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Main Authors: Zhang, Zuyuan, Fang, Zeyu, Lan, Tian
Format: Preprint
Published: 2026
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Online Access:https://arxiv.org/abs/2602.02978
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author Zhang, Zuyuan
Fang, Zeyu
Lan, Tian
author_facet Zhang, Zuyuan
Fang, Zeyu
Lan, Tian
contents Geometric properties can be leveraged to stabilize and speed reinforcement learning. Existing examples include encoding symmetry structure, geometry-aware data augmentation, and enforcing structural restrictions. In this paper, we take a novel view of RL through the lens of order theory and recast value function estimates into learning a desired poset (partially ordered set). We propose \emph{GCR-RL} (Geometric Coherence Regularized Reinforcement Learning) that computes a sequence of super-poset refinements -- by refining posets in previous steps and learning additional order relationships from temporal difference signals -- thus ensuring geometric coherence across the sequence of posets underpinning the learned value functions. Two novel algorithms by Q-learning and by actor--critic are developed to efficiently realize these super-poset refinements. Their theoretical properties and convergence rates are analyzed. We empirically evaluate GCR-RL in a range of tasks and demonstrate significant improvements in sample efficiency and stable performance over strong baselines.
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institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Structuring Value Representations via Geometric Coherence in Markov Decision Processes
Zhang, Zuyuan
Fang, Zeyu
Lan, Tian
Artificial Intelligence
Geometric properties can be leveraged to stabilize and speed reinforcement learning. Existing examples include encoding symmetry structure, geometry-aware data augmentation, and enforcing structural restrictions. In this paper, we take a novel view of RL through the lens of order theory and recast value function estimates into learning a desired poset (partially ordered set). We propose \emph{GCR-RL} (Geometric Coherence Regularized Reinforcement Learning) that computes a sequence of super-poset refinements -- by refining posets in previous steps and learning additional order relationships from temporal difference signals -- thus ensuring geometric coherence across the sequence of posets underpinning the learned value functions. Two novel algorithms by Q-learning and by actor--critic are developed to efficiently realize these super-poset refinements. Their theoretical properties and convergence rates are analyzed. We empirically evaluate GCR-RL in a range of tasks and demonstrate significant improvements in sample efficiency and stable performance over strong baselines.
title Structuring Value Representations via Geometric Coherence in Markov Decision Processes
topic Artificial Intelligence
url https://arxiv.org/abs/2602.02978