Seafloor biodiversity of Canada's three oceans: patterns, hotspots and potential drivers

Aim: we examined the relationships between bathymetry, latitude and energy and the diversity of marine benthic invertebrates across wide environmental ranges of Canada's three oceans. Location: Canadian Pacific, Arctic and Atlantic Oceans from the intertidal zone to upper bathyal depths, encomp...

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Published in:Diversity and Distributions
Other Authors: Ramey Balcı, Patricia A. (ORCID 0000-0002-5224-8863 & YÖK ID 261777), Wei, Chih-Lin; Cusson, Mathieu; Archambault, Philippe; Belley, Renald; Brown, Tanya; Burd, Brenda J.; Edinger, Evan; Kenchington, Ellen; Gilkinson, Kent; Lawton, Peter; Link, Heike; Scrosati, Ricardo A.; Snelgrove, Paul V. R., College of Sciences, Department of Molecular Biology
Format: Article in Journal/Newspaper
Language:English
Published: Wiley 2020
Subjects:
Online Access:https://doi.org/10.1111/ddi.13013
http://libdigitalcollections.ku.edu.tr/cdm/ref/collection/IR/id/8643
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spelling ftunivkocdc:oai:libdigitalcollections.ku.edu.tr:IR/8643 2024-09-15T17:52:14+00:00 Seafloor biodiversity of Canada's three oceans: patterns, hotspots and potential drivers Ramey Balcı, Patricia A. (ORCID 0000-0002-5224-8863 & YÖK ID 261777) Wei, Chih-Lin; Cusson, Mathieu; Archambault, Philippe; Belley, Renald; Brown, Tanya; Burd, Brenda J.; Edinger, Evan; Kenchington, Ellen; Gilkinson, Kent; Lawton, Peter; Link, Heike; Scrosati, Ricardo A.; Snelgrove, Paul V. R. College of Sciences Department of Molecular Biology 2020 pdf https://doi.org/10.1111/ddi.13013 http://libdigitalcollections.ku.edu.tr/cdm/ref/collection/IR/id/8643 English eng Wiley International Publisher version Koç University Institutional Repository IR02016.pdf 1366-9516 1472-4642 Wei, Chih-Lin, Mathieu Cusson, Philippe Archambault, Renald Belley, Tanya Brown, Brenda J. Burd, Evan Edinger, Ellen Kenchington, Kent Gilkinson, Peter Lawton, Heike Link, Patricia A. Ramey-Balci, Ricardo A. Scrosati, and Paul V. R. Snelgrove. "Seafloor Biodiversity of Canada's Three Oceans: Patterns, Hotspots and Potential Drivers." Diversity and Distributions. 26.2 (2020): 226-241. https://dx.doi.org/10.1111/ddi.13013 WoS; Scopus MOST 108-2611-M-002-001 NA http://libdigitalcollections.ku.edu.tr/cdm/ref/collection/IR/id/8643 Diversity and Distributions Biodiversity conservation Ecology Alpha diversity Arctic Ocean Atlantic Ocean Benthic invertebrates Energy-diversity relationship Marine protected area Pacific Ocean Productivity-diversity relationship Seafloor biodiversity Journal article text/academic publication 2020 ftunivkocdc https://doi.org/10.1111/ddi.13013 2024-07-17T03:48:41Z Aim: we examined the relationships between bathymetry, latitude and energy and the diversity of marine benthic invertebrates across wide environmental ranges of Canada's three oceans. Location: Canadian Pacific, Arctic and Atlantic Oceans from the intertidal zone to upper bathyal depths, encompassing 13 marine ecoregions. Methods: we compiled 35 benthic datasets that encompass 3,337 taxa (70% identified to species and 21% to genus) from 13,172 samples spanning 6,117 sites. Partitioning the analyses by different gear types, ecoregions or sites, we used Hill numbers to examine spatial patterns in alpha-diversity. We used resampling and extrapolation to standardized sampling effort and examined the effects of depth, latitude, chemical energy (export particulate organic carbon [POC] flux), thermal energy (bottom temperature) and seasonality of primary production on the benthic biodiversity. Results: the Canadian Arctic harboured the highest benthic diversity (e.g. epifauna and common and dominant infauna species), whereas the lowest diversity was found in the Atlantic. The Puget Trough (Pacific), Beaufort Sea, Arctic Archipelago, Hudson Bay, Northern Labrador and Southern Grand Bank (Atlantic) were the "hotspots" of diversity among the ecoregions. The infauna and epifauna both exhibited hump-shaped diversity-depth relationships, with peak diversity near shelf breaks; latitude (positively) predicted infaunal diversity, albeit weakly. Food supply, as inferred from primary production and depth, was more important than thermal energy in controlling diversity patterns. Limitations with respect to calculating POC flux in coastal (e.g. terrestrial runoff) and ice-covered regions or biological interactions may explain the negative POC flux-infaunal diversity relationship. Main conclusions: we show previously unreported diversity hotspots in the Canadian Arctic and in other ecoregions. Our analyses reveal potential controlling mechanisms of large-scale benthic biodiversity patterns in Canada's three oceans, which are ... Article in Journal/Newspaper Arctic Archipelago Arctic Ocean Beaufort Sea Hudson Bay Pacific Arctic Koç University Suna Kıraç Library’ Digital Collections Diversity and Distributions 26 2 226 241
institution Open Polar
collection Koç University Suna Kıraç Library’ Digital Collections
