Parameterized VERTEX COVER in Graphs of Small Degree
Peter J. Taillon
Abstract
Peter J. Taillon
Abstract
We describe a new approach to improve algorithms for solving the k-VERTEX COVER problem, that complements the state-of-the-art kernelization techniques based on solving maximum-flow instances. Our algorithm applies to graphs of small bounded degree, adapts existing k-vertex cover machinery, and incurs no additional complexity. We also investigate the applicability of our new algorithm to solving the Maximum Independent Set problem in graphs of small bounded degree.
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We describe a new approach to improve algorithms for solving the k-VERTEX COVER problem, that complements the state-of-the-art kernelization techniques based on solving maximum-flow instances. Our algorithm applies to graphs of small bounded degree, adapts existing k-vertex cover machinery, and incurs no additional complexity. We also investigate the applicability of our new algorithm to solving the Maximum Independent Set problem in graphs of small bounded degree.
Key concepts: Vertex cover, Kernelization, Parameterized complexity, Bounded function, Degree (music), Edge cover, Vertex (graph theory), Feedback vertex set