Emergent Behaviors over Signed Random Dynamical Networks: Relative-State-Flipping Model
Guodong Shi, Alexandre Proutiere, Mikael Johansson, John. S. Baras,, and Karl H. Johansson

TL;DR
This paper investigates the long-term behaviors of nodes in a dynamically changing signed network, where positive links promote consensus and negative links induce relative-state flipping, providing conditions for convergence, divergence, and clustering.
Contribution
It introduces a novel relative-state-flipping model with stochastic attentions and deterministic weights, extending previous models and analyzing emergent behaviors in signed random networks.
Findings
Conditions for almost sure convergence and divergence
A new criterion for almost sure state clustering
Differences highlighted between relative-state-flipping and state-flipping models
Abstract
We study asymptotic dynamical patterns that emerge among a set of nodes interacting in a dynamically evolving signed random network, where positive links carry out standard consensus and negative links induce relative-state flipping. A sequence of deterministic signed graphs define potential node interactions that take place independently. Each node receives a positive recommendation consistent with the standard consensus algorithm from its positive neighbors, and a negative recommendation defined by relative-state flipping from its negative neighbors. After receiving these recommendations, each node puts a deterministic weight to each recommendation, and then encodes these weighted recommendations in its state update through stochastic attentions defined by two Bernoulli random variables. We establish a number of conditions regarding almost sure convergence and divergence of the node…
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Taxonomy
TopicsDistributed Control Multi-Agent Systems · Opinion Dynamics and Social Influence · Complex Network Analysis Techniques
