Abstract The seasonal cycle is the dominant mode of variability in the air‐sea CO 2 flux in most regions of the global ocean, yet discrepancies between different seasonality estimates are rather large. As part of the Regional Carbon Cycle Assessment and Processes phase 2 project (RECCAP2), we synthesize surface ocean p CO 2 and air‐sea CO 2 flux seasonality from models and observation‐based estimates, focusing on both a present‐day climatology and decadal changes between the 1980s and 2010s. Four main findings emerge: First, global ocean biogeochemistry models (GOBMs) and observation‐based estimates ( p CO 2 products) of surface p CO 2 seasonality disagree in amplitude and phase, primarily due to discrepancies in the seasonal variability in...
Improved sampling technologies, international observing networks, and data synthesis efforts are pro...
International audienceThe Southern Ocean (44° S-75° S) plays a critical role in the global carbon cy...
International audienceOur understanding of how increasing atmospheric CO2 and climate change influen...
The seasonal cycle is the dominant mode of variability in the air-sea CO₂ flux in most regions of th...
Interannual variability of the ocean carbon sink is often assessed using annual air–sea carbon fluxe...
The global ocean has absorbed approximately 30% of anthropogenic CO2 since the beginning of the indu...
We quantify the mechanisms governing interannual variability in the global, upper-ocean inorganic ca...
Observations and climate models indicate that changes in the seasonal amplitude of sea surface carbo...
It has become clear that anthropogenic carbon invasion into the surface ocean drives changes in the ...
Abstract Quantifying variability in the ocean carbon sink remains problematic due to sparse observat...
The increase of atmospheric CO2 (ref. 1) has been predicted to impact the seasonal cycle of inorgani...
The enhanced seasonal amplitude of atmospheric CO2 has been viewed so far primarily as a Northern He...
[1] Climate variability drives significant changes in the physical state of the North Pacific, and t...
The complexities of the marine carbon cycle continue to be uncovered. In this issue, Fassbender et a...
Improved sampling technologies, international observing networks, and data synthesis efforts are pro...
International audienceThe Southern Ocean (44° S-75° S) plays a critical role in the global carbon cy...
International audienceOur understanding of how increasing atmospheric CO2 and climate change influen...
The seasonal cycle is the dominant mode of variability in the air-sea CO₂ flux in most regions of th...
Interannual variability of the ocean carbon sink is often assessed using annual air–sea carbon fluxe...
The global ocean has absorbed approximately 30% of anthropogenic CO2 since the beginning of the indu...
We quantify the mechanisms governing interannual variability in the global, upper-ocean inorganic ca...
Observations and climate models indicate that changes in the seasonal amplitude of sea surface carbo...
It has become clear that anthropogenic carbon invasion into the surface ocean drives changes in the ...
Abstract Quantifying variability in the ocean carbon sink remains problematic due to sparse observat...
The increase of atmospheric CO2 (ref. 1) has been predicted to impact the seasonal cycle of inorgani...
The enhanced seasonal amplitude of atmospheric CO2 has been viewed so far primarily as a Northern He...
[1] Climate variability drives significant changes in the physical state of the North Pacific, and t...
The complexities of the marine carbon cycle continue to be uncovered. In this issue, Fassbender et a...
Improved sampling technologies, international observing networks, and data synthesis efforts are pro...
International audienceThe Southern Ocean (44° S-75° S) plays a critical role in the global carbon cy...
International audienceOur understanding of how increasing atmospheric CO2 and climate change influen...