Scalable and Resilient SARS-CoV2 testing in an Academic Centre
Aitken, J.; Ambrose, K.; Barrell, S.; Beale, R.; Bineva-Todd, G.; Biswas, D.; Byrne, R.; Caidan, S.; Cherepanov, P.; Churchward, L.; Clark, G.; Crawford, M.; Cubitt, L.; Dearing, V.; Earl, C.; Edwards, A.; Ekin, C.; Fidanis, E.; Gaiba, A.; Gamblin, S.; Gandhi, S.; Goldman, J.; Goldstone, R.; Grant, P. R.; Greco, M.; Heaney, J.; Hindmarsh, S.; Houlihan, C. F.; Howell, M.; Hubank, M.; Hughes, D.; Instrell, R.; Jackson, D.; Jamal-Hanjani, M.; Jiang, M.; Johnson, M.; Jones, L.; Kanu, N.; Kassiotis, G.; Kirk, S.; Kjaer, S.; Levett, A.; Levett, L.; Levi, M.; Lu, W.-T.; MacRae, J. I.; Matthews, J.; M
Show abstract
The emergence of the novel coronavirus SARS-CoV-2 has led to a pandemic infecting more than two million people worldwide in less than four months, posing a major threat to healthcare systems. This is compounded by the shortage of available tests causing numerous healthcare workers to unnecessarily self-isolate. We provide a roadmap instructing how a research institute can be repurposed in the midst of this crisis, in collaboration with partner hospitals and an established diagnostic laboratory, harnessing existing expertise in virus handling, robotics, PCR, and data science to derive a rapid, high throughput diagnostic testing pipeline for detecting SARS-CoV-2 in patients with suspected COVID-19. The pipeline is used to detect SARS-CoV-2 from combined nose-throat swabs and endotracheal secretions/ bronchoalveolar lavage fluid. Notably, it relies on a series of in-house buffers for virus inactivation and the extraction of viral RNA, thereby reducing the dependency on commercial suppliers at times of global shortage. We use a commercial RT-PCR assay, from BGI, and results are reported with a bespoke online web application that integrates with the healthcare digital system. This strategy facilitates the remote reporting of thousands of samples a day with a turnaround time of under 24 hours, universally applicable to laboratories worldwide.
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