Increasing metagenomic resolution of microbiome interactions through functional phylogenomics and bacterial sub-communities

The genomic composition of the microbiome and its relationship with the environment is an exciting open question in biology. Metagenomics is a useful tool in the discovery of previously unknown taxa, but its use to understand the functional and ecological capacities of the microbiome is limited unti...

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Main Authors: Angélica eCibrián-Jaramillo, Francisco eBarona-Gómez
Format: Article
Language:English
Published: Frontiers Media S.A. 2016-02-01
Series:Frontiers in Genetics
Subjects:
Online Access:http://journal.frontiersin.org/Journal/10.3389/fgene.2016.00004/full
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spelling doaj-f37891f4a81f403fb8e24a4677880a302020-11-24T22:57:47ZengFrontiers Media S.A.Frontiers in Genetics1664-80212016-02-01710.3389/fgene.2016.00004158985Increasing metagenomic resolution of microbiome interactions through functional phylogenomics and bacterial sub-communitiesAngélica eCibrián-Jaramillo0Francisco eBarona-Gómez1Laboratorio Nacional de Genomica para la Biodiversidad Laboratorio Nacional de Genomica para la Biodiversidad The genomic composition of the microbiome and its relationship with the environment is an exciting open question in biology. Metagenomics is a useful tool in the discovery of previously unknown taxa, but its use to understand the functional and ecological capacities of the microbiome is limited until taxonomy and function are understood in the context of the community. We suggest that this can be achieved using a combined functional phylogenomics and co-culture-based experimental strategy that can increase our capacity to measure sub-community interactions. Functional phylogenomics can identify and partition the genome such that hidden gene functions and gene clusters with unique evolutionary signals are revealed. We can test these phylogenomic predictions using an experimental model based on sub-community populations that represent a subset of the diversity directly obtained from environmental samples. These populations increase the detection of mechanisms that drive functional forces in the assembly of the microbiome, in particular the role of metabolites from keystone taxa in community interactions. Our combined approach leverages the potential of metagenomics to address biological questions from ecological systems.http://journal.frontiersin.org/Journal/10.3389/fgene.2016.00004/fullMetagenomicsmicrobiomeBacterial interactionsco-culturefunctional phylogenomicsspecialized metabolites.
collection DOAJ
language English
format Article
sources DOAJ
author Angélica eCibrián-Jaramillo
Francisco eBarona-Gómez
spellingShingle Angélica eCibrián-Jaramillo
Francisco eBarona-Gómez
Increasing metagenomic resolution of microbiome interactions through functional phylogenomics and bacterial sub-communities
Frontiers in Genetics
Metagenomics
microbiome
Bacterial interactions
co-culture
functional phylogenomics
specialized metabolites.
author_facet Angélica eCibrián-Jaramillo
Francisco eBarona-Gómez
author_sort Angélica eCibrián-Jaramillo
title Increasing metagenomic resolution of microbiome interactions through functional phylogenomics and bacterial sub-communities
title_short Increasing metagenomic resolution of microbiome interactions through functional phylogenomics and bacterial sub-communities
title_full Increasing metagenomic resolution of microbiome interactions through functional phylogenomics and bacterial sub-communities
title_fullStr Increasing metagenomic resolution of microbiome interactions through functional phylogenomics and bacterial sub-communities
title_full_unstemmed Increasing metagenomic resolution of microbiome interactions through functional phylogenomics and bacterial sub-communities
title_sort increasing metagenomic resolution of microbiome interactions through functional phylogenomics and bacterial sub-communities
publisher Frontiers Media S.A.
series Frontiers in Genetics
issn 1664-8021
publishDate 2016-02-01
description The genomic composition of the microbiome and its relationship with the environment is an exciting open question in biology. Metagenomics is a useful tool in the discovery of previously unknown taxa, but its use to understand the functional and ecological capacities of the microbiome is limited until taxonomy and function are understood in the context of the community. We suggest that this can be achieved using a combined functional phylogenomics and co-culture-based experimental strategy that can increase our capacity to measure sub-community interactions. Functional phylogenomics can identify and partition the genome such that hidden gene functions and gene clusters with unique evolutionary signals are revealed. We can test these phylogenomic predictions using an experimental model based on sub-community populations that represent a subset of the diversity directly obtained from environmental samples. These populations increase the detection of mechanisms that drive functional forces in the assembly of the microbiome, in particular the role of metabolites from keystone taxa in community interactions. Our combined approach leverages the potential of metagenomics to address biological questions from ecological systems.
topic Metagenomics
microbiome
Bacterial interactions
co-culture
functional phylogenomics
specialized metabolites.
url http://journal.frontiersin.org/Journal/10.3389/fgene.2016.00004/full
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AT franciscoebaronagomez increasingmetagenomicresolutionofmicrobiomeinteractionsthroughfunctionalphylogenomicsandbacterialsubcommunities
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