SIAM Journal on Discrete Mathematics · 2013 · 33 citations · 23 references
Network ScienceGraph TheoryEngineeringRandom GraphStructural Graph TheoryAlgebraic Graph TheoryExtremal Graph TheoryProbabilistic Graph TheoryProbability TheoryDiscrete MathematicsHitting Time VersionRandom Graph ProcessPoisson BoundaryHamilton Cycles
We prove that the number of Hamilton cycles in the random graph $G(n,p)$ is $n!p^n(1+o(1))^n$ asymptotically almost surely (a.a.s.), provided that $p\geq \frac{\ln n+\ln\ln n+\omega(1)}{n}$. Furthermore, we prove the hitting time version of this statement, showing that in the random graph process, the edge that creates a graph of minimum degree $2$ creates $(\frac{\ln n}{e})^n(1+o(1))^n$ Hamilton cycles a.a.s.
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