Overview

Learning to Optimize studies how data can improve the algorithms and decisions used to solve optimization problems, especially when similar problems recur or standard solvers are costly. Approaches include meta-learning and reinforcement learning for update rules and optimizer selection, unrolled or differentiable methods such as learned ADMM, and learned heuristics or warm starts for mixed-integer and other solvers. These methods are used in settings ranging from neural-network training and black-box search to scheduling, power systems, and model predictive control, with work increasingly combining fast learned predictions with exact optimization or explicit feasibility checks. A central tension is whether methods trained on particular instances can generalize reliably to new problems while preserving solution quality, constraint satisfaction, and the computational guarantees of classical solvers.

Latest papers

CardsList

139 papers27 papers in the last four weeks, up 125% on the four weeks before. 0.2% of all new papers.

  1. POP: Prior-Fitted First-Order Optimization Policies

    Feb 17, 2026Jan Kobiolka, Christian Frey, Gresa Shala +3Learning to OptimizeAdaptive Gradient Methods

  2. Learning to Discover Iterative Spectral Algorithms

    Feb 10, 2026Zihang Liu, Oleg Balabanov, Yaoqing Yang +1Automated Algorithm DiscoveryLearning to Optimize

  3. Meta-Learning-Assisted Constraint Relaxation for Constrained Black-Box Optimization

    Jan 31, 2026Sijie Ma, Zeyuan Ma, Yue-Jiao Gong +1Black-Box OptimizationLearning to Optimize

  4. Unrolled Neural Networks for Constrained Optimization

    Jan 24, 2026Samar Hadou, Alejandro RibeiroConstrained OptimizationLearning to Optimize

  5. Learning to Optimize by Differentiable Programming

    Jan 23, 2026Liping Tao, Xindi Tong, Chee Wei TanPrimal-Dual OptimizationLearning to Optimize

  6. Learning to accelerate Krasnosel'skii-Mann fixed-point iterations with guarantees

    Jan 12, 2026Andrea Martin, Giuseppe BelgioiosoOptimization Convergence AnalysisLearning to Optimize

  7. Reinforcement Learning to Initialize Newton-Raphson for AC Power Flow with Quantum Annealing-Based Environment Updates

    Nov 25, 2025Zeynab Kaseb, Matthias Moller, Lindsay Spoor +4Reinforcement LearningQuantum Annealing

  8. Machine Learning Guided Optimal Transmission Switching to Mitigate Wildfire Ignition Risk

    Oct 29, 2025Weimin Huang, Ryan Piansky, Bistra Dilkina +1Mixed-Integer Linear ProgrammingLearning to Optimize

  9. L-SR1: Learned Symmetric-Rank-One Preconditioning

    Aug 17, 2025Gal Lifshitz, Shahar Zuler, Ori Fouks +1Learning to OptimizeSecond-Order Optimization

  10. Direct Regret Optimization in Bayesian Optimization

    Jul 9, 2025Fengxue Zhang, Yuxin ChenBayesian OptimizationLearning to Optimize

  11. Accelerating Optimization via Differentiable Stopping Time

    May 28, 2025Zhonglin Xie, Yiman Fong, Haoran Yuan +1Differentiable OptimizationHyperparameter Optimization

  12. Deep Learning Warm Starts for Trajectory Optimization on the International Space Station

    May 8, 2025Somrita Banerjee, Abhishek Cauligi, Marco PavoneTrajectory OptimizationLearning to Optimize

  13. Sufficient Decision Proxies for Decision-Focused Learning

    May 6, 2025Noah Schutte, Grigorii Veviurko, Krzysztof Postek +1Stochastic OptimizationLearning to Optimize

  14. Traffic Engineering in Large-scale Networks with Generalizable Graph Neural Networks

    Mar 31, 2025Fangtong Zhou, Xiaorui Liu, Ruozhou Yu +1Graph Neural NetworksLearning to Optimize

  15. Simulating, Fast and Slow: Learning Policies for Black-Box Optimization

    Jun 6, 2024Tim Bakker, Fabio Valerio Massoli, Thomas Hehn +2Black-Box OptimizationLearning to Optimize

  16. MEGO: Learning Mixture-of-Experts for General-Purpose Binary Optimization

    May 29, 2024Shengcai Liu, Zhiyuan Wang, Yew-Soon Ong +2Black-Box OptimizationMixture of Experts