How Overlapping Community Structure Affects Epidemic Spreading in Complex Networks

Many real-world networks exhibit overlapping community structure in which vertices may belong to more than one community. It has been recently shown that community structure plays an import role in epidemic spreading. However, the effect of different vertices on epidemic behavior was still unclear....

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Published in2014 IEEE 38th International Computer Software and Applications Conference Workshops pp. 240 - 245
Main Authors Jiaxing Shang, Lianchen Liu, Feng Xie, Cheng Wu
Format Conference Proceeding
LanguageEnglish
Published IEEE 01.07.2014
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DOI10.1109/COMPSACW.2014.43

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Abstract Many real-world networks exhibit overlapping community structure in which vertices may belong to more than one community. It has been recently shown that community structure plays an import role in epidemic spreading. However, the effect of different vertices on epidemic behavior was still unclear. In this paper, we classify vertices into overlapping and non-overlapping ones, and investigate in detail how they affect epidemic spreading respectively. We propose a SIR epidemic model named ICP-SIR (Inner-Community Preferred Susceptible-Infective-Recovered) where the inner-community and inter-community spreading rates are different. We consider the case where epidemic process is started by immunizing and infecting multiple overlapping or non-overlapping vertices. The epidemic model is applied on both synthetic and real-world networks. Simulation results indicate that compared to non-overlapping vertices, overlapping vertices play a vital role in spreading the epidemic across communities. The result of our research may provide some reference on epidemic immunization in the future.
AbstractList Many real-world networks exhibit overlapping community structure in which vertices may belong to more than one community. It has been recently shown that community structure plays an import role in epidemic spreading. However, the effect of different vertices on epidemic behavior was still unclear. In this paper, we classify vertices into overlapping and non-overlapping ones, and investigate in detail how they affect epidemic spreading respectively. We propose a SIR epidemic model named ICP-SIR (Inner-Community Preferred Susceptible-Infective-Recovered) where the inner-community and inter-community spreading rates are different. We consider the case where epidemic process is started by immunizing and infecting multiple overlapping or non-overlapping vertices. The epidemic model is applied on both synthetic and real-world networks. Simulation results indicate that compared to non-overlapping vertices, overlapping vertices play a vital role in spreading the epidemic across communities. The result of our research may provide some reference on epidemic immunization in the future.
Author Cheng Wu
Lianchen Liu
Jiaxing Shang
Feng Xie
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  organization: Nat. CIMS Eng. Center, Tsinghua Univ., Beijing, China
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Snippet Many real-world networks exhibit overlapping community structure in which vertices may belong to more than one community. It has been recently shown that...
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StartPage 240
SubjectTerms Analytical models
Benchmark testing
Blogs
Communities
Community Structure
Complex networks
Conferences
Electronic mail
Epidemic Spreading
Overlapping
Title How Overlapping Community Structure Affects Epidemic Spreading in Complex Networks
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