The North Atlantic Ocean is the most intense marine sink for anthropogenic carbon dioxide (CO2) in the world's oceans, showing high variability and substantial changes over recent decades. However, the contribution of biology to the variability and trend of this sink is poorly understood. Here we use in situ plankton measurements, alongside observation-based sea surface CO2 data from 1982 to 2020, to investigate the biological influence on the CO2 sink. Our results demonstrate that long term variability in the CO2 sink in the North Atlantic is associated with changes in phytoplankton abundance and community structure. These data show that within the subpolar regions of the North Atlantic, phytoplankton biomass is increasing, while a decreas...
The North Atlantic is one of the major ocean sinks for natural and anthropogenic atmospheric CO 2. G...
Shifts in global climate resonate in plankton dynamics, biogeochemical cycles, and marine food webs....
Marine phytoplankton are microscopic in size, but have substantial roles in the marine environment, ...
The North Atlantic Ocean is the most intense marine sink for anthropogenic carbon dioxide (CO2) in t...
The North Atlantic Ocean is the most intense marine sink for anthropogenic carbon dioxide (CO2)in th...
This study combines two invaluable datasets that have been collected on-board volunteer observing s...
The ocean is currently a significant net sink for anthropogenically remobilised CO2, taking up aroun...
The North Atlantic is a substantial sink for anthropogenic CO2. Understanding the mechanisms driving...
Marine carbon cycle processes are important for taking up atmospheric CO2 thereby reducing climate c...
The North Atlantic Oscillation (NAO) is a major mode of variability in the North Atlantic, dominatin...
Coccolithophores are the primary oceanic phytoplankton responsible for the production of calcium car...
Natural climate variability impacts the multi-decadal uptake of anthropogenic carbon dioxide (Cant) ...
International audienceShifts in global climate resonate in plankton dynamics, biogeochemical cycles,...
The North Atlantic Ocean accounts for about 25% of the global oceanic anthropogenic carbon sink. Thi...
© 2018 John Wiley & Sons Ltd Accumulation of anthropogenic CO2 is significantly altering ocean chemi...
The North Atlantic is one of the major ocean sinks for natural and anthropogenic atmospheric CO 2. G...
Shifts in global climate resonate in plankton dynamics, biogeochemical cycles, and marine food webs....
Marine phytoplankton are microscopic in size, but have substantial roles in the marine environment, ...
The North Atlantic Ocean is the most intense marine sink for anthropogenic carbon dioxide (CO2) in t...
The North Atlantic Ocean is the most intense marine sink for anthropogenic carbon dioxide (CO2)in th...
This study combines two invaluable datasets that have been collected on-board volunteer observing s...
The ocean is currently a significant net sink for anthropogenically remobilised CO2, taking up aroun...
The North Atlantic is a substantial sink for anthropogenic CO2. Understanding the mechanisms driving...
Marine carbon cycle processes are important for taking up atmospheric CO2 thereby reducing climate c...
The North Atlantic Oscillation (NAO) is a major mode of variability in the North Atlantic, dominatin...
Coccolithophores are the primary oceanic phytoplankton responsible for the production of calcium car...
Natural climate variability impacts the multi-decadal uptake of anthropogenic carbon dioxide (Cant) ...
International audienceShifts in global climate resonate in plankton dynamics, biogeochemical cycles,...
The North Atlantic Ocean accounts for about 25% of the global oceanic anthropogenic carbon sink. Thi...
© 2018 John Wiley & Sons Ltd Accumulation of anthropogenic CO2 is significantly altering ocean chemi...
The North Atlantic is one of the major ocean sinks for natural and anthropogenic atmospheric CO 2. G...
Shifts in global climate resonate in plankton dynamics, biogeochemical cycles, and marine food webs....
Marine phytoplankton are microscopic in size, but have substantial roles in the marine environment, ...