2020
DOI: 10.1002/net.21975
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The firebreak problem

Abstract: Suppose we have a network that is represented by a graph G. Potentially a fire (or other type of contagion) might erupt at some vertex of G. We are able to respond to this outbreak by establishing a firebreak at k other vertices of G, so that the fire cannot pass through these fortified vertices. The question that now arises is which k vertices will result in the greatest number of vertices being saved from the fire, assuming that the fire will spread to every vertex that is not fully behind the k vertices of … Show more

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Cited by 3 publications
(1 citation statement)
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“…Fomin et al [19] and Arvind et al [2] proved, respectively, that the Dominating Set and Graph Isomorphism problems on chordal graphs are FPT parameterized by the leafage. Barnetson et al [4] and Papadopoulos and Tzimas [44] presented XP-algorithms running in time n O(ℓ) for Fire Break and Subset FVS on chordal graphs, respectively. Papadopoulos and Tzimas [44] also proved that Subset FVS is W [1]hard when parameterized by the leafage.…”
Section: Introductionmentioning
confidence: 99%
“…Fomin et al [19] and Arvind et al [2] proved, respectively, that the Dominating Set and Graph Isomorphism problems on chordal graphs are FPT parameterized by the leafage. Barnetson et al [4] and Papadopoulos and Tzimas [44] presented XP-algorithms running in time n O(ℓ) for Fire Break and Subset FVS on chordal graphs, respectively. Papadopoulos and Tzimas [44] also proved that Subset FVS is W [1]hard when parameterized by the leafage.…”
Section: Introductionmentioning
confidence: 99%