Exploiting user-supplied Decompositions inside Heuristics

Abstract Numerous industrial fields, like supply chain management, face mixed-integer optimization problems on a regular basis. Such problems typically show a sparse structure and vary in size, as well as complexity. However, in order to satisfy customer demands, it is crucial to find good solutions to all such problems quickly. Current research often focuses on the development of a tailored approach for one specific problem class with a common structure. Information supplied by everyday users is usually overlooked, but may result in a decomposition with weakly connected blocks due to the structural sparsity. Hence, we present three heuristics to exploit decomposition information and analyze their value based on the type of decomposition. In particular, we newly introduce the heuristic Dynamic Partition Search, enhance the Penalty Alternating Direction Method published earlier in a basic form, and extend a framework from literature to Decomposition Kernel Search. All heuristics are implemented in the non-commercial solver SCIP. We examine their performance in a comprehensive computational study across three different test sets. The computational results indicate that knowledge about relevant decomposition information can boost the solution process of mixed-integer optimization problems.

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Publication Details

Journal
Journal of Heuristics
Published
2025-10-22
DOI
https://doi.org/10.1007/s10732-025-09572-3
Primary Topic
Constraint Satisfaction and Optimization
Type
article
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article

Exploiting user-supplied Decompositions inside Heuristics

Dieter Weninger, Katrin Halbig, Adrian Göß
Journal of Heuristics
Constraint Satisfaction and Optimization
article

Exploiting user-supplied Decompositions inside Heuristics

Dieter Weninger, Katrin Halbig, Adrian Göß
article en

Abstract

Abstract Numerous industrial fields, like supply chain management, face mixed-integer optimization problems on a regular basis. Such problems typically show a sparse structure and vary in size, as well as complexity. However, in order to satisfy customer demands, it is crucial to find good solutions to all such problems quickly. Current research often focuses on the development of a tailored approach for one specific problem class with a common structure. Information supplied by everyday users is usually overlooked, but may result in a decomposition with weakly connected blocks due to the structural sparsity. Hence, we present three heuristics to exploit decomposition information and analyze their value based on the type of decomposition. In particular, we newly introduce the heuristic Dynamic Partition Search, enhance the Penalty Alternating Direction Method published earlier in a basic form, and extend a framework from literature to Decomposition Kernel Search. All heuristics are implemented in the non-commercial solver SCIP. We examine their performance in a comprehensive computational study across three different test sets. The computational results indicate that knowledge about relevant decomposition information can boost the solution process of mixed-integer optimization problems.

Journal of HeuristicsVol. 31(4)
Friedrich-Alexander-Universität Erlangen-Nürnberg (DE), Lutheran University of Applied Sciences Nuremberg (DE)
Openalex Percentile: Top 64%
Constraint Satisfaction and Optimization
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Exploiting user-supplied Decompositions inside Heuristics — Dieter Weninger, Katrin Halbig, et al. · Journal of Heuristics (2025) | TGRS Research Map | TGRS