Simulating COVID-19 in a University Environment
Philip T. Gressman, Jennifer R. Peck

TL;DR
This study uses a detailed agent-based model to evaluate COVID-19 mitigation strategies in universities, highlighting the importance of testing, contact tracing, class size reduction, and managing social exposure for safe in-person instruction.
Contribution
It introduces a comprehensive stochastic agent-based simulation to assess COVID-19 interventions in university settings, providing insights into effective measures for outbreak control.
Findings
Large-scale testing, contact tracing, and quarantining are essential.
High test specificity reduces quarantine burden.
Moving large classes online helps control outbreaks.
Abstract
Residential colleges and universities face unique challenges in providing in-person instruction during the COVID-19 pandemic. Administrators are currently faced with decisions about whether to open during the pandemic and what modifications of their normal operations might be necessary to protect students, faculty and staff. There is little information, however, on what measures are likely to be most effective and whether existing interventions could contain the spread of an outbreak on campus. We develop a full-scale stochastic agent-based model to determine whether in-person instruction could safely continue during the pandemic and evaluate the necessity of various interventions. Simulation results indicate that large scale randomized testing, contact-tracing, and quarantining are important components of a successful strategy for containing campus outbreaks. High test specificity is…
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