Almost all graphs are vertex-minor universal
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arXiv
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| Autores principales: | , , , , |
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| Formato: | Preprint |
| Publicado: |
2026
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| _version_ | 1866915810700689408 |
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| author | Ascoli, Ruben Frederickson, Bryce Frederickson, Sarah McFarland, Caleb Post, Logan |
| author_facet | Ascoli, Ruben Frederickson, Bryce Frederickson, Sarah McFarland, Caleb Post, Logan |
| contents | Answering a question of Claudet, we prove that the uniformly random graph $G\sim \mathbb G(n, 1/2)$ is $Ω(\sqrt n)$-vertex-minor universal with high probability. That is, for some constant $α\approx 0.911$, any graph on any $α\sqrt n$ specified vertices of $G$ can be obtained as a vertex-minor of $G$. This has direct implications for quantum communications networks: an $n$-vertex $k$-vertex-minor universal graph corresponds to an $n$-qubit $k$-stabilizer universal graph state, which has the property that one can induce any stabilizer state on any $k$ qubits using only local operations and classical communications.
We further employ our methods in two other contexts. We obtain a bipartite pivot-minor version of our main result, and we use it to derive a universality statement for minors in random binary matroids. We also introduce the vertex-minor Ramsey number $R_{\mathrm{vm}}(k)$ to be the smallest value $n$ such that every $n$-vertex graph contains an independent set of size $k$ as a vertex-minor. Supported by our main result, we conjecture that $R_{\mathrm{vm}}(k)$ is polynomial in $k$. We prove $Ω(k^2) \leq R_{\mathrm{vm}}(k) \leq 2^k - 1$. |
| format | Preprint |
| id |
arxiv_https___arxiv_org_abs_2602_09049 |
| institution | arXiv |
| publishDate | 2026 |
| record_format | arxiv |
| spellingShingle | Almost all graphs are vertex-minor universal Ascoli, Ruben Frederickson, Bryce Frederickson, Sarah McFarland, Caleb Post, Logan Quantum Physics Combinatorics 81P45, 05C80, 05B35, 05C83, 05D10 Answering a question of Claudet, we prove that the uniformly random graph $G\sim \mathbb G(n, 1/2)$ is $Ω(\sqrt n)$-vertex-minor universal with high probability. That is, for some constant $α\approx 0.911$, any graph on any $α\sqrt n$ specified vertices of $G$ can be obtained as a vertex-minor of $G$. This has direct implications for quantum communications networks: an $n$-vertex $k$-vertex-minor universal graph corresponds to an $n$-qubit $k$-stabilizer universal graph state, which has the property that one can induce any stabilizer state on any $k$ qubits using only local operations and classical communications. We further employ our methods in two other contexts. We obtain a bipartite pivot-minor version of our main result, and we use it to derive a universality statement for minors in random binary matroids. We also introduce the vertex-minor Ramsey number $R_{\mathrm{vm}}(k)$ to be the smallest value $n$ such that every $n$-vertex graph contains an independent set of size $k$ as a vertex-minor. Supported by our main result, we conjecture that $R_{\mathrm{vm}}(k)$ is polynomial in $k$. We prove $Ω(k^2) \leq R_{\mathrm{vm}}(k) \leq 2^k - 1$. |
| title | Almost all graphs are vertex-minor universal |
| topic | Quantum Physics Combinatorics 81P45, 05C80, 05B35, 05C83, 05D10 |
| url | https://arxiv.org/abs/2602.09049 |