The Holocene North Atlantic deep-water formation is studied in a 9,000-year long simulation with a coupled climate model of intermediate complexity, forced by changes in orbital forcing and atmospheric trace gas concentrations. During the experiment, deep-water formation in the Nordic Seas is reduced due to an enhanced influx of sea ice from the Central Arctic, decreasing both surface salinity and density, whereas deep-water formation in the Labrador Sea increases due to sufface cooling. This leads to changes in the distribution of oceanic heat transported northwards by the Atlantic Ocean, with less heat released (-120 W
The stability of the Earth's climate is strongly linked to the steadiness of the atmospheric and oce...
High resolution flow speed reconstructions of two core sites located on Gardar Drift in the North Ea...
Geochemical profiles from the North Atlantic Ocean suggest that the vertical δ13C structure of the w...
The Holocene North Atlantic deep-water formation is studied in a 9,000-year long simulation with a c...
The Holocene North Atlantic deep-water formation is studied in a 9,000-year long simulation with a c...
[1] The Holocene North Atlantic deep-water formation is studied in a 9,000-year long simulation with...
In today's North Atlantic, warm and salty surface waters are transported northwards from the subtrop...
We study the variability and the evolution of oceanic deep convection in the northern North Atlantic...
The subpolar North Atlantic is a key location for the Earth’s climate system. In the Labrador Sea, i...
Abrupt decadal climate changes during the last glacial-interglacial cycle are less pronounced during...
The response of the climate at high northern latitudes to slowly changing external forcings was stud...
The coupled global atmosphere-ocean-vegetation model ECBilt-CLIO-VECODE is used to perform transient...
Constraining the response time of the climate system to changes in North Atlantic Deep Water (NADW) ...
International audienceAlthough the Last Interglacial (LIG) is often considered as a possible analogu...
The transition into the Holocene marks the last large, orbitally derived climatic event and ultimate...
The stability of the Earth's climate is strongly linked to the steadiness of the atmospheric and oce...
High resolution flow speed reconstructions of two core sites located on Gardar Drift in the North Ea...
Geochemical profiles from the North Atlantic Ocean suggest that the vertical δ13C structure of the w...
The Holocene North Atlantic deep-water formation is studied in a 9,000-year long simulation with a c...
The Holocene North Atlantic deep-water formation is studied in a 9,000-year long simulation with a c...
[1] The Holocene North Atlantic deep-water formation is studied in a 9,000-year long simulation with...
In today's North Atlantic, warm and salty surface waters are transported northwards from the subtrop...
We study the variability and the evolution of oceanic deep convection in the northern North Atlantic...
The subpolar North Atlantic is a key location for the Earth’s climate system. In the Labrador Sea, i...
Abrupt decadal climate changes during the last glacial-interglacial cycle are less pronounced during...
The response of the climate at high northern latitudes to slowly changing external forcings was stud...
The coupled global atmosphere-ocean-vegetation model ECBilt-CLIO-VECODE is used to perform transient...
Constraining the response time of the climate system to changes in North Atlantic Deep Water (NADW) ...
International audienceAlthough the Last Interglacial (LIG) is often considered as a possible analogu...
The transition into the Holocene marks the last large, orbitally derived climatic event and ultimate...
The stability of the Earth's climate is strongly linked to the steadiness of the atmospheric and oce...
High resolution flow speed reconstructions of two core sites located on Gardar Drift in the North Ea...
Geochemical profiles from the North Atlantic Ocean suggest that the vertical δ13C structure of the w...