A graph is Hamiltonian if it contains a cycle passing through every vertex. One of the cornerstone results in the theory of random graphs asserts that for edge probability, the …
We study two problems related to the existence of Hamilton cycles in random graphs. The first question relates to the number of edge disjoint Hamilton cycles that the random graph G …
M Anastos, A Frieze - SIAM Journal on Discrete Mathematics, 2019 - SIAM
We consider the existence of patterned Hamilton cycles in randomly colored random graphs. Given a string Π over a set of colors {1,2,...,r\}, we say that a Hamilton cycle is Π-colored if the …
C Cooper, A Frieze - Combinatorics, Probability and Computing, 2002 - cambridge.org
We define a space of random edge-coloured graphs [Gscr] n, m, κ which correspond naturally to edge κ-colourings of Gn, m. We show that there exist constants K0, K1 [les] 21 …
C Cooper, AM Frieze - Journal of Graph Theory, 1989 - Wiley Online Library
On the number of hamilton cycles in a random graph Page 1 On the Number of Hamilton Cycles in a Random Graph - C. Cooper DEPARTMENT OF COMPUTING, MATHEMATICS AND …
A Ferber - arXiv preprint arXiv:1502.01399, 2015 - arxiv.org
We show how to adjust a very nice coupling argument due to McDiarmid in order to prove/reprove in a novel way results concerning Hamilton cycles in various models of …
N Alon, G Gutin - Random Structures & Algorithms, 1997 - Wiley Online Library
It is shown that, for ϵ> 0 and n> n0 (ϵ), any complete graph K on n vertices whose edges are colored so that no vertex is incident with more than (1‐1/\sqrt2‐ϵ) n edges of the same …
C Cooper, A Frieze - the electronic journal of combinatorics, 1995 - emis.de
Let the edges of a graph $ G $ be coloured so that no colour is used more than $ k $ times. We refer to this as a $ k $-bounded colouring. We say that a subset of the edges of $ G $ is …
A Dudek, C Reiher, A Ruciński… - Random Structures & …, 2020 - Wiley Online Library
We study the existence of powers of Hamiltonian cycles in graphs with large minimum degree to which some additional edges have been added in a random manner. It follows …