Machine learning augmented branch and bound for mixed integer linear programming

IF 2.2 2区 数学 Q2 COMPUTER SCIENCE, SOFTWARE ENGINEERING Mathematical Programming Pub Date : 2024-08-22 DOI:10.1007/s10107-024-02130-y
Lara Scavuzzo, Karen Aardal, Andrea Lodi, Neil Yorke-Smith
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Abstract

Mixed Integer Linear Programming (MILP) is a pillar of mathematical optimization that offers a powerful modeling language for a wide range of applications. The main engine for solving MILPs is the branch-and-bound algorithm. Adding to the enormous algorithmic progress in MILP solving of the past decades, in more recent years there has been an explosive development in the use of machine learning for enhancing all main tasks involved in the branch-and-bound algorithm. These include primal heuristics, branching, cutting planes, node selection and solver configuration decisions. This article presents a survey of such approaches, addressing the vision of integration of machine learning and mathematical optimization as complementary technologies, and how this integration can benefit MILP solving. In particular, we give detailed attention to machine learning algorithms that automatically optimize some metric of branch-and-bound efficiency. We also address appropriate MILP representations, benchmarks and software tools used in the context of applying learning algorithms.

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混合整数线性规划的机器学习增强分支与约束
混合整数线性规划(MILP)是数学优化的支柱,为广泛的应用提供了强大的建模语言。求解 MILP 的主要引擎是分支与边界算法。在过去几十年 MILP 求解算法取得巨大进步的基础上,近年来,机器学习在增强分支与边界算法所涉及的所有主要任务方面取得了爆炸性的发展。这些任务包括原始启发式、分支、切割平面、节点选择和求解器配置决策。本文概述了这些方法,探讨了机器学习与数学优化作为互补技术进行整合的前景,以及这种整合如何有利于 MILP 求解。特别是,我们详细介绍了自动优化分支边界效率指标的机器学习算法。我们还讨论了在应用学习算法时使用的适当 MILP 表示法、基准和软件工具。
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来源期刊
Mathematical Programming
Mathematical Programming 数学-计算机:软件工程
CiteScore
5.70
自引率
11.10%
发文量
160
审稿时长
4-8 weeks
期刊介绍: Mathematical Programming publishes original articles dealing with every aspect of mathematical optimization; that is, everything of direct or indirect use concerning the problem of optimizing a function of many variables, often subject to a set of constraints. This involves theoretical and computational issues as well as application studies. Included, along with the standard topics of linear, nonlinear, integer, conic, stochastic and combinatorial optimization, are techniques for formulating and applying mathematical programming models, convex, nonsmooth and variational analysis, the theory of polyhedra, variational inequalities, and control and game theory viewed from the perspective of mathematical programming.
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