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Non-isomorphic subgraphs in random graphs

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We establish the asymptotic behaviour of $\mu(G(n,p))$, the number of unlabelled induced subgraphs in the binomial random graph $G(n,p)$, for almost the entire range of the probability parameter $p=p(n)\in[0,1]$. In particular, we show that typically the number of subgraphs becomes exponential when $p$ passes $1/n$, reaches maximum possible base of exponent (asymptotically) when $p\gg 1/n$, and reaches the asymptotic value $2^n$ when $p$ passes $2\ln n/n$. For $p\gg \ln n/n$, we get the first order term and asymptotics of the second order term of $\mu(G(n,p))$. We also prove that random regular graphs $G_{n,d}$ typically have $\mu(G_{n,d})\geq 2^{c_d n}$ for all $d\geq 3$ and some positive constant $c_d$ such that $c_d\to 1$ as $d\to\infty$.

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A large hole in pseudo-random graphs

math.CO · 2025-05-29 · conditional · novelty 8.0

Any (n,d,lambda)-graph with lambda/d small contains an induced cycle of length Omega(n/d), and this is tight up to constants.

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  • A large hole in pseudo-random graphs math.CO · 2025-05-29 · conditional · none · ref 21 · internal anchor

    Any (n,d,lambda)-graph with lambda/d small contains an induced cycle of length Omega(n/d), and this is tight up to constants.