Seawater carbonate chemistry and calcification physiology of coralline algae

Crustose coralline algae play a crucial role in the building of reefs in the photic zones of nearshore ecosystems globally, and are highly susceptible to ocean acidification. Nevertheless, the extent to which ecologically important crustose coralline algae can gain tolerance to ocean acidification over multiple generations of exposure is unknown. We show that, while calcification of juvenile crustose coralline algae is initially highly sensitive to ocean acidification, after six generations of exposure the effects of ocean acidification disappear. A reciprocal transplant experiment conducted on the seventh generation, where half of all replicates were interchanged across treatments, confirmed that they had acquired tolerance to low pH and not simply to laboratory conditions. Neither exposure to greater pH variability, nor chemical conditions within the micro-scale calcifying fluid internally, appeared to play a role in fostering this capacity. Our results demonstrate that reef-accreting taxa can gain tolerance to ocean acidification over multiple generations of exposure, suggesting that some of these cosmopolitan species could maintain their critical ecological role in reef formation.

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Cite this as

Cornwall, Christopher Edward, Comeau, Steeve, DeCarlo, Thomas M, Larcombe, E, Moore, B, Giltrow, K, Puerzer, F, D'Alexis, Q, McCulloch, Malcolm T (2020). Dataset: Seawater carbonate chemistry and calcification physiology of coralline algae. https://doi.org/10.1594/PANGAEA.925187

DOI retrieved: 2020

Additional Info

Field Value
Imported on November 30, 2024
Last update November 30, 2024
License CC-BY-4.0
Source https://doi.org/10.1594/PANGAEA.925187
Author Cornwall, Christopher Edward
Given Name Christopher Edward
Family Name Cornwall
More Authors
Comeau, Steeve
DeCarlo, Thomas M
Larcombe, E
Moore, B
Giltrow, K
Puerzer, F
D'Alexis, Q
McCulloch, Malcolm T
Source Creation 2020
Publication Year 2020
Resource Type text/tab-separated-values - filename: Cornwall-etal_2020_NCC
Subject Areas
Name: Atmosphere

Name: BiologicalClassification

Name: Chemistry

Name: Ecology

Related Identifiers
Title: A coralline alga gains tolerance to ocean acidification over multiple generations of exposure
Identifier: https://doi.org/10.1038/s41558-019-0681-8
Type: DOI
Relation: References
Year: 2020
Source: Nature Climate Change
Authors: Cornwall Christopher Edward , Comeau Steeve , DeCarlo Thomas M , Larcombe E , Moore B , Giltrow K , Puerzer F , D'Alexis Q , McCulloch Malcolm T , Cornwall Christopher Edward , Gattuso Jean-Pierre , Epitalon Jean-Marie , Lavigne Héloïse , Orr James , Gentili Bernard , Hagens Mathilde , Hofmann Andreas , Mueller Jens-Daniel , Proye Aurélien , Rae James , Soetaert Karline .

Title: A coralline alga gains tolerance to ocean acidification after multiple generations of exposure: data
Identifier: https://doi.org/10.5061/dryad.pzgmsbcfq
Type: DOI
Relation: References
Year: 2019
Source: Dryad
Authors: Cornwall Christopher Edward , Comeau Steeve , DeCarlo Thomas M , Larcombe E , Moore B , Giltrow K , Puerzer F , D'Alexis Q , McCulloch Malcolm T , Cornwall Christopher Edward , Gattuso Jean-Pierre , Epitalon Jean-Marie , Lavigne Héloïse , Orr James , Gentili Bernard , Hagens Mathilde , Hofmann Andreas , Mueller Jens-Daniel , Proye Aurélien , Rae James , Soetaert Karline .

Title: seacarb: seawater carbonate chemistry with R. R package version 3.2.14
Identifier: https://CRAN.R-project.org/package=seacarb
Type: DOI
Relation: References
Year: 2020
Authors: Cornwall Christopher Edward , Comeau Steeve , DeCarlo Thomas M , Larcombe E , Moore B , Giltrow K , Puerzer F , D'Alexis Q , McCulloch Malcolm T , Cornwall Christopher Edward , Gattuso Jean-Pierre , Epitalon Jean-Marie , Lavigne Héloïse , Orr James , Gentili Bernard , Hagens Mathilde , Hofmann Andreas , Mueller Jens-Daniel , Proye Aurélien , Rae James , Soetaert Karline .