Multimodal surveillance of SARS-CoV-2 at a university enables development of a robust outbreak response framework
Author:
Petros Brittany A.ORCID, Paull Jillian S.ORCID, Tomkins-Tinch Christopher H.ORCID, Loftness Bryn C.ORCID, DeRuff Katherine C., Nair Parvathy, Gionet Gabrielle L., Benz Aaron, Brock-Fisher Taylor, Hughes Michael, Yurkovetskiy Leonid, Mulaudzi Shandukani, Leenerman Emma, Nyalile Thomas, Moreno Gage K., Specht Ivan, Sani Kian, Adams Gordon, Babet Simone V., Baron Emily, Blank Jesse T., Boehm Chloe, Botti-Lodovico Yolanda, Brown Jeremy, Buisker Adam R., Burcham Timothy, Chylek Lily, Cronan Paul, Desreumaux Valentine, Doss Megan, Flynn Belinda, Gladden-Young Adrianne, Glennon Olivia, Harmon Hunter D., Hook Thomas V., Kary Anton, King Clay, Loreth Christine, Marrs Libby, McQuade Kyle J., Milton Thorsen T., Mulford Jada M., Oba Kyle, Pearlman Leah, Schifferli Mark, Schmidt Madelyn J., Tandus Grace M., Tyler Andy, Vodzak Megan E., Bevill Kelly Krohn, Colubri Andres, MacInnis Bronwyn L., Ozsoy A. Zeynep, Parrie Eric, Sholtes Kari, Siddle Katherine J.ORCID, Fry Ben, Luban JeremyORCID, Park Daniel J., Marshall John, Bronson Amy, Schaffner Stephen F., Sabeti Pardis C.ORCID
Abstract
AbstractUniversities are particularly vulnerable to infectious disease outbreaks and are also ideal environments to study transmission dynamics and evaluate mitigation and surveillance measures when outbreaks occur. Here, we introduce a SARS-CoV-2 surveillance and response framework based on high-resolution, multimodal data collected during the 2020-2021 academic year at Colorado Mesa University. We analyzed epidemiological and sociobehavioral data (demographics, contact tracing, and wifi-based co-location data) alongside pathogen surveillance data (wastewater, random, and reflexive diagnostic testing; and viral genomic sequencing of wastewater and clinical specimens) to characterize outbreak dynamics and inform policy decisions. We quantified group attributes that increased disease risk, and highlighted parallels between traditional and wifi-based contact tracing. We additionally used clinical and environmental viral sequencing to identify cryptic transmission, cluster overdispersion, and novel lineages or mutations. Ultimately, we used distinct data types to identify information that may help shape institutional policy and to develop a model of pathogen surveillance suitable for the future of outbreak preparedness.
Publisher
Cold Spring Harbor Laboratory
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