and cross-validated parameter optimization using Bayesian optimization, this paper recognizes the importance of an accurate state representation when training a model. The task at hand on which the Q learning model is trained and evaluated is a double T maze with reversing goals, created by the Blair Lab at UCLA. The experimental process this paper follows is first, building the digital environment of the model, training it on a Q Learning model, and optimizing hyperparameters of the Q learning model with Optuna’s Bayesian optimizer. The resulting observations highlight the importance of choosing an optimal state representation to improve the interpretation of the learning mechanisms underlying biological experiments.

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Reinforcement Learning in Robotics
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