A collaborative approach to improve representation in viral genomic surveillance.
Paul Y KimAudrey Y KimJamie J NewmanEleonora CellaThomas C BishopPeter J HuweOlga N UchakinaRobert J McKallipVance L MackMarnie P HillIfedayo Victor OgungbeOlawale AdeyinkaSamuel JonesGregory WareJennifer CarrollJarrod F SawyerKenneth H DensmoreMichael FosterLescia ValmondJohn ThomasTaj AzarianKrista QueenJeremy P KamilPublished in: bioRxiv : the preprint server for biology (2022)
Genomic surveillance involves decoding a pathogen’s genetic code to track its spread and evolution. During the pandemic, genomic surveillance programs around the world provided valuable data to scientists, doctors, and public health officials. Knowing the complete SARS-CoV-2 genome has helped detect the emergence of new variants, including ones that are more transmissible or cause more severe disease, and has supported the development of diagnostics, vaccines, and therapeutics. The impact of genomic surveillance on public health depends on representative sampling that accurately reflects the diversity and distribution of populations, as well as rapid turnaround time from sampling to data sharing. After a slow start, SARS-CoV-2 genomic surveillance in the United States grew exponentially. Despite this, many rural regions and ethnic minorities remain poorly represented, leaving significant gaps in the data that informs public health responses. To address this problem, we formed a network of universities and clinics in Louisiana, Georgia, and Mississippi with the goal of increasing SARS-CoV-2 sequencing volume, representation, and equity. Our results demonstrate the advantages of rapidly sequencing pathogens in the same communities where the cases occur and present a model that leverages existing academic and clinical infrastructure for a powerful decentralized genomic surveillance system.