A Data-driven Understanding of COVID-19 Dynamics Using Sequential Genetic Algorithm Based Probabilistic Cellular Automata
Sayantari Ghosh, Saumik Bhattacharya

TL;DR
This paper introduces a novel data-driven approach using probabilistic cellular automata and genetic algorithms to model and analyze COVID-19 infection dynamics across multiple countries, revealing key factors influencing spread.
Contribution
It is the first to apply optimized cellular automata with genetic algorithms for COVID-19 data interpretation and modeling, offering a flexible and robust framework.
Findings
Effective modeling of daily active cases and total infections.
Identification of demographic and socioeconomic factors affecting spread.
Demonstrated predictive power across 40 countries.
Abstract
COVID-19 pandemic is severely impacting the lives of billions across the globe. Even after taking massive protective measures like nation-wide lockdowns, discontinuation of international flight services, rigorous testing etc., the infection spreading is still growing steadily, causing thousands of deaths and serious socio-economic crisis. Thus, the identification of the major factors of this infection spreading dynamics is becoming crucial to minimize impact and lifetime of COVID-19 and any future pandemic. In this work, a probabilistic cellular automata based method has been employed to model the infection dynamics for a significant number of different countries. This study proposes that for an accurate data-driven modeling of this infection spread, cellular automata provides an excellent platform, with a sequential genetic algorithm for efficiently estimating the parameters of the…
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Taxonomy
TopicsCOVID-19 epidemiological studies · Cellular Automata and Applications · Mathematical and Theoretical Epidemiology and Ecology Models
