Abstract
The emergence and worldwide spread of SARS-CoV-2 during the COVID-19 pandemic necessitated the adaptation and rapid deployment of viral WGS and analysis techniques that had been previously applied on a more limited basis to other viral pathogens, such as HIV and influenza viruses. The need for WGS was driven in part by the low mutation rate of SARS-CoV-2, which necessitated measuring variation along the entire genome sequence to effectively differentiate lineages and characterize viral evolution. Several WGS approaches designed to maximize throughput and accuracy were quickly adopted by surveillance labs around the world. These broad-based SARS-CoV-2 genomic sequencing efforts revealed ongoing evolution of the virus, highlighted by the successive emergence of new viral variants throughout the course of the pandemic. These genomic insights were instrumental in characterizing the effects of viral mutations on transmissibility, immune escape and viral tropism, which in turn helped guide public health policy, the use of monoclonal antibody therapeutics and vaccine development strategies. As the use of direct-acting antivirals for the treatment of COVID-19 became more widespread, the potential for emergence of antiviral resistance has driven ongoing efforts to delineate resistance mutations and to monitor global sequence databases for their emergence. Given the critical role of viral genomics in the international effort to combat the COVID-19 pandemic, coordinated efforts should be made to expand global genomic surveillance capacity and infrastructure towards the anticipation and prevention of future pandemics.
Original language | English (US) |
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Pages (from-to) | II25-II36 |
Journal | Journal of antimicrobial chemotherapy |
Volume | 78 |
DOIs | |
State | Published - Nov 1 2023 |
Funding
Funding for this work was provided by: a Dixon Translational Research Grant made possible by the generous support of the Dixon Family Foundation (E.A.O. and J.F.H.); two COVID-19 Supplemental Research awards from the National Institutes of Health’s (NIH’s) National Center for Advancing Translational Sciences (NCATS; UL1 TR001422—J.F.H., and UL1 TR002389—J.F.H., E.A.O., R.L.-R.); a supplement to the Northwestern University Cancer Center (P30 CA060553—J.F.H.); the NIH-supported Third Coast CFAR (P30 AI117943—R.L.-R., J.F.H.); NIH grant R21 AI163912 (J.F.H.); NIH grant U19 AI135964 (E.A.O.); NIH grant U19 AI171110 (J.F.H., E.A.O., R.L.-R.); and through a generous contribution from the Walder Foundation’s Chicago Coronavirus Assessment Network (Chicago CAN) Initiative (J.F.H., E.A.O., R.L.-R.). The funding sources had no role in the study design, data collection, analysis, interpretation or writing of the report. This paper was published as part of a supplement financially supported by an educational grant from Roche Molecular Systems.
ASJC Scopus subject areas
- Pharmacology
- Microbiology (medical)
- Pharmacology (medical)
- Infectious Diseases