Cargando…

Reproducibility of Molecular Phenotypes after Long-Term Differentiation to Human iPSC-Derived Neurons: A Multi-Site Omics Study

Reproducibility in molecular and cellular studies is fundamental to scientific discovery. To establish the reproducibility of a well-defined long-term neuronal differentiation protocol, we repeated the cellular and molecular comparison of the same two iPSC lines across five distinct laboratories. De...

Descripción completa

Detalles Bibliográficos
Autores principales: Volpato, Viola, Smith, James, Sandor, Cynthia, Ried, Janina S., Baud, Anna, Handel, Adam, Newey, Sarah E., Wessely, Frank, Attar, Moustafa, Whiteley, Emma, Chintawar, Satyan, Verheyen, An, Barta, Thomas, Lako, Majlinda, Armstrong, Lyle, Muschet, Caroline, Artati, Anna, Cusulin, Carlo, Christensen, Klaus, Patsch, Christoph, Sharma, Eshita, Nicod, Jerome, Brownjohn, Philip, Stubbs, Victoria, Heywood, Wendy E., Gissen, Paul, De Filippis, Roberta, Janssen, Katharina, Reinhardt, Peter, Adamski, Jerzy, Royaux, Ines, Peeters, Pieter J., Terstappen, Georg C., Graf, Martin, Livesey, Frederick J., Akerman, Colin J., Mills, Kevin, Bowden, Rory, Nicholson, George, Webber, Caleb, Cader, M. Zameel, Lakics, Viktor
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Elsevier 2018
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6178242/
https://www.ncbi.nlm.nih.gov/pubmed/30245212
http://dx.doi.org/10.1016/j.stemcr.2018.08.013
_version_ 1783361930927276032
author Volpato, Viola
Smith, James
Sandor, Cynthia
Ried, Janina S.
Baud, Anna
Handel, Adam
Newey, Sarah E.
Wessely, Frank
Attar, Moustafa
Whiteley, Emma
Chintawar, Satyan
Verheyen, An
Barta, Thomas
Lako, Majlinda
Armstrong, Lyle
Muschet, Caroline
Artati, Anna
Cusulin, Carlo
Christensen, Klaus
Patsch, Christoph
Sharma, Eshita
Nicod, Jerome
Brownjohn, Philip
Stubbs, Victoria
Heywood, Wendy E.
Gissen, Paul
De Filippis, Roberta
Janssen, Katharina
Reinhardt, Peter
Adamski, Jerzy
Royaux, Ines
Peeters, Pieter J.
Terstappen, Georg C.
Graf, Martin
Livesey, Frederick J.
Akerman, Colin J.
Mills, Kevin
Bowden, Rory
Nicholson, George
Webber, Caleb
Cader, M. Zameel
Lakics, Viktor
author_facet Volpato, Viola
Smith, James
Sandor, Cynthia
Ried, Janina S.
Baud, Anna
Handel, Adam
Newey, Sarah E.
Wessely, Frank
Attar, Moustafa
Whiteley, Emma
Chintawar, Satyan
Verheyen, An
Barta, Thomas
Lako, Majlinda
Armstrong, Lyle
Muschet, Caroline
Artati, Anna
Cusulin, Carlo
Christensen, Klaus
Patsch, Christoph
Sharma, Eshita
Nicod, Jerome
Brownjohn, Philip
Stubbs, Victoria
Heywood, Wendy E.
Gissen, Paul
De Filippis, Roberta
Janssen, Katharina
Reinhardt, Peter
Adamski, Jerzy
Royaux, Ines
Peeters, Pieter J.
Terstappen, Georg C.
Graf, Martin
Livesey, Frederick J.
Akerman, Colin J.
Mills, Kevin
Bowden, Rory
Nicholson, George
Webber, Caleb
Cader, M. Zameel
Lakics, Viktor
author_sort Volpato, Viola
collection PubMed
description Reproducibility in molecular and cellular studies is fundamental to scientific discovery. To establish the reproducibility of a well-defined long-term neuronal differentiation protocol, we repeated the cellular and molecular comparison of the same two iPSC lines across five distinct laboratories. Despite uncovering acceptable variability within individual laboratories, we detect poor cross-site reproducibility of the differential gene expression signature between these two lines. Factor analysis identifies the laboratory as the largest source of variation along with several variation-inflating confounders such as passaging effects and progenitor storage. Single-cell transcriptomics shows substantial cellular heterogeneity underlying inter-laboratory variability and being responsible for biases in differential gene expression inference. Factor analysis-based normalization of the combined dataset can remove the nuisance technical effects, enabling the execution of robust hypothesis-generating studies. Our study shows that multi-center collaborations can expose systematic biases and identify critical factors to be standardized when publishing novel protocols, contributing to increased cross-site reproducibility.
format Online
Article
Text
id pubmed-6178242
institution National Center for Biotechnology Information
language English
publishDate 2018
publisher Elsevier
record_format MEDLINE/PubMed
spelling pubmed-61782422018-10-11 Reproducibility of Molecular Phenotypes after Long-Term Differentiation to Human iPSC-Derived Neurons: A Multi-Site Omics Study Volpato, Viola Smith, James Sandor, Cynthia Ried, Janina S. Baud, Anna Handel, Adam Newey, Sarah E. Wessely, Frank Attar, Moustafa Whiteley, Emma Chintawar, Satyan Verheyen, An Barta, Thomas Lako, Majlinda Armstrong, Lyle Muschet, Caroline Artati, Anna Cusulin, Carlo Christensen, Klaus Patsch, Christoph Sharma, Eshita Nicod, Jerome Brownjohn, Philip Stubbs, Victoria Heywood, Wendy E. Gissen, Paul De Filippis, Roberta Janssen, Katharina Reinhardt, Peter Adamski, Jerzy Royaux, Ines Peeters, Pieter J. Terstappen, Georg C. Graf, Martin Livesey, Frederick J. Akerman, Colin J. Mills, Kevin Bowden, Rory Nicholson, George Webber, Caleb Cader, M. Zameel Lakics, Viktor Stem Cell Reports Article Reproducibility in molecular and cellular studies is fundamental to scientific discovery. To establish the reproducibility of a well-defined long-term neuronal differentiation protocol, we repeated the cellular and molecular comparison of the same two iPSC lines across five distinct laboratories. Despite uncovering acceptable variability within individual laboratories, we detect poor cross-site reproducibility of the differential gene expression signature between these two lines. Factor analysis identifies the laboratory as the largest source of variation along with several variation-inflating confounders