2003
DOI: 10.1007/978-3-540-24596-4_7
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A Parallel Iterative Improvement Stable Matching Algorithm

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Cited by 9 publications
(8 citation statements)
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“…Theorem 1 gives theoretical support to the findings in Quinn [29]. Theorem 1 also addresses the concern expressed in the conclusions of Lu and Zheng [23] where it is claimed that "Most of existing parallel stable matching algorithms cannot guarantee a matching with a small number of unstable pairs within a given time interval." Theorem 1 suggests that if the number of acceptable partners for each participant is bounded, the Gale-Shapley algorithm guarantees a small relative number of unstable edges.…”
Section: Distributed Stable Matchingsupporting
confidence: 60%
See 1 more Smart Citation
“…Theorem 1 gives theoretical support to the findings in Quinn [29]. Theorem 1 also addresses the concern expressed in the conclusions of Lu and Zheng [23] where it is claimed that "Most of existing parallel stable matching algorithms cannot guarantee a matching with a small number of unstable pairs within a given time interval." Theorem 1 suggests that if the number of acceptable partners for each participant is bounded, the Gale-Shapley algorithm guarantees a small relative number of unstable edges.…”
Section: Distributed Stable Matchingsupporting
confidence: 60%
“…Quinn [29] observes experimentally that a matching with only a fraction of unstable edges emerges long before the Gale-Shapley algorithm converges. Lu and Zheng [23] propose a parallel algorithm that outperforms the Gale-Shapley algorithm in practice. Theorem 1 gives theoretical support to the findings in Quinn [29].…”
Section: Distributed Stable Matchingmentioning
confidence: 99%
“…We focus on the model introduced by Immorlica and Mahdian [IM05], in which the the women can have arbitrary preferences over the men, and the men have preference lists of length k over the women, sampled uniformly at random. Our main result is a local computation algorithm which matches all but an arbitrarily small fraction of the participants (this is often called an almost stable matching; see, e.g., [TL84,LZ03]). Furthermore, limited to the matched participants, the matching is stable.…”
Section: Introductionmentioning
confidence: 99%
“…At this point each seed forms a cluster with all vertices on its waitlist, subject to size constraint (we guarantee that no cluster can be larger than total vertex weight over the number of parts). The fact that we use a classical problem as a subproblem in our heuristic allows us to potentially leverage the previous work in optimizing and parallelizing stable assignment, such as [34], [35] and [22]. The pseudocode is presented in Listing 3.…”
Section: Aggregationmentioning
confidence: 99%