This paper introduces DPL, a distributed algorithm designed to efficiently detect community structures within large-scale networks by leveraging a block-wise splitting method and pseudo-likelihood estimation, significantly reducing computational complexity while maintaining accuracy.
This research paper proposes a novel distributed community detection algorithm for large networks that leverages the inherent "grouped community structure" often found in real-world networks to improve computational efficiency without sacrificing accuracy.
Incorporating known uncertainty levels, such as missing link information, into community detection algorithms like Flow Stability enhances the accuracy and robustness of community detection in networks with incomplete data.
This paper proposes GCLS$^2$, a novel graph contrastive learning framework that leverages structure semantics to improve community detection in graph data.
The core message of this article is that the notion of local dominance can be used to efficiently detect communities in complex networks. The proposed Local Search (LS) algorithm identifies community centers based on local information, such as node degree and distance to other local leaders, and then assigns nodes to communities based on these local dominance relations.
Die Integration von Kanteninformationen verbessert signifikant die Genauigkeit der Community Detection.