
AbstractConsider a random graph G composed of a Hamiltonian cycle on n labeled vertices and dn random edges that “high” the cycle. Is it possible to unravel the structures, that is, to efficiently find a Himiltonian cycle in G? We describe an O(n3 log n)‐step algorithm A for this purpose, and prove that it succeeds almost surely. Part one of A properly covers the “trouble spots” of G by a collection of disjoint paths. (This is the hard part to analyze). Part two of A extends this cover to a full cycle by the rotation‐extension technique which is already classical for such problems. © 1994 John Wiley & Sons, Inc.
Eulerian and Hamiltonian graphs, edge disjoint paths, Graph algorithms (graph-theoretic aspects), Random graphs (graph-theoretic aspects), search algorithms, cover, Paths and cycles, Hamiltonian cycles, random graphs, sparse graphs
Eulerian and Hamiltonian graphs, edge disjoint paths, Graph algorithms (graph-theoretic aspects), Random graphs (graph-theoretic aspects), search algorithms, cover, Paths and cycles, Hamiltonian cycles, random graphs, sparse graphs
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