The 2 -burning Number of a Graph

We study a discrete-time model for the spread of information in a graph, motivated by the idea that people believe a story when they learn of it from two different origins. Similar to the burning number, in this problem, information spreads in rounds and a new source can appear in each round. For a graph , we are interested in , the minimum number of rounds until the information has spread to all vertices of graph . We are also interested in finding , the minimum number of sources necessary so that the information spreads to all vertices of in rounds. In addition to general results, we find and for the classes of spiders and wheels and show that their behavior differs with respect to these two parameters. We also provide examples and prove upper bounds for these parameters for Cartesian products of graphs.

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Publication Details

Journal
Ars Combinatoria
Published
2024-12-31
DOI
https://doi.org/10.61091/ars161-16
Primary Topic
Advanced Graph Theory Research
Type
article
Field-Weighted Citation Impact
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article

The 2 -burning Number of a Graph

Margaret-Ellen Messinger, Ann N. Trenk, Catherine Jacobs
Ars Combinatoria
Advanced Graph Theory Research
article

The 2 -burning Number of a Graph

Margaret-Ellen Messinger, Ann N. Trenk, Catherine Jacobs
article en

Abstract

We study a discrete-time model for the spread of information in a graph, motivated by the idea that people believe a story when they learn of it from two different origins. Similar to the burning number, in this problem, information spreads in rounds and a new source can appear in each round. For a graph , we are interested in , the minimum number of rounds until the information has spread to all vertices of graph . We are also interested in finding , the minimum number of sources necessary so that the information spreads to all vertices of in rounds. In addition to general results, we find and for the classes of spiders and wheels and show that their behavior differs with respect to these two parameters. We also provide examples and prove upper bounds for these parameters for Cartesian products of graphs.

Ars CombinatoriaVol. 161(1)
Mount Allison University (CA), Wellesley College (US)
Openalex Percentile: Top 70%
Advanced Graph Theory Research
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The 2 -burning Number of a Graph — Margaret-Ellen Messinger, Ann N. Trenk, et al. · Ars Combinatoria (2024) | TGRS Research Map | TGRS