No-exclaves percolation on random networks

Fuente: arXiv
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Auteurs principaux: Min, Byungjoon, Park, Eun-Kyu, Gwak, Sang-Hwan, Goh, K. -I.
Format: Preprint
Publié: 2024
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author Min, Byungjoon
Park, Eun-Kyu
Gwak, Sang-Hwan
Goh, K. -I.
author_facet Min, Byungjoon
Park, Eun-Kyu
Gwak, Sang-Hwan
Goh, K. -I.
contents No-exclaves percolation (NExP) is a nonlocal percolation process in which the components are formed not only by the connected occupied nodes but also by the agglomeration of empty nodes completely surrounded by the occupied nodes. It has been studied in low dimensions, displaying such novel phenomena as the discontinuous transition to complete percolation. However, its characteristics in complex networks are still unexplored. In this paper, we study the NExP on random networks by developing mean-field solutions using the generating function formalism. Our theory allows us to determine the size of the giant no-exclaves component as well as the percolation threshold, which are in excellent agreements with Monte Carlo simulations on random networks and some real-world networks. We show that on random networks NExP exhibits three phases and two transitions between them: the phases are characterized by the presence or absence of not only the giant NExP component but also the giant unoccupied component, which is the giant connected component composed solely of unoccupied nodes. This work offers theoretical understanding on the anatomy of phase transitions in the NExP process.
format Preprint
id arxiv_https___arxiv_org_abs_2402_03689
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle No-exclaves percolation on random networks
Min, Byungjoon
Park, Eun-Kyu
Gwak, Sang-Hwan
Goh, K. -I.
Statistical Mechanics
Physics and Society
No-exclaves percolation (NExP) is a nonlocal percolation process in which the components are formed not only by the connected occupied nodes but also by the agglomeration of empty nodes completely surrounded by the occupied nodes. It has been studied in low dimensions, displaying such novel phenomena as the discontinuous transition to complete percolation. However, its characteristics in complex networks are still unexplored. In this paper, we study the NExP on random networks by developing mean-field solutions using the generating function formalism. Our theory allows us to determine the size of the giant no-exclaves component as well as the percolation threshold, which are in excellent agreements with Monte Carlo simulations on random networks and some real-world networks. We show that on random networks NExP exhibits three phases and two transitions between them: the phases are characterized by the presence or absence of not only the giant NExP component but also the giant unoccupied component, which is the giant connected component composed solely of unoccupied nodes. This work offers theoretical understanding on the anatomy of phase transitions in the NExP process.
title No-exclaves percolation on random networks
topic Statistical Mechanics
Physics and Society
url https://arxiv.org/abs/2402.03689