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Copolymerization of single-cell nucleic acids into balls of acrylamide gel

We show the use of 5′-Acrydite oligonucleotides to copolymerize single-cell DNA or RNA into balls of acrylamide gel (BAGs). Combining this step with split-and-pool techniques for creating barcodes yields a method with advantages in cost and scalability, depth of coverage, ease of operation, minimal...

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Autores principales: Li, Siran, Kendall, Jude, Park, Sarah, Wang, Zihua, Alexander, Joan, Moffitt, Andrea, Ranade, Nissim, Danyko, Cassidy, Gegenhuber, Bruno, Fischer, Stephan, Robinson, Brian D., Lepor, Herbert, Tollkuhn, Jessica, Gillis, Jesse, Brouzes, Eric, Krasnitz, Alex, Levy, Dan, Wigler, Michael
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Cold Spring Harbor Laboratory Press 2020
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6961581/
https://www.ncbi.nlm.nih.gov/pubmed/31727682
http://dx.doi.org/10.1101/gr.253047.119
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author Li, Siran
Kendall, Jude
Park, Sarah
Wang, Zihua
Alexander, Joan
Moffitt, Andrea
Ranade, Nissim
Danyko, Cassidy
Gegenhuber, Bruno
Fischer, Stephan
Robinson, Brian D.
Lepor, Herbert
Tollkuhn, Jessica
Gillis, Jesse
Brouzes, Eric
Krasnitz, Alex
Levy, Dan
Wigler, Michael
author_facet Li, Siran
Kendall, Jude
Park, Sarah
Wang, Zihua
Alexander, Joan
Moffitt, Andrea
Ranade, Nissim
Danyko, Cassidy
Gegenhuber, Bruno
Fischer, Stephan
Robinson, Brian D.
Lepor, Herbert
Tollkuhn, Jessica
Gillis, Jesse
Brouzes, Eric
Krasnitz, Alex
Levy, Dan
Wigler, Michael
author_sort Li, Siran
collection PubMed
description We show the use of 5′-Acrydite oligonucleotides to copolymerize single-cell DNA or RNA into balls of acrylamide gel (BAGs). Combining this step with split-and-pool techniques for creating barcodes yields a method with advantages in cost and scalability, depth of coverage, ease of operation, minimal cross-contamination, and efficient use of samples. We perform DNA copy number profiling on mixtures of cell lines, nuclei from frozen prostate tumors, and biopsy washes. As applied to RNA, the method has high capture efficiency of transcripts and sufficient consistency to clearly distinguish the expression patterns of cell lines and individual nuclei from neurons dissected from the mouse brain. By using varietal tags (UMIs) to achieve sequence error correction, we show extremely low levels of cross-contamination by tracking source-specific SNVs. The method is readily modifiable, and we will discuss its adaptability and diverse applications.
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spelling pubmed-69615812020-01-29 Copolymerization of single-cell nucleic acids into balls of acrylamide gel Li, Siran Kendall, Jude Park, Sarah Wang, Zihua Alexander, Joan Moffitt, Andrea Ranade, Nissim Danyko, Cassidy Gegenhuber, Bruno Fischer, Stephan Robinson, Brian D. Lepor, Herbert Tollkuhn, Jessica Gillis, Jesse Brouzes, Eric Krasnitz, Alex Levy, Dan Wigler, Michael Genome Res Method We show the use of 5′-Acrydite oligonucleotides to copolymerize single-cell DNA or RNA into balls of acrylamide gel (BAGs). Combining this step with split-and-pool techniques for creating barcodes yields a method with advantages in cost and scalability, depth of coverage, ease of operation, minimal cross-contamination, and efficient use of samples. We perform DNA copy number profiling on mixtures of cell lines, nuclei from frozen prostate tumors, and biopsy washes. As applied to RNA, the method has high capture efficiency of transcripts and sufficient consistency to clearly distinguish the expression patterns of cell lines and individual nuclei from neurons dissected from the mouse brain. By using varietal tags (UMIs) to achieve sequence error correction, we show extremely low levels of cross-contamination by tracking source-specific SNVs. The method is readily modifiable, and we will discuss its adaptability and diverse applications. Cold Spring Harbor Laboratory Press 2020-01 /pmc/articles/PMC6961581/ /pubmed/31727682 http://dx.doi.org/10.1101/gr.253047.119 Text en © 2020 Li et al.; Published by Cold Spring Harbor Laboratory Press http://creativecommons.org/licenses/by/4.0/ This article, published in Genome Research, is available under a Creative Commons License (Attribution 4.0 International), as described at http://creativecommons.org/licenses/by/4.0/.
spellingShingle Method
Li, Siran
Kendall, Jude
Park, Sarah
Wang, Zihua
Alexander, Joan
Moffitt, Andrea
Ranade, Nissim
Danyko, Cassidy
Gegenhuber, Bruno
Fischer, Stephan
Robinson, Brian D.
Lepor, Herbert
Tollkuhn, Jessica
Gillis, Jesse
Brouzes, Eric
Krasnitz, Alex
Levy, Dan
Wigler, Michael
Copolymerization of single-cell nucleic acids into balls of acrylamide gel
title Copolymerization of single-cell nucleic acids into balls of acrylamide gel
title_full Copolymerization of single-cell nucleic acids into balls of acrylamide gel
title_fullStr Copolymerization of single-cell nucleic acids into balls of acrylamide gel
title_full_unstemmed Copolymerization of single-cell nucleic acids into balls of acrylamide gel
title_short Copolymerization of single-cell nucleic acids into balls of acrylamide gel
title_sort copolymerization of single-cell nucleic acids into balls of acrylamide gel
topic Method
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6961581/
https://www.ncbi.nlm.nih.gov/pubmed/31727682
http://dx.doi.org/10.1101/gr.253047.119
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