Robust and learning-augmented algorithms for degradation-aware battery optimization

Jack Umenberger; Anna Osguthorpe Rasmussen

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arXiv · 2601.17193

Robust and learning-augmented algorithms for degradation-aware battery optimization

Jack Umenberger·Anna Osguthorpe Rasmussen

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Abstract

This paper studies the problem of maximizing revenue from a grid-scale battery energy storage system, accounting for uncertain future electricity prices and the effect of degradation on battery lifetime. We formulate this task as an online resource allocation problem. We propose an algorithm, based on online mirror descent, that is no-regret in the stochastic i.i.d. setting and attains finite asymptotic competitive ratio in the adversarial setting (robustness). When untrusted advice about the opportunity cost of degradation is available, we propose a learning-augmented algorithm that performs well when the advice is accurate (consistency) while still retaining robustness properties when the advice is poor.

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Jack Umenberger, Anna Osguthorpe Rasmussen. 2026-01-23. Robust and learning-augmented algorithms for degradation-aware battery optimization. https://arxiv.org/abs/2601.17193

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