Coarsening in the long-range Persistent Voter Model
Jeferson J. Arenzon, F. Corberi, W. G. Dantas, L. Smaldone

TL;DR
This paper studies the coarsening dynamics of a long-range Persistent Voter Model, revealing its universality class matches the long-range Ising model and providing analytical insights into the correlation behavior.
Contribution
It demonstrates the universality of the long-range Persistent Voter Model with the long-range Ising model and offers an analytical approach for the one-dimensional case.
Findings
Model belongs to the same universality class as the long-range Ising model.
Analytical treatment reproduces the $oldsymbol{ extit{ extalpha}}$-dependence of correlation length.
Opinion inertia reduces interfacial noise, aligning voter dynamics with Ising kinetics.
Abstract
We investigate the coarsening kinetics in a long-range variant of the Persistent Voter Model in space dimension and 2. In this model agents can hold two confidence levels, normal and zealot. If normal, agents take the opinion of others chosen at distance with probability , with . While in the zealot state, agents keep their own opinion. Normal (zealot) agents can become zealots (normal) if their opinion is equal (different) to that of the chosen neighbour. Through numerical simulations we show that, for any values of , the model belongs to the same universality class of the long-range Ising model quenched to a small (non-zero) temperature, similarly to what was already known for the nearest-neighbor case. For the one-dimensional case, we further develop an analytical treatment, which reproduces the -dependence of the…
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Taxonomy
TopicsOpinion Dynamics and Social Influence · Theoretical and Computational Physics · Complex Systems and Time Series Analysis
