Data_Sheet_1_Invariant Gametogenic Response of Dominant Infaunal Bivalves From the Arctic Under Ambient and Near-Future Climate Change Conditions.pdf

Arctic marine ecosystems are undergoing a series of major rapid adjustments to the regional amplification of climate change, but there is a paucity of knowledge about how changing environmental conditions might affect reproductive cycles of seafloor organisms. Shifts in species reproductive ecology...

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Bibliographic Details
Main Authors: Adam J. Reed (7511948), Jasmin A. Godbold (8272971), Martin Solan (193677), Laura J. Grange (7848448)
Format: Dataset
Language:unknown
Published: 2021
Subjects:
Online Access:https://doi.org/10.3389/fmars.2021.576746.s001
id ftsmithonian:oai:figshare.com:article/14112680
record_format openpolar
spelling ftsmithonian:oai:figshare.com:article/14112680 2023-05-15T14:55:39+02:00 Data_Sheet_1_Invariant Gametogenic Response of Dominant Infaunal Bivalves From the Arctic Under Ambient and Near-Future Climate Change Conditions.pdf Adam J. Reed (7511948) Jasmin A. Godbold (8272971) Martin Solan (193677) Laura J. Grange (7848448) 2021-02-25T06:29:27Z https://doi.org/10.3389/fmars.2021.576746.s001 unknown https://figshare.com/articles/dataset/Data_Sheet_1_Invariant_Gametogenic_Response_of_Dominant_Infaunal_Bivalves_From_the_Arctic_Under_Ambient_and_Near-Future_Climate_Change_Conditions_pdf/14112680 doi:10.3389/fmars.2021.576746.s001 CC BY 4.0 CC-BY Oceanography Marine Biology Marine Geoscience Biological Oceanography Chemical Oceanography Physical Oceanography Marine Engineering metabolic plasticity functional response oogenesis life-history dynamic energy-budget Dataset 2021 ftsmithonian https://doi.org/10.3389/fmars.2021.576746.s001 2021-02-26T10:35:40Z Arctic marine ecosystems are undergoing a series of major rapid adjustments to the regional amplification of climate change, but there is a paucity of knowledge about how changing environmental conditions might affect reproductive cycles of seafloor organisms. Shifts in species reproductive ecology may influence their entire life-cycle, and, ultimately, determine the persistence and distribution of taxa. Here, we investigate whether the combined effects of warming and ocean acidification based on near-future climate change projections affects the reproductive processes in benthic bivalves (Astarte crenata and Bathyarca glacialis) from the Barents Sea. Both species present large oocytes indicative of lecithotrophic or direct larval development after ∼4 months exposure to ambient [<2°C, ∼400 ppm (CO 2 )] and near-future [3–5°C, ∼550 ppm (CO 2 )] conditions, but we find no evidence that the combined effects of acidification and warming affect the size frequency distribution of oocytes. Whilst our observations are indicative of resilience of this reproductive stage to global changes, we also highlight that the successful progression of gametogenesis under standard laboratory conditions does not necessarily mean that successful development and recruitment will occur in the natural environment. This is because the metabolic costs of changing environmental conditions are likely to be offset by, as is common practice in laboratory experiments, feeding ad libitum. We discuss our findings in the context of changing food availability in the Arctic and conclude that, if we are to establish the vulnerability of species and ecosystems, there is a need for holistic approaches that incorporate multiple system responses to change. Dataset Arctic Barents Sea Climate change Ocean acidification Unknown Arctic Barents Sea
institution Open Polar
collection Unknown
op_collection_id ftsmithonian
language unknown
topic Oceanography
Marine Biology
Marine Geoscience
Biological Oceanography
Chemical Oceanography
Physical Oceanography
Marine Engineering
metabolic plasticity
functional response
oogenesis
life-history
dynamic energy-budget
spellingShingle Oceanography
Marine Biology
Marine Geoscience
Biological Oceanography
Chemical Oceanography
Physical Oceanography
Marine Engineering
metabolic plasticity
functional response
oogenesis
