Can seagrass modify the effects of ocean acidification on oysters?

Solutions are being sought to ameliorate the impacts of anthropogenic climate change. Seagrass may be a solution to provide refugia from climate change for marine organisms. This study aimed to determine if the seagrass Zostera muelleri sub spp. capricorni benefits the Sydney rock oyster Saccostrea...

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Veröffentlicht in:Marine pollution bulletin 2022-04, Vol.177, p.113438-113438, Article 113438
Hauptverfasser: Garner, Natasha, Ross, Pauline M., Falkenberg, Laura J., Seymour, Justin R., Siboni, Nachshon, Scanes, Elliot
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container_title Marine pollution bulletin
container_volume 177
creator Garner, Natasha
Ross, Pauline M.
Falkenberg, Laura J.
Seymour, Justin R.
Siboni, Nachshon
Scanes, Elliot
description Solutions are being sought to ameliorate the impacts of anthropogenic climate change. Seagrass may be a solution to provide refugia from climate change for marine organisms. This study aimed to determine if the seagrass Zostera muelleri sub spp. capricorni benefits the Sydney rock oyster Saccostrea glomerata, and if these benefits can modify any anticipated negative impacts of ocean acidification. Future and ambient ocean acidification conditions were simulated in 52 L mesocosms at control (381 μatm) and elevated (848 μatm) CO2 with and without Z. muelleri. Oyster growth, physiology and microbiomes of oysters and seagrass were measured. Seagrass was beneficial to oyster growth at ambient pCO2, but did not positively modify the impacts of ocean acidification on oysters at elevated pCO2. Oyster microbiomes were altered by the presence of seagrass but not by elevated pCO2. Our results indicate seagrasses may not be a panacea for the impacts of climate change. •Effect of seagrass on oyster shell growth and extracellular pH at ambient pCO2•No effects of seagrass on oyster growth or extracellular pH at elevated pCO2•Microbiome of oysters was not affected by elevated pCO2.•Microbiome of seagrass was altered by elevated pCO2.•Seagrass may not modify the impacts of climate change.
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source ScienceDirect Journals (5 years ago - present)
subjects Acidification
Anthropogenic factors
Carbon dioxide
Climate change
Environmental impact
Human influences
Marine molluscs
Marine organisms
Mesocosms
Microbiome
Microbiomes
Ocean acidification
Oysters
Refuges
Refugia
Sea grasses
Seagrass
Seagrasses
Shellfish
title Can seagrass modify the effects of ocean acidification on oysters?
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