Cargando…

Single-Patient Molecular Testing with NanoString nCounter Data Using a Reference-Based Strategy for Batch Effect Correction

A major weakness in many high-throughput genomic studies is the lack of consideration of a clinical environment where one patient at a time must be evaluated. We examined generalizable and platform-specific sources of variation from NanoString gene expression data on both ovarian cancer and Hodgkin...

Descripción completa

Detalles Bibliográficos
Autores principales: Talhouk, Aline, Kommoss, Stefan, Mackenzie, Robertson, Cheung, Martin, Leung, Samuel, Chiu, Derek S., Kalloger, Steve E., Huntsman, David G., Chen, Stephanie, Intermaggio, Maria, Gronwald, Jacek, Chan, Fong C., Ramus, Susan J., Steidl, Christian, Scott, David W., Anglesio, Michael S.
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Public Library of Science 2016
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC4838303/
https://www.ncbi.nlm.nih.gov/pubmed/27096160
http://dx.doi.org/10.1371/journal.pone.0153844
_version_ 1782427968143884288
author Talhouk, Aline
Kommoss, Stefan
Mackenzie, Robertson
Cheung, Martin
Leung, Samuel
Chiu, Derek S.
Kalloger, Steve E.
Huntsman, David G.
Chen, Stephanie
Intermaggio, Maria
Gronwald, Jacek
Chan, Fong C.
Ramus, Susan J.
Steidl, Christian
Scott, David W.
Anglesio, Michael S.
author_facet Talhouk, Aline
Kommoss, Stefan
Mackenzie, Robertson
Cheung, Martin
Leung, Samuel
Chiu, Derek S.
Kalloger, Steve E.
Huntsman, David G.
Chen, Stephanie
Intermaggio, Maria
Gronwald, Jacek
Chan, Fong C.
Ramus, Susan J.
Steidl, Christian
Scott, David W.
Anglesio, Michael S.
author_sort Talhouk, Aline
collection PubMed
description A major weakness in many high-throughput genomic studies is the lack of consideration of a clinical environment where one patient at a time must be evaluated. We examined generalizable and platform-specific sources of variation from NanoString gene expression data on both ovarian cancer and Hodgkin lymphoma patients. A reference-based strategy, applicable to single-patient molecular testing is proposed for batch effect correction. The proposed protocol improved performance in an established Hodgkin lymphoma classifier, reducing batch-to-batch misclassification while retaining accuracy and precision. We suggest this strategy may facilitate development of NanoString and similar molecular assays by accelerating prospective validation and clinical uptake of relevant diagnostics.
format Online
Article
Text
id pubmed-4838303
institution National Center for Biotechnology Information
language English
publishDate 2016
publisher Public Library of Science
record_format MEDLINE/PubMed
spelling pubmed-48383032016-04-29 Single-Patient Molecular Testing with NanoString nCounter Data Using a Reference-Based Strategy for Batch Effect Correction Talhouk, Aline Kommoss, Stefan Mackenzie, Robertson Cheung, Martin Leung, Samuel Chiu, Derek S. Kalloger, Steve E. Huntsman, David G. Chen, Stephanie Intermaggio, Maria Gronwald, Jacek Chan, Fong C. Ramus, Susan J. Steidl, Christian Scott, David W. Anglesio, Michael S. PLoS One Research Article A major weakness in many high-throughput genomic studies is the lack of consideration of a clinical environment where one patient at a time must be evaluated. We examined generalizable and platform-specific sources of variation from NanoString gene expression data on both ovarian cancer and Hodgkin lymphoma patients. A reference-based strategy, applicable to single-patient molecular testing is proposed for batch effect correction. The proposed protocol improved performance in an established Hodgkin lymphoma classifier, reducing batch-to-batch misclassification while retaining accuracy and precision. We suggest this strategy may facilitate development of NanoString and similar molecular assays by accelerating prospective validation and clinical uptake of relevant diagnostics. Public Library of Science 2016-04-20 /pmc/articles/PMC4838303/ /pubmed/27096160 http://dx.doi.org/10.1371/journal.pone.0153844 Text en © 2016 Talhouk et al http://creativecommons.org/licenses/by/4.0/ This is an open access article distributed under the terms of the Creative Commons Attribution License (http://creativecommons.org/licenses/by/4.0/) , which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited.
