Experimental Evaluation of Parameterized Algorithms for Feedback Vertex Set
Krzysztof Kiljan, Marcin Pilipczuk

TL;DR
This paper provides a comprehensive experimental comparison of various fixed-parameter and branching algorithms for the Feedback Vertex Set problem, highlighting the performance differences and potential of relaxation-based approaches.
Contribution
It offers the first extensive experimental evaluation of parameterized algorithms for Feedback Vertex Set, including analysis of relaxation-based methods.
Findings
Relaxation-based approaches outperform classic algorithms in some cases
Significant performance variation among different fixed-parameter algorithms
Experimental results guide future algorithm development for Feedback Vertex Set
Abstract
Feedback Vertex Set is a classic combinatorial optimization problem that asks for a minimum set of vertices in a given graph whose deletion makes the graph acyclic. From the point of view of parameterized algorithms and fixed-parameter tractability, Feedback Vertex Set is one of the landmark problems: a long line of study resulted in multiple algorithmic approaches and deep understanding of the combinatorics of the problem. Because of its central role in parameterized complexity, the first edition of the Parameterized Algorithms and Computational Experiments Challenge (PACE) in 2016 featured Feedback Vertex Set as the problem of choice in one of its tracks. The results of PACE 2016 on one hand showed large discrepancy between performance of different classic approaches to the problem, and on the other hand indicated a new approach based on half-integral relaxations of the problem as…
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Taxonomy
TopicsAdvanced Graph Theory Research · Constraint Satisfaction and Optimization · Algorithms and Data Compression
