Abstract
Given five edges in a 3-connected cubic graph there are obvious reasons why there may not be one cycle passing through all of them. For instance, an odd subset of the edges may form a cutset of the graph. By restricting the sets of five edges in a natural way we are able to give necessary and sufficient conditions for the set to be a subset of edges of some cycle. It follows as a corollary that, under suitable restrictions, any five edges of a cyclically 5-edge connected cubic graph lie on a cycle.
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Aldred, R.E.L., Holton, D.A., Thomassen, C.: Cycles through four edges in 3-connected cubic graphs. Graphs and Combinatorics1, 1–5 (1985)
Bussemaker, F.C., Cobeljic, S., Cvetkovic, D.M., Seidel, J.J.: Computer investigation of cubic graphs. Report 76-WSK-01. Eindhoven: Technological University 1976
Ellingham, M.N.: Cycles in 3-connected cubic graphs. M. Sc. Thesis. University of Melbourne 1982
Ellingham, M.N., Holton, D.A., Little, C.H.C.: Cycles through ten vertices in 3-connected cubic graphs. Combinatorica4, 256–273 (1984)
Häggvist, R., Thomassen, C.: Circuits through specified edges. Discrete Math.41, 29–34 (1982)
Holton, D.A., McKay, B.D., Plummer, M.D., Thomassen, C.: A nine point theorem for 3-connected graphs. Combinatorica2, 53–62 (1982)
Holton, D.A., Thomassen, C.: Research Problem. Discrete Math. (to appear)
Lovàsz, L.: Problem 5. Period. Math. Hung.4, 82 (1974)
Thomassen, C.: Girth in graphs. J. Comb. Theory (B)35, 129–141 (1983)
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Aldred, R.E.L., Holton, D.A. Cycles through five edges in 3-connected cubic graphs. Graphs and Combinatorics 3, 299–311 (1987). https://doi.org/10.1007/BF01788553
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DOI: https://doi.org/10.1007/BF01788553