aiqbench analysis
RL-PaO introduces a novel reinforcement learning framework that treats prediction as an action within a unified Markov decision process, effectively aligning forecast accuracy with downstream optimization costs. By integrating system formulation and execution into a single environment, the method achieves significant cost reductions in energy scheduling without requiring differentiation through black-box solvers. This approach advances the state of the art in handling uncertainty for operational decision-making, offering improved interpretability alongside performance gains.
RL-PaO: Prediction as Action in Decision Making under Uncertainty
arXiv:2609.37065v1 Announce Type: new Abstract: Decision-making under uncertainty often relies on predicted parameters, yet accurate prediction does not necessarily lead to good operational decisions. Aligning prediction with downstream optimization requires learning from the consequences of the decisions those predictions induce. We introduce RL-PaO, a reinforcement learning framework that integrates system formulation, optimization, and decision execution into a single environment. This yields a Markov decision process in which prediction is regarded as action: it shifts the environment to produce subsequent context and reward that explicitly aligns prediction error with realized cost, and learning the optimal policy does not require differentiating through the black-box solver. We evaluate RL-PaO on day-ahead energy scheduling using real historical data. On the test year, RL-PaO achieves the lowest annual cost among the non-oracle baselines, achieving on average $10\%$ cost reduction. Moreover, RL-PaO is capable of further analyses to provide strong interpretability both from the policy evolution perspective and the cost-accuracy trade-off.
Abstract:Decision-making under uncertainty often relies on predicted parameters, yet accurate prediction does not necessarily lead to good operational decisions. Aligning prediction with downstream optimization requires learning from the consequences of the decisions those predictions induce. We introduce RL-PaO, a reinforcement learning framework that integrates system formulation, optimization, and decision execution into a single environment. This yields a Markov decision process in which prediction is regarded as action: it shifts the environment to produce subsequent context and reward that explicitly aligns prediction error with realized cost, and learning the optimal policy does not require differentiating through the black-box solver. We evaluate RL-PaO on day-ahead energy scheduling using real historical data. On the test year, RL-PaO achieves the lowest annual cost among the non-oracle baselines, achieving on average $10\%$ cost reduction. Moreover, RL-PaO is capable of further analyses to provide strong interpretability both from the policy evolution perspective and the cost-accuracy trade-off.
Machine Learning (cs.LG)
arXiv:2609.37065 [cs.LG]
(or arXiv:2609.37065v1 [cs.LG] for this version)
https://doi.org/10.48550/arXiv.2609.37065 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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