life-history
dynamic energy-budget
Adam J. Reed (7511948)
Jasmin A. Godbold (8272971)
Martin Solan (193677)
Laura J. Grange (7848448)
Data_Sheet_1_Invariant Gametogenic Response of Dominant Infaunal Bivalves From the Arctic Under Ambient and Near-Future Climate Change Conditions.pdf
topic_facet Oceanography
Marine Biology
Marine Geoscience
Biological Oceanography
Chemical Oceanography
Physical Oceanography
Marine Engineering
metabolic plasticity
functional response
oogenesis
life-history
dynamic energy-budget
description Arctic marine ecosystems are undergoing a series of major rapid adjustments to the regional amplification of climate change, but there is a paucity of knowledge about how changing environmental conditions might affect reproductive cycles of seafloor organisms. Shifts in species reproductive ecology may influence their entire life-cycle, and, ultimately, determine the persistence and distribution of taxa. Here, we investigate whether the combined effects of warming and ocean acidification based on near-future climate change projections affects the reproductive processes in benthic bivalves (Astarte crenata and Bathyarca glacialis) from the Barents Sea. Both species present large oocytes indicative of lecithotrophic or direct larval development after ∼4 months exposure to ambient [<2°C, ∼400 ppm (CO 2 )] and near-future [3–5°C, ∼550 ppm (CO 2 )] conditions, but we find no evidence that the combined effects of acidification and warming affect the size frequency distribution of oocytes. Whilst our observations are indicative of resilience of this reproductive stage to global changes, we also highlight that the successful progression of gametogenesis under standard laboratory conditions does not necessarily mean that successful development and recruitment will occur in the natural environment. This is because the metabolic costs of changing environmental conditions are likely to be offset by, as is common practice in laboratory experiments, feeding ad libitum. We discuss our findings in the context of changing food availability in the Arctic and conclude that, if we are to establish the vulnerability of species and ecosystems, there is a need for holistic approaches that incorporate multiple system responses to change.
format Dataset
author Adam J. Reed (7511948)
Jasmin A. Godbold (8272971)
Martin Solan (193677)
Laura J. Grange (7848448)
author_facet Adam J. Reed (7511948)
Jasmin A. Godbold (8272971)
Martin Solan (193677)
Laura J. Grange (7848448)
author_sort Adam J. Reed (7511948)
title Data_Sheet_1_Invariant Gametogenic Response of Dominant Infaunal Bivalves From the Arctic Under Ambient and Near-Future Climate Change Conditions.pdf
title_short Data_Sheet_1_Invariant Gametogenic Response of Dominant Infaunal Bivalves From the Arctic Under Ambient and Near-Future Climate Change Conditions.pdf
title_full Data_Sheet_1_Invariant Gametogenic Response of Dominant Infaunal Bivalves From the Arctic Under Ambient and Near-Future Climate Change Conditions.pdf
title_fullStr Data_Sheet_1_Invariant Gametogenic Response of Dominant Infaunal Bivalves From the Arctic Under Ambient and Near-Future Climate Change Conditions.pdf
title_full_unstemmed Data_Sheet_1_Invariant Gametogenic Response of Dominant Infaunal Bivalves From the Arctic Under Ambient and Near-Future Climate Change Conditions.pdf
title_sort data_sheet_1_invariant gametogenic response of dominant infaunal bivalves from the arctic under ambient and near-future climate change conditions.pdf
publishDate 2021
url https://doi.org/10.3389/fmars.2021.576746.s001
geographic Arctic
Barents Sea
geographic_facet Arctic
Barents Sea
genre Arctic
Barents Sea
Climate change
Ocean acidification
genre_facet Arctic
Barents Sea
Climate change
Ocean acidification
op_relation https://figshare.com/articles/dataset/Data_Sheet_1_Invariant_Gametogenic_Response_of_Dominant_Infaunal_Bivalves_From_the_Arctic_Under_Ambient_and_Near-Future_Climate_Change_Conditions_pdf/14112680
doi:10.3389/fmars.2021.576746.s001
op_rights CC BY 4.0
op_rightsnorm CC-BY
op_doi https://doi.org/10.3389/fmars.2021.576746.s001
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