Geometrical distribution of agents based on a generalised Potts model

Abstract In collective local interaction systems with agents assigned to different profiles (categories, traits), the distribution of such profiles in the neighbourhood of any agent affects the exchange of ideas, a basic element in Collective Intelligence experiments. It is important to control this distribution experimentally, asking for criteria that should range from maximum homogeneity to maximum difference. We suggest a method where we obtain these criteria by adding an extra interaction term to the Q-state Potts model, producing a rich vacuum structure. By controlling the two parameters of the model, we can obtain different patterns for the geometrical distribution of the agents. We study the transitions and phase diagram of this model, considering the physics at constant magnetization, and show that the states correspond to a large diversity of mixing patterns, directly applicable to agent distribution in CI experiments. Graphical abstract

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Publication Details

Journal
The European Physical Journal B
Published
2025-09-01
DOI
https://doi.org/10.1140/epjb/s10051-025-01005-1
Primary Topic
Opinion Dynamics and Social Influence
Type
article
Field-Weighted Citation Impact
0.00

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article

Geometrical distribution of agents based on a generalised Potts model

Alejandro Rivero, A. Tarancón, Carlos Tarancón
The European Physical Journal B
Opinion Dynamics and Social Influence
article

Geometrical distribution of agents based on a generalised Potts model

Alejandro Rivero, A. Tarancón, Carlos Tarancón
article en

Abstract

Abstract In collective local interaction systems with agents assigned to different profiles (categories, traits), the distribution of such profiles in the neighbourhood of any agent affects the exchange of ideas, a basic element in Collective Intelligence experiments. It is important to control this distribution experimentally, asking for criteria that should range from maximum homogeneity to maximum difference. We suggest a method where we obtain these criteria by adding an extra interaction term to the Q-state Potts model, producing a rich vacuum structure. By controlling the two parameters of the model, we can obtain different patterns for the geometrical distribution of the agents. We study the transitions and phase diagram of this model, considering the physics at constant magnetization, and show that the states correspond to a large diversity of mixing patterns, directly applicable to agent distribution in CI experiments. Graphical abstract

The European Physical Journal BVol. 98(9)
Universidad de Zaragoza (ES), Ta Solutions (China) (CN)
European Commission, Agencia Estatal de Investigación
Openalex Percentile: Top 81%
Opinion Dynamics and Social Influence
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