Community Detection Based on Minimum-Cut Graph Partitioning

Author(s):  
Yashen Wang ◽  
Heyan Huang ◽  
Chong Feng ◽  
Zhirun Liu
2021 ◽  
Author(s):  
R C Jisha ◽  
P S Indrajith ◽  
S Abhishek

2018 ◽  
Vol 9 (4) ◽  
pp. 52-70 ◽  
Author(s):  
Ameera Saleh Jaradat ◽  
Safa'a Bani Hamad

This article describes how parallel to the continuous growth of the Internet, which allows people to share and collaborate more, social networks have become more attractive as a research topic in many different disciplines. Community structures are established upon interactions between people. Detection of these communities has become a popular topic in computer science. How to detect the communities is of great importance for understanding the organization and function of networks. Community detection is considered a variant of the graph partitioning problem which is NP-hard. In this article, the Firefly algorithm is used as an optimization algorithm to solve the community detection problem by maximizing the modularity measure. Firefly algorithm is a new Nature-inspired heuristic algorithm that proved its good performance in a variety of applications. Experimental results obtained from tests on real-life networks demonstrate that the authors' algorithm successfully detects the community structure.


The most fundamental problem in BSP parallel graph computing is to decide how to partition and then distribute the graph among the available processors. In this regard, partitioning techniques for BSP heterogeneous computing should produce computing loads with different sizes (unbalanced partitions) in order to exploit processors with different computing capabilities. In this chapter, three major graph partitioning paradigms that are relevant to parallel graph processing are reviewed: balanced graph partitioning, unbalanced graph partitioning, and community detection. Then, the authors discuss how any of these paradigms fits the needs of graph heterogeneous computing where the suitability of partitions to hardware architectures plays a vital role. Finally, the authors discuss how the decomposition of networks in layers through the k-core decomposition provides the means for developing methods to produce unbalanced graph partitions that match multi-core and GPU processing capabilities.


Author(s):  
Alberto Ochoa ◽  
Beatrí­z Bernábe ◽  
Omar Ochoa

This paper presents a novel method for the zone design problem that is based on a popular technique in the field of complex networks research: betweenness centrality. We use a parallel version of a community detection algorithm that outputs the graph partitioning that maximizes the so‐called modularity metric. The method is put at the centre of an effort to build an open source interactive high  erformance computing platform to assist researchers working with population data.


2016 ◽  
Author(s):  
Ananth Kalyanaraman ◽  
Mahantesh Halappanavar ◽  
Daniel Chavarría-Miranda ◽  
Hao Lu ◽  
Karthi Duraisamy
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