Jordan Barrett

dblp:232/2008 · DBLP profile ↗
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5ranked-venue papers
5as first author
5since 2021 · last 2025
0009-0004-7192-3109ORCID · corroborated

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Theory of computation · 5 · 5 first-author · 5 since 2021
YearPublicationVenuePosition
2025 Improving Community Detection via Community Association Strength Scores
Jordan Barrett, Ryan DeWolfe, Bogumil Kaminski, Pawel Pralat, Aaron Smith, François Théberge
WAW1
2025 The Artificial Benchmark for Community Detection with Outliers and Overlapping Communities ($\mathbf {ABCD{+}o}^2$)
Jordan Barrett, Ryan DeWolfe, Bogumil Kaminski, Pawel Pralat, Aaron Smith, François Théberge
WAW1
2025 Self-similarity of communities of the ABCD model
Jordan Barrett, Bogumil Kaminski, Pawel Pralat, François Théberge
Theor. Comput. Sci.1
2024 Self-similarity of Communities of the ABCD Model
Jordan Barrett, Bogumil Kaminski, Pawel Pralat, François Théberge
WAW1
2021 Partitioning Into Prescribed Number of Cycles and Mod k T-join With Slack
abstract
The input to a PPNC instance is integers n and p, and a non-negative real weighting of the edges of the clique Kn on the vertex set {1,..., n}. We are asked to find a set of p disjoint cycles spanning {1,..., n} and subject to this such that the sum of the weights of the edges is minimized. We provide an efficient approximation algorithm for the metric version of this problem which has an approximation ratio of 4 if p ≤ n/5 and an approximation ratio of 51 for larger p. For p > n/5, our algorithm uses a subroutine which approximately solves the Mod 3 T-join With Slack problem. The input to an instance of Mod k T-join with Slack consists of integers n and B, a non-negative weighting of the edges of the clique Kn, and a label l(v) from {0,1,..., k - 1} on each vertex of Kn. We are asked to find the minimum weight spanning forest F from amongst those satisfying ∑T∈F((∑v∈V(T)l(v)) mod k) ≤ B. If k = 2 and B = 0 this is the well-studied T-join problem which can be solved exactly in polynomial time.
Jordan Barrett, Salomon Bendayan, Yanjia Li, Bruce A. Reed
LAGOS1