Optimal packings of Hamilton cycles in sparse random graphs
Michael Krivelevich, Wojciech Samotij

TL;DR
This paper proves that in sparse random graphs with certain edge probabilities, there almost surely exist many edge-disjoint Hamilton cycles, extending understanding of Hamiltonian structures in random graphs.
Contribution
It establishes the existence of a large collection of edge-disjoint Hamilton cycles in sparse random graphs within a specific probability range.
Findings
Existence of loor{rac{ ext{minimum degree}}{2}} edge-disjoint Hamilton cycles in G(n,p)
Results hold for p between rac{ extlog n}{n} and n^{-1+ extepsilon}
Asymptotic almost sure existence of these Hamilton cycles
Abstract
We prove that there exists a positive constant \epsilon such that if \log n / n \le p \le n^{-1+\epsilon}, then asymptotically almost surely the random graph G ~ G(n,p) contains a collection of \lfloor \delta(G)/2 \rfloor edge-disjoint Hamilton cycles.
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Taxonomy
TopicsLimits and Structures in Graph Theory · Graph theory and applications · Advanced Graph Theory Research
