Computational model on COVID-19 Pandemic using Probabilistic Cellular Automata
Sayantari Ghosh, Saumik Bhattacharya

TL;DR
This paper introduces a probabilistic cellular automata model to simulate COVID-19 spread, incorporating spatial, temporal, and behavioral factors, to evaluate the impact of mitigation strategies and explain differences across countries.
Contribution
It is the first to use PCA for COVID-19 modeling, capturing spatial-temporal dynamics and behavioral aspects of mitigation strategies.
Findings
Model explains variability in epidemic data across countries.
Highlights importance of population density and testing efficiency.
Provides insights into the effects of social distancing measures.
Abstract
Coronavirus disease (COVID-19) which is caused by SARS-COV2 has become a pandemic. This disease is highly infectious and potentially fatal, causing a global public health concern. To contain the spread of COVID-19, governments are adopting nationwide interventions, like lockdown, containment and quarantine, restrictions on travel, cancelling social events and extensive testing. To understand the effects of these measures on the control of the epidemic in a data-driven manner, we propose a probabilistic cellular automata (PCA) based modified SEIQR model. The transitions associated with the model is driven by data available on chronology, symptoms, pathogenesis and transmissivity of the virus. By arguing that the lattice-based model captures the features of the dynamics along with the existing fluctuations, we perform rigorous computational analyses of the model to take into account of…
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