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Autores principales: Fu, Cheng-Hao, Lincoln, Andrea, Reyes, Rene
Formato: Preprint
Publicado: 2025
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Acceso en línea:https://arxiv.org/abs/2504.18640
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author Fu, Cheng-Hao
Lincoln, Andrea
Reyes, Rene
author_facet Fu, Cheng-Hao
Lincoln, Andrea
Reyes, Rene
contents In this paper we present tight lower-bounds and new upper-bounds for hypergraph and database problems. We give tight lower-bounds for finding minimum hypercycles. We give tight lower-bounds for a substantial regime of unweighted hypercycle. We also give a new faster algorithm for longer unweighted hypercycles. We give a worst-case to average-case reduction from detecting a subgraph of a hypergraph in the worst-case to counting subgraphs of hypergraphs in the average-case. We demonstrate two applications of this worst-case to average-case reduction, which result in average-case lower bounds for counting hypercycles in random hypergraphs and queries in average-case databases. Our tight upper and lower bounds for hypercycle detection in the worst-case have immediate implications for the average-case via our worst-case to average-case reductions.
format Preprint
id arxiv_https___arxiv_org_abs_2504_18640
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Worst-Case and Average-Case Hardness of Hypercycle and Database Problems
Fu, Cheng-Hao
Lincoln, Andrea
Reyes, Rene
Computational Complexity
In this paper we present tight lower-bounds and new upper-bounds for hypergraph and database problems. We give tight lower-bounds for finding minimum hypercycles. We give tight lower-bounds for a substantial regime of unweighted hypercycle. We also give a new faster algorithm for longer unweighted hypercycles. We give a worst-case to average-case reduction from detecting a subgraph of a hypergraph in the worst-case to counting subgraphs of hypergraphs in the average-case. We demonstrate two applications of this worst-case to average-case reduction, which result in average-case lower bounds for counting hypercycles in random hypergraphs and queries in average-case databases. Our tight upper and lower bounds for hypercycle detection in the worst-case have immediate implications for the average-case via our worst-case to average-case reductions.
title Worst-Case and Average-Case Hardness of Hypercycle and Database Problems
topic Computational Complexity
url https://arxiv.org/abs/2504.18640