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A unified method of detecting core-periphery structure and community structure in networks
Bing-Bing Xiang1, Zhong-Kui Bao1, Chuang Ma1
1School of Mathematical Science, Anhui University, Hefei 230601, People's Republic of China.
Chaos (Woodbury, N.Y.)
|February 3, 2018
Summary
This study introduces a unified framework for simultaneously detecting core-periphery and community structures in complex networks. The method identifies single/multiple core-periphery pairs, overlapping communities, and structures at various scales.
Area of Science:
- Network Science
- Graph Theory
- Data Mining
Background:
- Complex networks exhibit meso-scale structures like core-periphery and community structures.
- Existing research primarily focuses on community detection, neglecting core-periphery structure analysis.
- Previous methods investigated core-periphery and community detection separately.
Purpose of the Study:
- To develop a unified framework for simultaneous detection of core-periphery and community structures in complex networks.
- To address limitations in current methods by enabling detection of multiple core-periphery pairs and overlapping communities.
- To provide a flexible approach capable of identifying core-periphery structures at different scales.
Main Methods:
- A novel unified framework is proposed for integrated structure detection.
- The algorithm allows for the identification of single and multiple core-periphery structures.
- It facilitates the detection of overlapping nodes within different communities and variable-scale structures.
Main Results:
- The framework successfully detects both core-periphery and community structures simultaneously.
- The method demonstrates the ability to identify multiple core-periphery pairs and overlapping community memberships.
- Performance validation on synthetic and real-world complex networks confirms the method's efficacy.
Conclusions:
- A foundational framework for detecting core-periphery and community structures in complex networks has been established.
- The unified approach offers enhanced capabilities over separate detection methods.
- This work provides a significant advancement in understanding meso-scale network organization.
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