Percolation transitions in simplicial complexes with interdependent relationships

Abstract We study higher-order percolation phenomena in two interdependent simplicial complexes. Based on the generating function approach, we develop a theoretical framework that provides insights into the percolation dynamics via pairwise or higher-order 2-simplex interactions among individuals. Our findings reveal that higher-order percolation in such structures displays a richer phase transition behavior than that observed in a single simplicial complex or interdependent dyadic networks. We observe both continuous and discontinuous transitions, which occur with either the removal of a small or large fraction of nodes. The initial phase of the transition, triggered by the removal of a small fraction of nodes, is primarily influenced by the density of triangles in each complex. In contrast, the terminal phase of the transition, during which the giant component disappears, is predominantly determined by the strength of interdependence between two complexes.

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Publication Details

Journal
Europhysics Letters (EPL)
Published
2024-12-01
DOI
https://doi.org/10.1209/0295-5075/ad9cbc
Citations
1
Primary Topic
Complex Network Analysis Techniques
Type
article
Field-Weighted Citation Impact
0.28

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article

Percolation transitions in simplicial complexes with interdependent relationships

Xin‐Jian Xu, Xiaolin Li, Bingfa Qin
1 citations
Europhysics Letters (EPL)
Complex Network Analysis Techniques
0.28
article

Percolation transitions in simplicial complexes with interdependent relationships

Xin‐Jian Xu, Xiaolin Li, Bingfa Qin
article en
1 citations

Abstract

Abstract We study higher-order percolation phenomena in two interdependent simplicial complexes. Based on the generating function approach, we develop a theoretical framework that provides insights into the percolation dynamics via pairwise or higher-order 2-simplex interactions among individuals. Our findings reveal that higher-order percolation in such structures displays a richer phase transition behavior than that observed in a single simplicial complex or interdependent dyadic networks. We observe both continuous and discontinuous transitions, which occur with either the removal of a small or large fraction of nodes. The initial phase of the transition, triggered by the removal of a small fraction of nodes, is primarily influenced by the density of triangles in each complex. In contrast, the terminal phase of the transition, during which the giant component disappears, is predominantly determined by the strength of interdependence between two complexes.

Europhysics Letters (EPL)Vol. 148(6)
National Natural Science Foundation of China
Openalex Percentile: Top 42%
Complex Network Analysis Techniques
0.28
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