Could society itself spiral into a Lorenz-like chaos when facing an epidemic threat?
Jo\~ao P. S. Maur\'icio de Carvalho

TL;DR
This paper models societal reactions to epidemics using a Lorenz-inspired system, revealing how feedback loops between perception, memory, and behavior can lead to complex, chaotic collective responses similar to disease dynamics.
Contribution
It introduces a novel socioepidemic model based on the Lorenz system, demonstrating how societal feedbacks can produce chaotic epidemic-like behaviors.
Findings
Small perception fluctuations can cause transitions between stable and chaotic responses.
Social reactions may inherently follow complex dynamical patterns.
Chaotic societal responses can mirror irregular outbreak patterns.
Abstract
Understanding how societies react to epidemic threats requires more than tracking infection curves. Public perception, collective memory and behavioural adaptation interact through feedback loops that can amplify or suppress the spread of fear, vigilance and precaution. In this work we reinterpret the classical Lorenz system in a socioepidemic context, governed by nonlinear interactions between perceived infection, social transmission behaviour and memory of past risk. We provide a qualitative analysis of the model and show that small fluctuations in perception or behaviour can trigger transitions between stable, oscillatory and chaotic collective responses. These results suggest that social reactions to epidemics may evolve according to intrinsic dynamical rules, generating complex patterns of vigilance, fatigue and renewed concern that mirror the irregular rhythms observed in real…
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Taxonomy
TopicsEcosystem dynamics and resilience · COVID-19 epidemiological studies · Chaos control and synchronization
