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This paper gives non-asymptotic guarantees for a primal-dual RL method on constrained POMDPs, bounding both reward suboptimality and constraint violation via finite-history windows. The guarantees rest on a filter-stability assumption, and the bounds shrink geometrically with window length, so practitioners should check whether that assumption holds in their setting. Experiments are limited to small partially observable gridworlds, so the results are theoretical progress that has not yet been shown at scale.
Finite-Time Guarantees for Constrained Reinforcement Learning under Partial Observability
arXiv:2610.21548v1 Announce Type: new Abstract: We study reinforcement learning in constrained partially observable Markov decision processes (CPOMDPs), where an agent maximizes reward subject to a cost constraint using only incomplete information about the underlying state. The lack of state observability may require optimal policies to depend on arbitrarily long observation-action histories, making planning and learning challenging. We leverage recent advances in finite-memory approximations of POMDPs and represent finite history windows as states of a constrained MDP. We then develop a primal--dual algorithm that provides the first non-asymptotic guarantees that jointly bound average reward suboptimality and constraint violation in the original CPOMDP. A key challenge is that this finite-window approximation affects both reward values and the set of feasible policies. Under a filter-stability assumption, we derive bounds relating optimality and feasibility in the finite-state model to those in the original CPOMDP, with approximation errors that decay geometrically with the window length. Experiments in partially observable gridworlds demonstrate the effectiveness of our approach.
Abstract:We study reinforcement learning in constrained partially observable Markov decision processes (CPOMDPs), where an agent maximizes reward subject to a cost constraint using only incomplete information about the underlying state. The lack of state observability may require optimal policies to depend on arbitrarily long observation-action histories, making planning and learning challenging. We leverage recent advances in finite-memory approximations of POMDPs and represent finite history windows as states of a constrained MDP. We then develop a primal--dual algorithm that provides the first non-asymptotic guarantees that jointly bound average reward suboptimality and constraint violation in the original CPOMDP. A key challenge is that this finite-window approximation affects both reward values and the set of feasible policies. Under a filter-stability assumption, we derive bounds relating optimality and feasibility in the finite-state model to those in the original CPOMDP, with approximation errors that decay geometrically with the window length. Experiments in partially observable gridworlds demonstrate the effectiveness of our approach.
Machine Learning (cs.LG)
arXiv:2610.21548 [cs.LG]
(or arXiv:2610.21548v1 [cs.LG] for this version)
https://doi.org/10.48550/arXiv.2610.21548 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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