Integrative Analysis of Longitudinal Metabolomics Data from a Personal Multi-Omics Profile

The integrative personal omics profile (iPOP) is a pioneering study that combines genomics, transcriptomics, proteomics, metabolomics and autoantibody profiles from a single individual over a 14-month period. The observation period includes two episodes of viral infection: a human rhinovirus and a r...

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Main Authors: Michael Snyder, Roger Higdon, Larissa Stanberry, George I. Mias, Winston Haynes, Eugene Kolker
Format: Article
Language:English
Published: MDPI AG 2013-09-01
Series:Metabolites
Subjects:
Online Access:http://www.mdpi.com/2218-1989/3/3/741
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spelling doaj-e290af735d6d4f42a4f8794194076b492020-11-24T22:04:51ZengMDPI AGMetabolites2218-19892013-09-013374176010.3390/metabo3030741Integrative Analysis of Longitudinal Metabolomics Data from a Personal Multi-Omics ProfileMichael SnyderRoger HigdonLarissa StanberryGeorge I. MiasWinston HaynesEugene KolkerThe integrative personal omics profile (iPOP) is a pioneering study that combines genomics, transcriptomics, proteomics, metabolomics and autoantibody profiles from a single individual over a 14-month period. The observation period includes two episodes of viral infection: a human rhinovirus and a respiratory syncytial virus. The profile studies give an informative snapshot into the biological functioning of an organism. We hypothesize that pathway expression levels are associated with disease status. To test this hypothesis, we use biological pathways to integrate metabolomics and proteomics iPOP data. The approach computes the pathways’ differential expression levels at each time point, while taking into account the pathway structure and the longitudinal design. The resulting pathway levels show strong association with the disease status. Further, we identify temporal patterns in metabolite expression levels. The changes in metabolite expression levels also appear to be consistent with the disease status. The results of the integrative analysis suggest that changes in biological pathways may be used to predict and monitor the disease. The iPOP experimental design, data acquisition and analysis issues are discussed within the broader context of personal profiling.http://www.mdpi.com/2218-1989/3/3/741metabolomicsintegrative pathway analysisDEAPdendrogram sharpeningDELSAiPOPlongitudinal designmulti-omics datasingle linkage.
collection DOAJ
language English
format Article
sources DOAJ
author Michael Snyder
Roger Higdon
Larissa Stanberry
George I. Mias
Winston Haynes
Eugene Kolker
spellingShingle Michael Snyder
Roger Higdon
Larissa Stanberry
George I. Mias
Winston Haynes
Eugene Kolker
Integrative Analysis of Longitudinal Metabolomics Data from a Personal Multi-Omics Profile
Metabolites
metabolomics
integrative pathway analysis
DEAP
dendrogram sharpening
DELSA
iPOP
longitudinal design
multi-omics data
single linkage.
author_facet Michael Snyder
Roger Higdon
Larissa Stanberry
George I. Mias
Winston Haynes
Eugene Kolker
author_sort Michael Snyder
title Integrative Analysis of Longitudinal Metabolomics Data from a Personal Multi-Omics Profile
title_short Integrative Analysis of Longitudinal Metabolomics Data from a Personal Multi-Omics Profile
title_full Integrative Analysis of Longitudinal Metabolomics Data from a Personal Multi-Omics Profile
title_fullStr Integrative Analysis of Longitudinal Metabolomics Data from a Personal Multi-Omics Profile
title_full_unstemmed Integrative Analysis of Longitudinal Metabolomics Data from a Personal Multi-Omics Profile
title_sort integrative analysis of longitudinal metabolomics data from a personal multi-omics profile
publisher MDPI AG
series Metabolites
issn 2218-1989
publishDate 2013-09-01
description The integrative personal omics profile (iPOP) is a pioneering study that combines genomics, transcriptomics, proteomics, metabolomics and autoantibody profiles from a single individual over a 14-month period. The observation period includes two episodes of viral infection: a human rhinovirus and a respiratory syncytial virus. The profile studies give an informative snapshot into the biological functioning of an organism. We hypothesize that pathway expression levels are associated with disease status. To test this hypothesis, we use biological pathways to integrate metabolomics and proteomics iPOP data. The approach computes the pathways’ differential expression levels at each time point, while taking into account the pathway structure and the longitudinal design. The resulting pathway levels show strong association with the disease status. Further, we identify temporal patterns in metabolite expression levels. The changes in metabolite expression levels also appear to be consistent with the disease status. The results of the integrative analysis suggest that changes in biological pathways may be used to predict and monitor the disease. The iPOP experimental design, data acquisition and analysis issues are discussed within the broader context of personal profiling.
topic metabolomics
integrative pathway analysis
DEAP
dendrogram sharpening
DELSA
iPOP
longitudinal design
multi-omics data
single linkage.
url http://www.mdpi.com/2218-1989/3/3/741
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