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Suspendable Hydrogel Nanovials for Massively Parallel Single-Cell Functional Analysis and Sorting

Techniques to analyze and sort single cells based on functional outputs, such as secreted products, have the potential to transform our understanding of cellular biology as well as accelerate the development of next-generation cell and antibody therapies. However, secreted molecules rapidly diffuse...

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Published in:ACS nano 2022-05, Vol.16 (5), p.7242-7257
Main Authors: de Rutte, Joseph, Dimatteo, Robert, Archang, Maani M., van Zee, Mark, Koo, Doyeon, Lee, Sohyung, Sharrow, Allison C., Krohl, Patrick J., Mellody, Michael, Zhu, Sheldon, Eichenbaum, James V., Kizerwetter, Monika, Udani, Shreya, Ha, Kyung, Willson, Richard C., Bertozzi, Andrea L., Spangler, Jamie B., Damoiseaux, Robert, Di Carlo, Dino
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cited_by cdi_FETCH-LOGICAL-a429t-42fb31a3f96e042b98ce56839acb13da8882fee52f58f1aecbe176ef16951f333
cites cdi_FETCH-LOGICAL-a429t-42fb31a3f96e042b98ce56839acb13da8882fee52f58f1aecbe176ef16951f333
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container_issue 5
container_start_page 7242
container_title ACS nano
container_volume 16
creator de Rutte, Joseph
Dimatteo, Robert
Archang, Maani M.
van Zee, Mark
Koo, Doyeon
Lee, Sohyung
Sharrow, Allison C.
Krohl, Patrick J.
Mellody, Michael
Zhu, Sheldon
Eichenbaum, James V.
Kizerwetter, Monika
Udani, Shreya
Ha, Kyung
Willson, Richard C.
Bertozzi, Andrea L.
Spangler, Jamie B.
Damoiseaux, Robert
Di Carlo, Dino
description Techniques to analyze and sort single cells based on functional outputs, such as secreted products, have the potential to transform our understanding of cellular biology as well as accelerate the development of next-generation cell and antibody therapies. However, secreted molecules rapidly diffuse away from cells, and analysis of these products requires specialized equipment and expertise to compartmentalize individual cells and capture their secretions. Herein, we describe methods to fabricate hydrogel-based chemically functionalized microcontainers, which we call nanovials, and demonstrate their use for sorting single viable cells based on their secreted products at high-throughput using only commonly accessible laboratory infrastructure. These nanovials act as solid supports that facilitate attachment of a variety of adherent and suspension cell types, partition uniform aqueous compartments, and capture secreted proteins. Solutions can be exchanged around nanovials to perform fluorescence immunoassays on secreted proteins. Using this platform and commercial flow sorters, we demonstrate high-throughput screening of stably and transiently transfected producer cells based on relative IgG production. Chinese hamster ovary cells sorted based on IgG production regrew and maintained a high secretion phenotype over at least a week, yielding >40% increase in bulk IgG production rates. We also sorted hybridomas and B lymphocytes based on antigen-specific antibody production. Hybridoma cells secreting an antihen egg lysozyme antibody were recovered from background cells, enriching a population of ∼4% prevalence to >90% following sorting. Leveraging the high-speed sorting capabilities of standard sorters, we sorted >1 million events in
doi_str_mv 10.1021/acsnano.1c11420
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source American Chemical Society:Jisc Collections:American Chemical Society Read & Publish Agreement 2022-2024 (Reading list)
subjects Animals
Antigens - metabolism
CHO Cells
Cricetinae
Cricetulus
Flow Cytometry - methods
Hybridomas
Hydrogels - metabolism
Immunoglobulin G - metabolism
Mice
Single-Cell Analysis - methods
title Suspendable Hydrogel Nanovials for Massively Parallel Single-Cell Functional Analysis and Sorting
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