Ultra-fast, high throughput and inexpensive detection of SARS-CoV-2 seroconversion
Author:
Conzentino Marcelo S., Santos Tatielle P. C., Selim Khaled A., Wagner Berenike, Alford Janette T., Deobald Nelli, Paula Nigela. M., Rego Fabiane G. M., Zanette Dalila L., Aoki Mateus N., Nardin Jeanine M., Huergo Maria C.C., Reis Rodrigo A., Huergo Luciano F.ORCID
Abstract
ABSTRACTA technique allowing high throughput, fast and low-cost quantitative analysis of human IgG antibodies reacting to SARS-CoV-2 antigens will be required to understand the levels of protecting antibodies in the population raised in response to infections and/or to immunization. We described previously a fast, simple, and inexpensive Ni2+magnetic bead immunoassay which allowed detection of human antibodies reacting against the SARS-CoV-2 nucleocapsid protein using a minimal amount of serum or blood. A major drawback of the previously described system was that it only processed 12 samples simultaneously. Here we describe a manually operating inexpensive 96 well plate magnetic extraction / homogenization process which allows high throughput analysis delivering results of 96 samples in chromogenic format in 12 minutes or in fluorescent ultrafast format which takes only 7 minutes. We also show that His tag antigen purification can be performed on the fly while loading antigens to the Ni2+magnetic beads in a process which takes only 12 min reducing the pre analytical time and cost. Finally, we show that the magnetic bead immunoassay is antigen flexible and can be performed using either Nucleocapsid, Spike or Spike RBD. The method performed with low inter and intra assay variability using different antigens and detection modes and was able to deliver >99.5% specificity and >95% sensitivity for a cohort of 203 pre pandemic and 63 COVID-19 positive samples.
Publisher
Cold Spring Harbor Laboratory
Reference10 articles.
1. Hu, B. , Guo, H. , Zhou, P. , Shi, Z. L. Characteristics of SARSCoV-2 and COVID-19. Nature Reviews Microbiology. 2021. https://doi.org/10.1038/s41579-020-00459-7. 2. Carter, L. J. , Garner, L. V. , Smoot, J. W. , Li, Y. , Zhou, Q. , Saveson, C. J. , Sasso, J. M. , Gregg, A. C. , Soares, D. J. , Beskid, T. R. , Jervey, S. R. , Liu, C. Assay Techniques and Test Development for COVID-19 Diagnosis. ACS Cent. Sci. 2020. https://doi.org/10.1021/acscentsci.0c00501. 3. Ainsworth, M. , Andersson, M. , Auckland, K. , Baillie, J. K. , Barnes, E. , Beer, S. , Beveridge, A. , Bibi, S. , Blackwell, L. , Borak, M. , Bown, A. , Brooks, T. , Burgess-Brown, N. A. , Camara, S. , Catton, M. , Chau, K. K. , Christott, T. , Clutterbuck, E. , Coker, J. , Cornall, R. J. , Cox, S. , Crawford-Jones, D. , Crook, D. W. , D’Arcangelo, S. , Dejnirattsai, W. , Dequaire, J. M. M. , Dimitriadis, S. , Dingle, K. E. , Doherty, G. , Dold, C. , Dong, T. , Dunachie, S. J. , Ebner, D. , Emmenegger, M. , Espinosa, A. , Eyre, D. W. , Fairhead, R. , Fassih, S. , Feehily, C. , Felle, S. , Fernandez-Cid, A. , Fernandez Mendoza, M. , Foord, T. H. , Fordwoh, T. , Fox McKee, D. , Frater, J. , Gallardo Sanchez, V. , Gent, N. , Georgiou, D. , Groves, C. J. , Hallis, B. , Hammond, P. M. , Hatch, S. B. , Harvala, H. J. , Hill, J. , Hoosdally, S. J. , Horsington, B. , Howarth, A. , James, T. , Jeffery, K. , Jones, E. , Justice, A. , Karpe, F. , Kavanagh, J. , Kim, D. S. , Kirton, R. , Klenerman, P. , Knight, J. C. , Koukouflis, L. , Kwok, A. , Leuschner, U. , Levin, R. , Linder, A. , Lockett, T. , Lumley, S. F. , Marinou, S. , Marsden, B. D. , Martinez, J. , Martins Ferreira, L. , Mason, L. , Matthews, P. C. , Mentzer, A. J. , Mobbs, A. , Mongkolsapaya, J. , Morrow, J. , Mukhopadhyay, S. M. M. , Neville, M. J. , Oakley, S. , Oliveira, M. , Otter, A. , Paddon, K. , Pascoe, J. , Peng, Y. , Perez, E. , Perumal, P. K. , Peto, T. E. A. , Pickford, H. , Ploeg, R. J. , Pollard, A. J. , Richardson, A. , Ritter, T. G. , Roberts, D. J. , Rodger, G. , Rollier, C. S. , Rowe, C. , Rudkin, J. K. , Screaton, G. , Semple, M. G. , Sienkiewicz, A. , Silva-Reyes, L. , Skelly, D. T. , Sobrino Diaz, A. , Stafford, L. , Stockdale, L. , Stoesser, N. , Street, T. , Stuart, D. I. , Sweed, A. , Taylor, A. , Thraves, H. , Tsang, H. P. , Verheul, M. K. , Vipond, R. , Walker, T. M. , Wareing, S. , Warren, Y. , Wells, C. , Wilson, C. , Withycombe, K. , Young, R. K. Performance Characteristics of Five Immunoassays for SARS-CoV-2: A Head-to-Head Benchmark Comparison. Lancet Infect. Dis. 2020, 20 (12). https://doi.org/10.1016/S1473-3099(20)30634-4. 4. Huang, A. T. , Garcia-Carreras, B. , Hitchings, M. D. T. , Yang, B. , Katzelnick, L. C. , Rattigan, S. M. , Borgert, B. A. , Moreno, C. A. , Solomon, B. D. , Trimmer-Smith, L. , Etienne, V. , Rodriguez-Barraquer, I. , Lessler, J. , Salje, H. , Burke, D. S. , Wesolowski, A. , Cummings, D. A. T. A Systematic Review of Antibody Mediated Immunity to Coronaviruses: Kinetics, Correlates of Protection, and Association with Severity. Nat. Commun. 2020. https://doi.org/10.1038/s41467-020-18450-4. 5. Huergo, L. F. , Selim, K. A. , Conzentino, M. S. , Gerhardt, E. C. M. , Santos, A. R. S. , Wagner, B. , Alford, J. T. , Deobald, N. , Pedrosa, F. O. , De Souza, E. M. , Nogueira, M. B. , Raboni, S. M. , Souto, D. , Rego, F. G. M. , Zanette, D. L. , Aoki, M. N. , Nardin, J. M. , Fornazari, B. , Morales, H. M. P. , Borges, V. A. , Nelde, A. , Walz, J. S. , Becker, M. , Schneiderhan-Marra, N. , Rothbauer, U. , Reis, R. A. , Forchhammer, K. Magnetic Bead-Based Immunoassay Allows Rapid, Inexpensive, and Quantitative Detection of Human SARS-CoV-2 Antibodies. ACS Sensors 2021. https://doi.org/10.1021/acssensors.0c02544.
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