The ecologist’s field guide to sequence-based identification of biodiversity
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In: Methods in Ecology and Evolution, Vol. 7, 13.09.2016, p. 1008-1018.
Research output: Contribution to journal › Article › peer-review
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T1 - The ecologist’s field guide to sequence-based identification of biodiversity
AU - Creer, Simon
AU - Deiner, Kristy
AU - Frey, Serita
AU - Porazinska, Dorota
AU - Taberlet, Pierre
AU - Thomas, W. kelley
AU - Potter, Caitlin
AU - Bik, Holly M.
N1 - US National Science Foundation Research Coordination Network. Grant Number: DBI-1262480
PY - 2016/9/13
Y1 - 2016/9/13
N2 - 1. The past 100 years of ecological research has seen substantial progress in understanding the natural worldand likely effects of change, whether natural or anthropogenic. Traditional ecological approaches underpin suchadvances, but would additionally benefit from recent developments in the sequence-based quantification of biodiversityfrom the fields of molecular ecology and genomics. By building on a long and rich history of moleculartaxonomy and taking advantage of the new generation of DNA sequencing technologies, we are gaining previouslyimpossible insights into alpha and beta diversity from all domains of life, irrespective of body size.While anumber of complementary reviews are available in specialist journals, our aim here is to succinctly describe thedifferent technologies available within the omics toolbox and showcase the opportunities available to contemporaryecologists to advance our understanding of biodiversity and its potential roles in ecosystems.2. Starting in the field, we walk the reader through sampling and preservation of genomic material, includingtypical taxonomy marker genes used for species identification. Moving on to the laboratory, we cover nucleicacid extraction approaches and highlight the principal features of using marker gene assessment, metagenomics,metatranscriptomics, single-cell genomics and targeted genome sequencing as complementary approaches toassess the taxonomic and functional characteristics of biodiversity. We additionally provide clear guidance onthe forms of DNA found in the environmental samples (e.g. environmental vs. ancient DNA) and highlight aselection of case studies, including the investigation of trophic relationships/food webs. Given the maturity ofsequence-based identification of prokaryotes and microbial eukaryotes, more exposure is given to macrobialcommunities. We additionally illustrate current approaches to genomic data analysis and highlight the excitingprospects of the publicly available data underpinning published sequence-based studies.3. Given that ecology ‘has to count’, we identify the impact that molecular genetic analyses have had on stakeholdersand end-users and predict future developments for the fields of biomonitoring. Furthermore, we concludeby highlighting future opportunities in the field of systems ecology afforded by effective engagementbetween the fields of traditional and molecular ecology
AB - 1. The past 100 years of ecological research has seen substantial progress in understanding the natural worldand likely effects of change, whether natural or anthropogenic. Traditional ecological approaches underpin suchadvances, but would additionally benefit from recent developments in the sequence-based quantification of biodiversityfrom the fields of molecular ecology and genomics. By building on a long and rich history of moleculartaxonomy and taking advantage of the new generation of DNA sequencing technologies, we are gaining previouslyimpossible insights into alpha and beta diversity from all domains of life, irrespective of body size.While anumber of complementary reviews are available in specialist journals, our aim here is to succinctly describe thedifferent technologies available within the omics toolbox and showcase the opportunities available to contemporaryecologists to advance our understanding of biodiversity and its potential roles in ecosystems.2. Starting in the field, we walk the reader through sampling and preservation of genomic material, includingtypical taxonomy marker genes used for species identification. Moving on to the laboratory, we cover nucleicacid extraction approaches and highlight the principal features of using marker gene assessment, metagenomics,metatranscriptomics, single-cell genomics and targeted genome sequencing as complementary approaches toassess the taxonomic and functional characteristics of biodiversity. We additionally provide clear guidance onthe forms of DNA found in the environmental samples (e.g. environmental vs. ancient DNA) and highlight aselection of case studies, including the investigation of trophic relationships/food webs. Given the maturity ofsequence-based identification of prokaryotes and microbial eukaryotes, more exposure is given to macrobialcommunities. We additionally illustrate current approaches to genomic data analysis and highlight the excitingprospects of the publicly available data underpinning published sequence-based studies.3. Given that ecology ‘has to count’, we identify the impact that molecular genetic analyses have had on stakeholdersand end-users and predict future developments for the fields of biomonitoring. Furthermore, we concludeby highlighting future opportunities in the field of systems ecology afforded by effective engagementbetween the fields of traditional and molecular ecology
U2 - 10.1111/2041-210X.12574
DO - 10.1111/2041-210X.12574
M3 - Article
VL - 7
SP - 1008
EP - 1018
JO - Methods in Ecology and Evolution
JF - Methods in Ecology and Evolution
SN - 2041-210X
ER -