spellingShingle Research Article
Talhouk, Aline
Kommoss, Stefan
Mackenzie, Robertson
Cheung, Martin
Leung, Samuel
Chiu, Derek S.
Kalloger, Steve E.
Huntsman, David G.
Chen, Stephanie
Intermaggio, Maria
Gronwald, Jacek
Chan, Fong C.
Ramus, Susan J.
Steidl, Christian
Scott, David W.
Anglesio, Michael S.
Single-Patient Molecular Testing with NanoString nCounter Data Using a Reference-Based Strategy for Batch Effect Correction
title Single-Patient Molecular Testing with NanoString nCounter Data Using a Reference-Based Strategy for Batch Effect Correction
title_full Single-Patient Molecular Testing with NanoString nCounter Data Using a Reference-Based Strategy for Batch Effect Correction
title_fullStr Single-Patient Molecular Testing with NanoString nCounter Data Using a Reference-Based Strategy for Batch Effect Correction
title_full_unstemmed Single-Patient Molecular Testing with NanoString nCounter Data Using a Reference-Based Strategy for Batch Effect Correction
title_short Single-Patient Molecular Testing with NanoString nCounter Data Using a Reference-Based Strategy for Batch Effect Correction
title_sort single-patient molecular testing with nanostring ncounter data using a reference-based strategy for batch effect correction
topic Research Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC4838303/
https://www.ncbi.nlm.nih.gov/pubmed/27096160
http://dx.doi.org/10.1371/journal.pone.0153844
work_keys_str_mv AT talhoukaline singlepatientmoleculartestingwithnanostringncounterdatausingareferencebasedstrategyforbatcheffectcorrection
AT kommossstefan singlepatientmoleculartestingwithnanostringncounterdatausingareferencebasedstrategyforbatcheffectcorrection
AT mackenzierobertson singlepatientmoleculartestingwithnanostringncounterdatausingareferencebasedstrategyforbatcheffectcorrection
AT cheungmartin singlepatientmoleculartestingwithnanostringncounterdatausingareferencebasedstrategyforbatcheffectcorrection
AT leungsamuel singlepatientmoleculartestingwithnanostringncounterdatausingareferencebasedstrategyforbatcheffectcorrection
AT chiudereks singlepatientmoleculartestingwithnanostringncounterdatausingareferencebasedstrategyforbatcheffectcorrection
AT kallogerstevee singlepatientmoleculartestingwithnanostringncounterdatausingareferencebasedstrategyforbatcheffectcorrection
AT huntsmandavidg singlepatientmoleculartestingwithnanostringncounterdatausingareferencebasedstrategyforbatcheffectcorrection
AT chenstephanie singlepatientmoleculartestingwithnanostringncounterdatausingareferencebasedstrategyforbatcheffectcorrection
AT intermaggiomaria singlepatientmoleculartestingwithnanostringncounterdatausingareferencebasedstrategyforbatcheffectcorrection
AT gronwaldjacek singlepatientmoleculartestingwithnanostringncounterdatausingareferencebasedstrategyforbatcheffectcorrection
AT chanfongc singlepatientmoleculartestingwithnanostringncounterdatausingareferencebasedstrategyforbatcheffectcorrection
AT ramussusanj singlepatientmoleculartestingwithnanostringncounterdatausingareferencebasedstrategyforbatcheffectcorrection
AT steidlchristian singlepatientmoleculartestingwithnanostringncounterdatausingareferencebasedstrategyforbatcheffectcorrection
AT scottdavidw singlepatientmoleculartestingwithnanostringncounterdatausingareferencebasedstrategyforbatcheffectcorrection
AT anglesiomichaels singlepatientmoleculartestingwithnanostringncounterdatausingareferencebasedstrategyforbatcheffectcorrection