Cargando…

Single-cell genome-wide association reveals that a nonsynonymous variant in ERAP1 confers increased susceptibility to influenza virus

During pandemics, individuals exhibit differences in risk and clinical outcomes. Here, we developed single-cell high-throughput human in vitro susceptibility testing (scHi-HOST), a method for rapidly identifying genetic variants that confer resistance and susceptibility. We applied this method to in...

Descripción completa

Detalles Bibliográficos
Autores principales: Schott, Benjamin H., Wang, Liuyang, Zhu, Xinyu, Harding, Alfred T., Ko, Emily R., Bourgeois, Jeffrey S., Washington, Erica J., Burke, Thomas W., Anderson, Jack, Bergstrom, Emma, Gardener, Zoe, Paterson, Suzanna, Brennan, Richard G., Chiu, Christopher, McClain, Micah T., Woods, Christopher W., Gregory, Simon G., Heaton, Nicholas S., Ko, Dennis C.
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Elsevier 2022
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9718543/
https://www.ncbi.nlm.nih.gov/pubmed/36465279
http://dx.doi.org/10.1016/j.xgen.2022.100207
_version_ 1784843111668645888
author Schott, Benjamin H.
Wang, Liuyang
Zhu, Xinyu
Harding, Alfred T.
Ko, Emily R.
Bourgeois, Jeffrey S.
Washington, Erica J.
Burke, Thomas W.
Anderson, Jack
Bergstrom, Emma
Gardener, Zoe
Paterson, Suzanna
Brennan, Richard G.
Chiu, Christopher
McClain, Micah T.
Woods, Christopher W.
Gregory, Simon G.
Heaton, Nicholas S.
Ko, Dennis C.
author_facet Schott, Benjamin H.
Wang, Liuyang
Zhu, Xinyu
Harding, Alfred T.
Ko, Emily R.
Bourgeois, Jeffrey S.
Washington, Erica J.
Burke, Thomas W.
Anderson, Jack
Bergstrom, Emma
Gardener, Zoe
Paterson, Suzanna
Brennan, Richard G.
Chiu, Christopher
McClain, Micah T.
Woods, Christopher W.
Gregory, Simon G.
Heaton, Nicholas S.
Ko, Dennis C.
author_sort Schott, Benjamin H.
collection PubMed
description During pandemics, individuals exhibit differences in risk and clinical outcomes. Here, we developed single-cell high-throughput human in vitro susceptibility testing (scHi-HOST), a method for rapidly identifying genetic variants that confer resistance and susceptibility. We applied this method to influenza A virus (IAV), the cause of four pandemics since the start of the 20(th) century. scHi-HOST leverages single-cell RNA sequencing (scRNA-seq) to simultaneously assign genetic identity to cells in mixed infections of cell lines of European, African, and Asian origin, reveal associated genetic variants for viral burden, and identify expression quantitative trait loci. Integration of scHi-HOST with human challenge and experimental validation demonstrated that a missense variant in endoplasmic reticulum aminopeptidase 1 (ERAP1; rs27895) increased IAV burden in cells and human volunteers. rs27895 exhibits population differentiation, likely contributing to greater permissivity of cells from African populations to IAV. scHi-HOST is a broadly applicable method and resource for decoding infectious-disease genetics.
format Online
Article
Text
id pubmed-9718543
institution National Center for Biotechnology Information
language English
publishDate 2022
publisher Elsevier
record_format MEDLINE/PubMed
spelling pubmed-97185432022-12-02 Single-cell genome-wide association reveals that a nonsynonymous variant in ERAP1 confers increased susceptibility to influenza virus Schott, Benjamin H. Wang, Liuyang Zhu, Xinyu Harding, Alfred T. Ko, Emily R. Bourgeois, Jeffrey S. Washington, Erica J. Burke, Thomas W. Anderson, Jack Bergstrom, Emma Gardener, Zoe Paterson, Suzanna Brennan, Richard G. Chiu, Christopher McClain, Micah T. Woods, Christopher W. Gregory, Simon G. Heaton, Nicholas S. Ko, Dennis C. Cell Genom Article During pandemics, individuals exhibit differences in risk and clinical outcomes. Here, we developed single-cell high-throughput human in vitro susceptibility testing (scHi-HOST), a method for rapidly identifying genetic variants that confer resistance and susceptibility. We applied this method to influenza A virus (IAV), the cause of four pandemics since the start of the 20(th) century. scHi-HOST leverages single-cell RNA sequencing (scRNA-seq) to simultaneously assign genetic identity to cells in mixed infections of cell lines of European, African, and Asian origin, reveal associated genetic variants for viral burden, and identify expression quantitative trait loci. Integration of scHi-HOST with human challenge and experimental validation demonstrated that a missense variant in endoplasmic reticulum aminopeptidase 1 (ERAP1; rs27895) increased IAV burden in cells and human volunteers. rs27895 exhibits population differentiation, likely contributing to greater permissivity of cells from African populations to IAV. scHi-HOST is a broadly applicable method and resource for decoding infectious-disease genetics. Elsevier 2022-11-09 /pmc/articles/PMC9718543/ /pubmed/36465279 http://dx.doi.org/10.1016/j.xgen.2022.100207 Text en © 2022 The Author(s) https://creativecommons.org/licenses/by/4.0/This is an open access article under the CC BY license (http://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Schott, Benjamin H.
