2003
DOI: 10.1007/s00373-003-0526-z
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Probabilistic Methods for Decomposition Dimension of Graphs

Abstract: Abstract. In a graph G, the distance from an edge e to a set F ⊆ E(G) is the vertex distance from e to F in the line graph L(G). For a decomposition of E(G) into k sets, the distance vector of e is the k-tuple of distances from e to these sets. The decomposition dimension dec(G) of G is the smallest k such that G has a decomposition into k sets so that the distance vectors of the edges are distinct.For the complete graph K n and the k-dimensional hypercube Q k , we prove (2The upper bounds use probabilistic me… Show more

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Cited by 3 publications
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“…M. Hagita, A. Kundgen and D. B. West [3] used probabilistic methods to obtain upper bounds for decomposition dimension of complete graphs and regular graphs. H. Enomoto and T. Nakamigawa [2] established a lower bound for decomposition dimension of graphs using the maximum degree of G. They proved that for any graph G, dec(G) ≥ dlog 2 ∆(G)e + 1.…”
Section: Introductionmentioning
confidence: 99%
“…M. Hagita, A. Kundgen and D. B. West [3] used probabilistic methods to obtain upper bounds for decomposition dimension of complete graphs and regular graphs. H. Enomoto and T. Nakamigawa [2] established a lower bound for decomposition dimension of graphs using the maximum degree of G. They proved that for any graph G, dec(G) ≥ dlog 2 ∆(G)e + 1.…”
Section: Introductionmentioning
confidence: 99%