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Auteurs principaux: Carlot, J, Comeau, S, Chiarore, A, Mirasole, A, Alliouane, S, Micheli, F, Hurd, C L, Gattuso, J-P, Teixidó, N
Format: Artículo científico
Langue:en
Publié: Ecology letters 2026
Sujets:
Accès en ligne:https://pubmed.ncbi.nlm.nih.gov/41933433/
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author Carlot, J
Comeau, S
Chiarore, A
Mirasole, A
Alliouane, S
Micheli, F
Hurd, C L
Gattuso, J-P
Teixidó, N
author_facet Carlot, J
Comeau, S
Chiarore, A
Mirasole, A
Alliouane, S
Micheli, F
Hurd, C L
Gattuso, J-P
Teixidó, N
Carlot, J
Comeau, S
Chiarore, A
Mirasole, A
Alliouane, S
Micheli, F
Hurd, C L
Gattuso, J-P
Teixidó, N
collection PubMed - marine biology
contents Unravelling Marine Benthic Functioning Shifts Under Ocean Acidification. Carlot, J Comeau, S Chiarore, A Mirasole, A Alliouane, S Micheli, F Hurd, C L Gattuso, J-P Teixidó, N Seawater Hydrogen-Ion Concentration Oceans and Seas Biodiversity Biomass Aquatic Organisms Carbon Dioxide Ecosystem Photosynthesis Animals Calcification, Physiologic Ocean Acidification Ocean acidification (OA) driven by increasing atmospheric CO is altering marine biodiversity. However, impacts of OA on ecosystem functioning at the community level, including calcification, primary production and nutrient uptake, remain largely unknown. Here, we conducted community transplant experiments at natural CO vents to assess how declining pH affects marine community species composition, biomass, and key ecosystem processes over time. Our results indicate that community shifts caused by declining pH lead to decreased biomass and calcification rates, while photosynthesis and nutrient uptake rates increased. By leveraging OA field model systems and in situ measurements of ecosystem functioning, this study provides critical insights into how OA-induced biodiversity loss reshapes the structure and functioning of temperate marine coastal ecosystems.
format Artículo científico
id pubmed_41933433
institution PubMed
language en
publishDate 2026
publisher Ecology letters
record_format pubmed
spellingShingle Unravelling Marine Benthic Functioning Shifts Under Ocean Acidification.
Carlot, J
Comeau, S
Chiarore, A
Mirasole, A
Alliouane, S
Micheli, F
Hurd, C L
Gattuso, J-P
Teixidó, N
Seawater
Hydrogen-Ion Concentration
Oceans and Seas
Biodiversity
Biomass
Aquatic Organisms
Carbon Dioxide
Ecosystem
Photosynthesis
Animals
Calcification, Physiologic
Ocean Acidification
Unravelling Marine Benthic Functioning Shifts Under Ocean Acidification. Carlot, J Comeau, S Chiarore, A Mirasole, A Alliouane, S Micheli, F Hurd, C L Gattuso, J-P Teixidó, N Seawater Hydrogen-Ion Concentration Oceans and Seas Biodiversity Biomass Aquatic Organisms Carbon Dioxide Ecosystem Photosynthesis Animals Calcification, Physiologic Ocean Acidification Ocean acidification (OA) driven by increasing atmospheric CO is altering marine biodiversity. However, impacts of OA on ecosystem functioning at the community level, including calcification, primary production and nutrient uptake, remain largely unknown. Here, we conducted community transplant experiments at natural CO vents to assess how declining pH affects marine community species composition, biomass, and key ecosystem processes over time. Our results indicate that community shifts caused by declining pH lead to decreased biomass and calcification rates, while photosynthesis and nutrient uptake rates increased. By leveraging OA field model systems and in situ measurements of ecosystem functioning, this study provides critical insights into how OA-induced biodiversity loss reshapes the structure and functioning of temperate marine coastal ecosystems.
title Unravelling Marine Benthic Functioning Shifts Under Ocean Acidification.
topic Seawater
Hydrogen-Ion Concentration
Oceans and Seas
Biodiversity
Biomass
Aquatic Organisms
Carbon Dioxide
Ecosystem
Photosynthesis
Animals
Calcification, Physiologic
Ocean Acidification
url https://pubmed.ncbi.nlm.nih.gov/41933433/