Wang, Liuyang
Zhu, Xinyu
Harding, Alfred T.
Ko, Emily R.
Bourgeois, Jeffrey S.
Washington, Erica J.
Burke, Thomas W.
Anderson, Jack
Bergstrom, Emma
Gardener, Zoe
Paterson, Suzanna
Brennan, Richard G.
Chiu, Christopher
McClain, Micah T.
Woods, Christopher W.
Gregory, Simon G.
Heaton, Nicholas S.
Ko, Dennis C.
Single-cell genome-wide association reveals that a nonsynonymous variant in ERAP1 confers increased susceptibility to influenza virus
title Single-cell genome-wide association reveals that a nonsynonymous variant in ERAP1 confers increased susceptibility to influenza virus
title_full Single-cell genome-wide association reveals that a nonsynonymous variant in ERAP1 confers increased susceptibility to influenza virus
title_fullStr Single-cell genome-wide association reveals that a nonsynonymous variant in ERAP1 confers increased susceptibility to influenza virus
title_full_unstemmed Single-cell genome-wide association reveals that a nonsynonymous variant in ERAP1 confers increased susceptibility to influenza virus
title_short Single-cell genome-wide association reveals that a nonsynonymous variant in ERAP1 confers increased susceptibility to influenza virus
title_sort single-cell genome-wide association reveals that a nonsynonymous variant in erap1 confers increased susceptibility to influenza virus
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9718543/
https://www.ncbi.nlm.nih.gov/pubmed/36465279
http://dx.doi.org/10.1016/j.xgen.2022.100207
work_keys_str_mv AT schottbenjaminh singlecellgenomewideassociationrevealsthatanonsynonymousvariantinerap1confersincreasedsusceptibilitytoinfluenzavirus
AT wangliuyang singlecellgenomewideassociationrevealsthatanonsynonymousvariantinerap1confersincreasedsusceptibilitytoinfluenzavirus
AT zhuxinyu singlecellgenomewideassociationrevealsthatanonsynonymousvariantinerap1confersincreasedsusceptibilitytoinfluenzavirus
AT hardingalfredt singlecellgenomewideassociationrevealsthatanonsynonymousvariantinerap1confersincreasedsusceptibilitytoinfluenzavirus
AT koemilyr singlecellgenomewideassociationrevealsthatanonsynonymousvariantinerap1confersincreasedsusceptibilitytoinfluenzavirus
AT bourgeoisjeffreys singlecellgenomewideassociationrevealsthatanonsynonymousvariantinerap1confersincreasedsusceptibilitytoinfluenzavirus
AT washingtonericaj singlecellgenomewideassociationrevealsthatanonsynonymousvariantinerap1confersincreasedsusceptibilitytoinfluenzavirus
AT burkethomasw singlecellgenomewideassociationrevealsthatanonsynonymousvariantinerap1confersincreasedsusceptibilitytoinfluenzavirus
AT andersonjack singlecellgenomewideassociationrevealsthatanonsynonymousvariantinerap1confersincreasedsusceptibilitytoinfluenzavirus
AT bergstromemma singlecellgenomewideassociationrevealsthatanonsynonymousvariantinerap1confersincreasedsusceptibilitytoinfluenzavirus
AT gardenerzoe singlecellgenomewideassociationrevealsthatanonsynonymousvariantinerap1confersincreasedsusceptibilitytoinfluenzavirus
AT patersonsuzanna singlecellgenomewideassociationrevealsthatanonsynonymousvariantinerap1confersincreasedsusceptibilitytoinfluenzavirus
AT brennanrichardg singlecellgenomewideassociationrevealsthatanonsynonymousvariantinerap1confersincreasedsusceptibilitytoinfluenzavirus
AT chiuchristopher singlecellgenomewideassociationrevealsthatanonsynonymousvariantinerap1confersincreasedsusceptibilitytoinfluenzavirus
AT mcclainmicaht singlecellgenomewideassociationrevealsthatanonsynonymousvariantinerap1confersincreasedsusceptibilitytoinfluenzavirus
AT woodschristopherw singlecellgenomewideassociationrevealsthatanonsynonymousvariantinerap1confersincreasedsusceptibilitytoinfluenzavirus
AT gregorysimong singlecellgenomewideassociationrevealsthatanonsynonymousvariantinerap1confersincreasedsusceptibilitytoinfluenzavirus
AT heatonnicholass singlecellgenomewideassociationrevealsthatanonsynonymousvariantinerap1confersincreasedsusceptibilitytoinfluenzavirus
AT kodennisc singlecellgenomewideassociationrevealsthatanonsynonymousvariantinerap1confersincreasedsusceptibilitytoinfluenzavirus