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Large Cuts with Local Algorithms on Triangle-Free Graphs

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arxiv 1402.2543 v1 pith:MFHHM72M submitted 2014-02-11 cs.DC cs.DMcs.DS

classification cs.DCcs.DMcs.DS
keywords algorithmalgorithmssizetriangle-freecutsdistributedexpectedfinds
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abstract

We study the problem of finding large cuts in $d$-regular triangle-free graphs. In prior work, Shearer (1992) gives a randomised algorithm that finds a cut of expected size $(1/2 + 0.177/\sqrt{d})m$, where $m$ is the number of edges. We give a simpler algorithm that does much better: it finds a cut of expected size $(1/2 + 0.28125/\sqrt{d})m$. As a corollary, this shows that in any $d$-regular triangle-free graph there exists a cut of at least this size. Our algorithm can be interpreted as a very efficient randomised distributed algorithm: each node needs to produce only one random bit, and the algorithm runs in one synchronous communication round. This work is also a case study of applying computational techniques in the design of distributed algorithms: our algorithm was designed by a computer program that searched for optimal algorithms for small values of $d$.

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