op_collection_id ftunivkocdc
language English
topic Biodiversity conservation
Ecology
Alpha diversity
Arctic Ocean
Atlantic Ocean
Benthic invertebrates
Energy-diversity relationship
Marine protected area
Pacific Ocean
Productivity-diversity relationship
Seafloor biodiversity
spellingShingle Biodiversity conservation
Ecology
Alpha diversity
Arctic Ocean
Atlantic Ocean
Benthic invertebrates
Energy-diversity relationship
Marine protected area
Pacific Ocean
Productivity-diversity relationship
Seafloor biodiversity
Seafloor biodiversity of Canada's three oceans: patterns, hotspots and potential drivers
topic_facet Biodiversity conservation
Ecology
Alpha diversity
Arctic Ocean
Atlantic Ocean
Benthic invertebrates
Energy-diversity relationship
Marine protected area
Pacific Ocean
Productivity-diversity relationship
Seafloor biodiversity
description Aim: we examined the relationships between bathymetry, latitude and energy and the diversity of marine benthic invertebrates across wide environmental ranges of Canada's three oceans. Location: Canadian Pacific, Arctic and Atlantic Oceans from the intertidal zone to upper bathyal depths, encompassing 13 marine ecoregions. Methods: we compiled 35 benthic datasets that encompass 3,337 taxa (70% identified to species and 21% to genus) from 13,172 samples spanning 6,117 sites. Partitioning the analyses by different gear types, ecoregions or sites, we used Hill numbers to examine spatial patterns in alpha-diversity. We used resampling and extrapolation to standardized sampling effort and examined the effects of depth, latitude, chemical energy (export particulate organic carbon [POC] flux), thermal energy (bottom temperature) and seasonality of primary production on the benthic biodiversity. Results: the Canadian Arctic harboured the highest benthic diversity (e.g. epifauna and common and dominant infauna species), whereas the lowest diversity was found in the Atlantic. The Puget Trough (Pacific), Beaufort Sea, Arctic Archipelago, Hudson Bay, Northern Labrador and Southern Grand Bank (Atlantic) were the "hotspots" of diversity among the ecoregions. The infauna and epifauna both exhibited hump-shaped diversity-depth relationships, with peak diversity near shelf breaks; latitude (positively) predicted infaunal diversity, albeit weakly. Food supply, as inferred from primary production and depth, was more important than thermal energy in controlling diversity patterns. Limitations with respect to calculating POC flux in coastal (e.g. terrestrial runoff) and ice-covered regions or biological interactions may explain the negative POC flux-infaunal diversity relationship. Main conclusions: we show previously unreported diversity hotspots in the Canadian Arctic and in other ecoregions. Our analyses reveal potential controlling mechanisms of large-scale benthic biodiversity patterns in Canada's three oceans, which are ...
author2 Ramey Balcı, Patricia A. (ORCID 0000-0002-5224-8863 & YÖK ID 261777)
Wei, Chih-Lin; Cusson, Mathieu; Archambault, Philippe; Belley, Renald; Brown, Tanya; Burd, Brenda J.; Edinger, Evan; Kenchington, Ellen; Gilkinson, Kent; Lawton, Peter; Link, Heike; Scrosati, Ricardo A.; Snelgrove, Paul V. R.
College of Sciences
Department of Molecular Biology
format Article in Journal/Newspaper
title Seafloor biodiversity of Canada's three oceans: patterns, hotspots and potential drivers
title_short Seafloor biodiversity of Canada's three oceans: patterns, hotspots and potential drivers
title_full Seafloor biodiversity of Canada's three oceans: patterns, hotspots and potential drivers
title_fullStr Seafloor biodiversity of Canada's three oceans: patterns, hotspots and potential drivers
title_full_unstemmed Seafloor biodiversity of Canada's three oceans: patterns, hotspots and potential drivers
title_sort seafloor biodiversity of canada's three oceans: patterns, hotspots and potential drivers
publisher Wiley
publishDate 2020
url https://doi.org/10.1111/ddi.13013
http://libdigitalcollections.ku.edu.tr/cdm/ref/collection/IR/id/8643
genre Arctic Archipelago
Arctic Ocean
Beaufort Sea
Hudson Bay
Pacific Arctic
genre_facet Arctic Archipelago
Arctic Ocean
Beaufort Sea
Hudson Bay
Pacific Arctic
op_source Diversity and Distributions
op_relation Publisher version
Koç University Institutional Repository
IR02016.pdf
1366-9516
1472-4642
Wei, Chih-Lin, Mathieu Cusson, Philippe Archambault, Renald Belley, Tanya Brown, Brenda J. Burd, Evan Edinger, Ellen Kenchington, Kent Gilkinson, Peter Lawton, Heike Link, Patricia A. Ramey-Balci, Ricardo A. Scrosati, and Paul V. R. Snelgrove. "Seafloor Biodiversity of Canada's Three Oceans: Patterns, Hotspots and Potential Drivers." Diversity and Distributions. 26.2 (2020): 226-241.
https://dx.doi.org/10.1111/ddi.13013
WoS; Scopus
MOST 108-2611-M-002-001
NA
http://libdigitalcollections.ku.edu.tr/cdm/ref/collection/IR/id/8643
op_doi https://doi.org/10.1111/ddi.13013
container_title Diversity and Distributions
container_volume 26
container_issue 2
container_start_page 226
op_container_end_page 241
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