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No-exclaves percolationopen accessNo-exclaves percolation

Other Titles
No-exclaves percolation
Authors
Gwak, Sang-HwanGoh, K-, I
Issue Date
10월-2022
Publisher
KOREAN PHYSICAL SOC
Keywords
Complex network; Network robustness; Percolation theory; No-exclaves percolation
Citation
JOURNAL OF THE KOREAN PHYSICAL SOCIETY, v.81, no.7, pp.680 - 687
Indexed
SCIE
SCOPUS
KCI
Journal Title
JOURNAL OF THE KOREAN PHYSICAL SOCIETY
Volume
81
Number
7
Start Page
680
End Page
687
URI
https://scholar.korea.ac.kr/handle/2021.sw.korea/143581
DOI
10.1007/s40042-022-00549-0
ISSN
0374-4884
Abstract
Network robustness has been a pivotal issue in the study of system failure in network science since its inception. To shed light on this subject, we introduce and study a new percolation process based on a new cluster called an 'exclave' cluster. The entities comprising exclave clusters in a network are the sets of connected unfailed nodes that are completely surrounded by the failed (i.e., nonfunctional) nodes. The exclave clusters are thus detached from other unfailed parts of the network, thereby becoming effectively nonfunctional. This process defines a new class of clusters of nonfunctional nodes. We call it the no-exclave percolation cluster (NExP cluster), formed by the connected union of failed clusters and the exclave clusters they enclose. Here we showcase the effect of NExP cluster, suggesting a wide and disruptive collapse in two empirical infrastructure networks. We also study on two-dimensional Euclidean lattice to analyze the phase transition behavior using finite-size scaling. The NExP model considering the collective failure clusters uncovers new aspects of network collapse as a percolation process, such as quantitative change of transition point and qualitative change of transition type. Our study discloses hidden indirect damage added to the damage directly from attacks, and thus suggests a new useful way for finding nonfunctioning areas in complex systems under external perturbations as well as internal partial closures.
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