Fused Regression for Multi-source Gene Regulatory Network Inference.

Understanding gene regulatory networks is critical to understanding cellular differentiation and response to external stimuli. Methods for global network inference have been developed and applied to a variety of species. Most approaches consider the problem of network inference independently in each...

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Main Authors: Kari Y Lam, Zachary M Westrick, Christian L Müller, Lionel Christiaen, Richard Bonneau
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2016-12-01
Series:PLoS Computational Biology
Online Access:https://doi.org/10.1371/journal.pcbi.1005157
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spelling doaj-205cea2881814891a6de2381e22952052021-04-21T15:39:17ZengPublic Library of Science (PLoS)PLoS Computational Biology1553-734X1553-73582016-12-011212e100515710.1371/journal.pcbi.1005157Fused Regression for Multi-source Gene Regulatory Network Inference.Kari Y LamZachary M WestrickChristian L MüllerLionel ChristiaenRichard BonneauUnderstanding gene regulatory networks is critical to understanding cellular differentiation and response to external stimuli. Methods for global network inference have been developed and applied to a variety of species. Most approaches consider the problem of network inference independently in each species, despite evidence that gene regulation can be conserved even in distantly related species. Further, network inference is often confined to single data-types (single platforms) and single cell types. We introduce a method for multi-source network inference that allows simultaneous estimation of gene regulatory networks in multiple species or biological processes through the introduction of priors based on known gene relationships such as orthology incorporated using fused regression. This approach improves network inference performance even when orthology mapping and conservation are incomplete. We refine this method by presenting an algorithm that extracts the true conserved subnetwork from a larger set of potentially conserved interactions and demonstrate the utility of our method in cross species network inference. Last, we demonstrate our method's utility in learning from data collected on different experimental platforms.https://doi.org/10.1371/journal.pcbi.1005157
collection DOAJ
language English
format Article
sources DOAJ
author Kari Y Lam
Zachary M Westrick
Christian L Müller
Lionel Christiaen
Richard Bonneau
spellingShingle Kari Y Lam
Zachary M Westrick
Christian L Müller
Lionel Christiaen
Richard Bonneau
Fused Regression for Multi-source Gene Regulatory Network Inference.
PLoS Computational Biology
author_facet Kari Y Lam
Zachary M Westrick
Christian L Müller
Lionel Christiaen
Richard Bonneau
author_sort Kari Y Lam
title Fused Regression for Multi-source Gene Regulatory Network Inference.
title_short Fused Regression for Multi-source Gene Regulatory Network Inference.
title_full Fused Regression for Multi-source Gene Regulatory Network Inference.
title_fullStr Fused Regression for Multi-source Gene Regulatory Network Inference.
title_full_unstemmed Fused Regression for Multi-source Gene Regulatory Network Inference.
title_sort fused regression for multi-source gene regulatory network inference.
publisher Public Library of Science (PLoS)
series PLoS Computational Biology
issn 1553-734X
1553-7358
publishDate 2016-12-01
description Understanding gene regulatory networks is critical to understanding cellular differentiation and response to external stimuli. Methods for global network inference have been developed and applied to a variety of species. Most approaches consider the problem of network inference independently in each species, despite evidence that gene regulation can be conserved even in distantly related species. Further, network inference is often confined to single data-types (single platforms) and single cell types. We introduce a method for multi-source network inference that allows simultaneous estimation of gene regulatory networks in multiple species or biological processes through the introduction of priors based on known gene relationships such as orthology incorporated using fused regression. This approach improves network inference performance even when orthology mapping and conservation are incomplete. We refine this method by presenting an algorithm that extracts the true conserved subnetwork from a larger set of potentially conserved interactions and demonstrate the utility of our method in cross species network inference. Last, we demonstrate our method's utility in learning from data collected on different experimental platforms.
url https://doi.org/10.1371/journal.pcbi.1005157
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