Sociophysics: a new approach of sociological collective behaviour. I. Mean-behaviour description of a strike
Serge Galam, Yuval Gefen (Feigenblat), Yonathan Shapir

TL;DR
This paper introduces a physics-inspired mean-behaviour model to analyze collective behaviour in sociological systems, specifically applying it to model and understand the dynamics of strikes in a plant.
Contribution
It presents a novel sociophysical model that captures phase transitions and metastability in collective behaviour, linking physical critical phenomena to social dynamics.
Findings
Identification of two phases: collective and individual.
Existence of a critical point with high sensitivity to parameters.
Metastability explains irreversibility in strike transitions.
Abstract
A new approach to the understanding of sociological collective behaviour, based on the framework of critical phenomena in physics, is presented. The first step consists of constructing a simple mean-behaviour model and applying it to a strike process in a plant. The model comprises only a limited number of parameters characteristic of the plant considered and of the society. A dissatisfaction function is introduced with a basic principle stating that the stable state of the plant is a state, which minimizes this function. It is found that the plant can be in one of two phases: the "collective phase" and the "individual phase". These two phases are separated by a critical point, in the neighbourhood of which the system is very sensitive to small changes in the parameters. The collective phase includes a region of parameters for which the system has two possible states: a "work state" and…
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Taxonomy
TopicsOpinion Dynamics and Social Influence · Nonlinear Dynamics and Pattern Formation · Complex Systems and Time Series Analysis
