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Minimum sizes of identifying codes in graphs differing by one edge

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Abstract

Let G be a simple, undirected graph with vertex set V. For vV and r ≥ 1, we denote by B G, r (v) the ball of radius r and centre v. A set \({\mathcal C} \subseteq V\) is said to be an r-identifying code in G if the sets \(B_{G,r}(v)\cap {\mathcal C}\), vV, are all nonempty and distinct. A graph G admitting an r-identifying code is called r-twin-free, and in this case the size of a smallest r-identifying code in G is denoted by γ r (G). We study the following structural problem: let G be an r-twin-free graph, and G be a graph obtained from G by adding or deleting an edge. If G is still r-twin-free, we compare the behaviours of γ r (G) and γ r (G ), establishing results on their possible differences and ratios.

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Correspondence to Iiro Honkala.

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Charon, I., Honkala, I., Hudry, O. et al. Minimum sizes of identifying codes in graphs differing by one edge. Cryptogr. Commun. 6, 157–170 (2014). https://doi.org/10.1007/s12095-013-0094-x

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  • DOI: https://doi.org/10.1007/s12095-013-0094-x

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