aiqbench analysis
This paper advances the theoretical foundations of reinforcement learning by framing planning as inference within a dually flat statistical manifold, unifying visitation probabilities and log-policies under conditional entropy. The work extends natural-gradient optimization to nonlinear reward functionals and provides new geometric interpretations for temporal-difference errors relevant to both AI theory and neuroscience.
The Dually Flat Geometry of Planning as Inference
arXiv:2609.04005v1 Announce Type: new Abstract: We present an alternative characterization of the occupancy measure of reinforcement learning, obtained by embedding the planning criterion into the dynamics through a resetting planning process. Its stationary measure, which we term visitation measure, is the object on which the information geometry of decision making is most naturally expressed. The achievable visitation measures form a dually flat statistical manifold whose two affine charts are the visitation probabilities and the log-policies, dual under the conditional entropy. This structure makes planning-as-inference generalize from linear rewards to nonlinear functionals of the visitation, each iterate solved by one natural-gradient step, and gives the temporal-difference error the interpretation of a marginal-utility estimate. We develop the geometry and its consequences for reinforcement learning and theoretical neuroscience.
Abstract:We present an alternative characterization of the occupancy measure of reinforcement learning, obtained by embedding the planning criterion into the dynamics through a resetting planning process. Its stationary measure, which we term visitation measure, is the object on which the information geometry of decision making is most naturally expressed. The achievable visitation measures form a dually flat statistical manifold whose two affine charts are the visitation probabilities and the log-policies, dual under the conditional entropy. This structure makes planning-as-inference generalize from linear rewards to nonlinear functionals of the visitation, each iterate solved by one natural-gradient step, and gives the temporal-difference error the interpretation of a marginal-utility estimate. We develop the geometry and its consequences for reinforcement learning and theoretical neuroscience.
Artificial Intelligence (cs.AI)
arXiv:2609.04005 [cs.AI]
(or arXiv:2609.04005v1 [cs.AI] for this version)
https://doi.org/10.48550/arXiv.2609.04005 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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