Learn to Optimize: Self-Supervised Progressive Hedging and Adaptive Penalties for Multistage Stochastic Network Recovery Planning

This work explores using self-supervised machine learning to solve large and computationally difficult multi-stage stochastic programs (MSSP). Recent work on integrating machine learning into existing algorithms to solve MSSPs has shown promise in reducing computational time with minimal reduction in solution quality. Two broad frameworks have emerged that utilize machine learning for solving optimization problems: the Predict-then-Optimize framework, in which accurate predictions serve as inputs to stochastic optimization problems, and the Learn-to-Optimize framework, where ML models are used to either predict solutions or algorithm parameters directly, or to improve algorithm structure or model formulation via classification or clustering models. Typically, these methods have two primary drawbacks: they are supervised methods and so require generating training data, which is computationally extensive, and they learn solutions to single scenarios or algorithm parameters at a time.

Publication Details

Journal
George Mason University
Published
2025-04-29
DOI
https://doi.org/10.13021/mars/14909
Primary Topic
Geochemistry and Geologic Mapping
Type
article
Field-Weighted Citation Impact
0.00
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article

Learn to Optimize: Self-Supervised Progressive Hedging and Adaptive Penalties for Multistage Stochastic Network Recovery Planning

George Mason University
Geochemistry and Geologic Mapping
article

Learn to Optimize: Self-Supervised Progressive Hedging and Adaptive Penalties for Multistage Stochastic Network Recovery Planning

article en

Abstract

This work explores using self-supervised machine learning to solve large and computationally difficult multi-stage stochastic programs (MSSP). Recent work on integrating machine learning into existing algorithms to solve MSSPs has shown promise in reducing computational time with minimal reduction in solution quality. Two broad frameworks have emerged that utilize machine learning for solving optimization problems: the Predict-then-Optimize framework, in which accurate predictions serve as inputs to stochastic optimization problems, and the Learn-to-Optimize framework, where ML models are used to either predict solutions or algorithm parameters directly, or to improve algorithm structure or model formulation via classification or clustering models. Typically, these methods have two primary drawbacks: they are supervised methods and so require generating training data, which is computationally extensive, and they learn solutions to single scenarios or algorithm parameters at a time.

George Mason University
Openalex Percentile: Top 69%
Geochemistry and Geologic Mapping
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Learn to Optimize: Self-Supervised Progressive Hedging and Adaptive Penalties for Multistage Stochastic Network Recovery Planning · George Mason University (2025) | TGRS Research Map | TGRS