Effect of environmental DNA sampling resolution in detecting nearshore fish biodiversity compared to capture surveys.

Fuente: PubMed
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Autores principales: Millard-Martin, Ben, Sheridan, Kate, Morien, Evan, Lemay, Matthew A, Hessing-Lewis, Margot, Clemente-Carvalho, Rute B G, Sunday, Jennifer M
Formato: Artículo científico
Lenguaje:en
Publicado: PeerJ 2024
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author Millard-Martin, Ben
Sheridan, Kate
Morien, Evan
Lemay, Matthew A
Hessing-Lewis, Margot
Clemente-Carvalho, Rute B G
Sunday, Jennifer M
author_facet Millard-Martin, Ben
Sheridan, Kate
Morien, Evan
Lemay, Matthew A
Hessing-Lewis, Margot
Clemente-Carvalho, Rute B G
Sunday, Jennifer M
Millard-Martin, Ben
Sheridan, Kate
Morien, Evan
Lemay, Matthew A
Hessing-Lewis, Margot
Clemente-Carvalho, Rute B G
Sunday, Jennifer M
collection PubMed - marine biology
contents Effect of environmental DNA sampling resolution in detecting nearshore fish biodiversity compared to capture surveys. Millard-Martin, Ben Sheridan, Kate Morien, Evan Lemay, Matthew A Hessing-Lewis, Margot Clemente-Carvalho, Rute B G Sunday, Jennifer M Animals Biodiversity DNA, Environmental Fishes British Columbia DNA Barcoding, Taxonomic Ecosystem Environmental Monitoring Sampling and sequencing marine environmental DNA (eDNA) provides a tool that can increase our ability to monitor biodiversity, but movement and mixing of eDNA after release from organisms before collection could affect our inference of species distributions. To assess how conditions at differing spatial scales influence the inferred species richness and compositional turnover, we conducted a paired eDNA metabarcoding and capture (beach seining) survey of fishes on the coast of British Columbia. We found more taxa were typically detected using eDNA compared to beach seining. eDNA identified more taxa with alternative habitat preferences, and this richness difference was greater in areas of high seawater movement, suggesting eDNA has a larger spatial grain influenced by water motion. By contrast, we found that eDNA consistently missed low biomass species present in seining surveys. Spatial turnover of communities surveyed using beach seining differed from that of the eDNA and was better explained by factors that vary at small (10-1000s meters) spatial scales. Specifically, vegetation cover and shoreline exposure explained most species turnover from seining, while eDNA turnover was not explained by those factors and showed a distance decay pattern (a change from 10% to 25% similarity from 2 km to 10 km of distance), suggesting unmeasured environmental variation at larger scales drives its turnover. Our findings indicate that the eDNA sample grain is larger than that of capture surveys. Whereas seining can detect differences in fish distributions at scales of 10s-100s of meters, eDNA can best summarize fish biodiversity at larger scales possibly more relevant to regional biodiversity assessments.
format Artículo científico
id pubmed_39421418
institution PubMed
language en
publishDate 2024
publisher PeerJ
record_format pubmed
spellingShingle Effect of environmental DNA sampling resolution in detecting nearshore fish biodiversity compared to capture surveys.
Millard-Martin, Ben
Sheridan, Kate
Morien, Evan
Lemay, Matthew A
Hessing-Lewis, Margot
Clemente-Carvalho, Rute B G
Sunday, Jennifer M
Animals
Biodiversity
DNA, Environmental
Fishes
British Columbia
DNA Barcoding, Taxonomic
Ecosystem
Environmental Monitoring
Effect of environmental DNA sampling resolution in detecting nearshore fish biodiversity compared to capture surveys. Millard-Martin, Ben Sheridan, Kate Morien, Evan Lemay, Matthew A Hessing-Lewis, Margot Clemente-Carvalho, Rute B G Sunday, Jennifer M Animals Biodiversity DNA, Environmental Fishes British Columbia DNA Barcoding, Taxonomic Ecosystem Environmental Monitoring Sampling and sequencing marine environmental DNA (eDNA) provides a tool that can increase our ability to monitor biodiversity, but movement and mixing of eDNA after release from organisms before collection could affect our inference of species distributions. To assess how conditions at differing spatial scales influence the inferred species richness and compositional turnover, we conducted a paired eDNA metabarcoding and capture (beach seining) survey of fishes on the coast of British Columbia. We found more taxa were typically detected using eDNA compared to beach seining. eDNA identified more taxa with alternative habitat preferences, and this richness difference was greater in areas of high seawater movement, suggesting eDNA has a larger spatial grain influenced by water motion. By contrast, we found that eDNA consistently missed low biomass species present in seining surveys. Spatial turnover of communities surveyed using beach seining differed from that of the eDNA and was better explained by factors that vary at small (10-1000s meters) spatial scales. Specifically, vegetation cover and shoreline exposure explained most species turnover from seining, while eDNA turnover was not explained by those factors and showed a distance decay pattern (a change from 10% to 25% similarity from 2 km to 10 km of distance), suggesting unmeasured environmental variation at larger scales drives its turnover. Our findings indicate that the eDNA sample grain is larger than that of capture surveys. Whereas seining can detect differences in fish distributions at scales of 10s-100s of meters, eDNA can best summarize fish biodiversity at larger scales possibly more relevant to regional biodiversity assessments.
title Effect of environmental DNA sampling resolution in detecting nearshore fish biodiversity compared to capture surveys.
topic Animals
Biodiversity
DNA, Environmental
Fishes
British Columbia
DNA Barcoding, Taxonomic
Ecosystem
Environmental Monitoring
url https://pubmed.ncbi.nlm.nih.gov/39421418/