such as passaging effects and progenitor storage. Single-cell transcriptomics shows substantial cellular heterogeneity underlying inter-laboratory variability and being responsible for biases in differential gene expression inference. Factor analysis-based normalization of the combined dataset can remove the nuisance technical effects, enabling the execution of robust hypothesis-generating studies. Our study shows that multi-center collaborations can expose systematic biases and identify critical factors to be standardized when publishing novel protocols, contributing to increased cross-site reproducibility. Elsevier 2018-09-20 /pmc/articles/PMC6178242/ /pubmed/30245212 http://dx.doi.org/10.1016/j.stemcr.2018.08.013 Text en © 2018 The Authors http://creativecommons.org/licenses/by-nc-nd/4.0/ This is an open access article under the CC BY-NC-ND license (http://creativecommons.org/licenses/by-nc-nd/4.0/).
spellingShingle Article
Volpato, Viola
Smith, James
Sandor, Cynthia
Ried, Janina S.
Baud, Anna
Handel, Adam
Newey, Sarah E.
Wessely, Frank
Attar, Moustafa
Whiteley, Emma
Chintawar, Satyan
Verheyen, An
Barta, Thomas
Lako, Majlinda
Armstrong, Lyle
Muschet, Caroline
Artati, Anna
Cusulin, Carlo
Christensen, Klaus
Patsch, Christoph
Sharma, Eshita
Nicod, Jerome
Brownjohn, Philip
Stubbs, Victoria
Heywood, Wendy E.
Gissen, Paul
De Filippis, Roberta
Janssen, Katharina
Reinhardt, Peter
Adamski, Jerzy
Royaux, Ines
Peeters, Pieter J.
Terstappen, Georg C.
Graf, Martin
Livesey, Frederick J.
Akerman, Colin J.
Mills, Kevin
Bowden, Rory
Nicholson, George
Webber, Caleb
Cader, M. Zameel
Lakics, Viktor
Reproducibility of Molecular Phenotypes after Long-Term Differentiation to Human iPSC-Derived Neurons: A Multi-Site Omics Study
title Reproducibility of Molecular Phenotypes after Long-Term Differentiation to Human iPSC-Derived Neurons: A Multi-Site Omics Study
title_full Reproducibility of Molecular Phenotypes after Long-Term Differentiation to Human iPSC-Derived Neurons: A Multi-Site Omics Study
title_fullStr Reproducibility of Molecular Phenotypes after Long-Term Differentiation to Human iPSC-Derived Neurons: A Multi-Site Omics Study
title_full_unstemmed Reproducibility of Molecular Phenotypes after Long-Term Differentiation to Human iPSC-Derived Neurons: A Multi-Site Omics Study
title_short Reproducibility of Molecular Phenotypes after Long-Term Differentiation to Human iPSC-Derived Neurons: A Multi-Site Omics Study
title_sort reproducibility of molecular phenotypes after long-term differentiation to human ipsc-derived neurons: a multi-site omics study
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6178242/
https://www.ncbi.nlm.nih.gov/pubmed/30245212
http://dx.doi.org/10.1016/j.stemcr.2018.08.013
work_keys_str_mv AT volpatoviola reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT smithjames reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT sandorcynthia reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT riedjaninas reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT baudanna reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT handeladam reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT neweysarahe reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT wesselyfrank reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT attarmoustafa reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT whiteleyemma reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT chintawarsatyan reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT verheyenan reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT bartathomas reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT lakomajlinda reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT armstronglyle reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT muschetcaroline reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT artatianna reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT cusulincarlo reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT christensenklaus reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT patschchristoph reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT sharmaeshita reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT nicodjerome reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT brownjohnphilip reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT stubbsvictoria reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT heywoodwendye reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT gissenpaul reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT defilippisroberta reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT janssenkatharina reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT reinhardtpeter reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT adamskijerzy reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT royauxines reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT peeterspieterj reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT terstappengeorgc reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT grafmartin reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT liveseyfrederickj reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT akermancolinj reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT millskevin reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT bowdenrory reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT nicholsongeorge reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT webbercaleb reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT cadermzameel reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy
AT lakicsviktor reproducibilityofmolecularphenotypesafterlongtermdifferentiationtohumanipscderivedneuronsamultisiteomicsstudy