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Blow-up lemmas for sparse graphs

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arxiv 1612.00622 v5 pith:KI5T42O4 submitted 2016-12-02 math.CO

classification math.CO
keywords graphsdeltablow-updegreelemmaspanningsubgraphsembedding
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abstract

The blow-up lemma states that a system of super-regular pairs contains all bounded degree spanning graphs as subgraphs that embed into a corresponding system of complete pairs. This lemma has far-reaching applications in extremal combinatorics. We prove sparse analogues of the blow-up lemma for subgraphs of random and of pseudorandom graphs. Our main results are the following three sparse versions of the blow-up lemma: one for embedding spanning graphs with maximum degree $\Delta$ in subgraphs of $G(n,p)$ with $p=C(\log n/n)^{1/\Delta}$; one for embedding spanning graphs with maximum degree $\Delta$ and degeneracy $D$ in subgraphs of $G(n,p)$ with $p=C_\Delta\big(\log n/n\big)^{1/(2D+1)}$; and one for embedding spanning graphs with maximum degree $\Delta$ in $(p,cp^{\max(4,(3\Delta+1)/2)}n)$-bijumbled graphs. We also consider various applications of these lemmas.

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Reviewed papers in the Pith corpus that reference this work. Sorted by Pith novelty score. Full citation record

  1. Robustness of the Sauer-Spencer Theorem

    math.CO 2025-07 accept novelty 8.0 of 10

    A random subgraph of a graph with minimum degree at least (1 - 1/(2Δ))n contains, with high probability, any spanning n-vertex graph of maximum degree Δ, once edges are kept with probability at least C n^{-1/m1(H)} log n.

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