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On Derandomizing Local Distributed Algorithms
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abstract
The gap between the known randomized and deterministic local distributed algorithms underlies arguably the most fundamental and central open question in distributed graph algorithms. In this paper, we develop a generic and clean recipe for derandomizing LOCAL algorithms. We also exhibit how this simple recipe leads to significant improvements on a number of problem. Two main results are: - An improved distributed hypergraph maximal matching algorithm, improving on Fischer, Ghaffari, and Kuhn [FOCS'17], and giving improved algorithms for edge-coloring, maximum matching approximation, and low out-degree edge orientation. The first gives an improved algorithm for Open Problem 11.4 of the book of Barenboim and Elkin, and the last gives the first positive resolution of their Open Problem 11.10. - An improved distributed algorithm for the Lov\'{a}sz Local Lemma, which gets closer to a conjecture of Chang and Pettie [FOCS'17], and moreover leads to improved distributed algorithms for problems such as defective coloring and $k$-SAT.
Forward citations
Cited by 2 Pith papers
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Truly Work-efficient Parallel Deterministic $(\Delta+1)$-coloring and Maximal Independent Set
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Borel Local Lemma: arbitrary random variables and limited exponential growth
A Borel LLL holds for arbitrary random variables when the dependency graph exponential growth rate is bounded by a constant s satisfying a slackened LLL condition.
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