Rumor propagation and supervision during confrontation: An importance-driven SIRQS network model

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Authors: Wenjie Zhang, Juan Wu, Minyu Feng, Qin Li, M Nekrep Perc
Cited by: 3
References: 48

Abstract

The societal impact of rumor spreading is becoming increasingly severe; yet, current research remains relatively one-sided, typically focusing on either rumor propagation or rumor control while neglecting the confrontational and dynamically evolving relationship between them. To address this gap, we propose a novel confrontation framework for rumor modeling. We extend the classical susceptible-infected-recovered-susceptible (SIRS) model into an ignorant-spreader-stifler-vigilant-ignorant (SIRQS) framework by introducing a vigilant state and a confrontation mechanism, thereby capturing subtle differences in individual states during rumor propagation and in their confrontational behavior toward supervisors. At the same time, supervisors patrol the network through random walks guided by node propagation importance, enabling targeted monitoring of rumor spreaders and individuals with a high risk of spreading rumors. Using a microscopic Markov chain approach, we further characterize heterogeneous node behavior and individual differences, and couple the propagation and supervision processes to model node-state transition patterns. We conduct simulations on networks with three different sizes, various topologies, and a real-world network. The results show that the supervision subject, the preference effects associated with the number of supervisors, and the confrontation mechanism are key factors in supervision, and largely determine the effectiveness of rumor propagation control in the simulations, reflecting the substantial influence of these three mechanisms in real-world spreading scenarios. Finally, through multiple evaluation indicators, we provide references for determining the optimal number of supervisors.

Fields of Study & Subjects

Complex Network Analysis Techniques Misinformation and Its Impacts Opportunistic and Delay-Tolerant Networks

Publication details

Journal / source
Chaos An Interdisciplinary Journal of Nonlinear Science
Publisher
AIP Publishing
Volume
36
Issue
5
Publication date
1 May 2026
Language
EN