We examine ocean changes in response to changes in paleogeography from the Cretaceous to present in an intermediate complexity model and in the fully coupled CCSM3 model. Greenhouse gas concentrations are kept constant to allow a focus on effects arising from changing continental configurations. We find consistent and significant geography-related Cenozoic cooling arising from the opening of Southern Ocean (SO) gateways. Both models show significant deep ocean cooling arising from tectonic evolution alone. Simulations employing continental configurations associated with greenhouse climates, namely the Turonian and the Eocene simulations, systematically exhibit warm deep ocean temperatures at elevated pCO(2) close to 10 degrees C. In contras...
Global ocean circulation is strongly controlled by the formation and closing of oceanic basins and g...
The role of Southern Ocean gateways contributing to the Eocene-Oligocene climate transition is still...
Following the Early Eocene climatic optimum (EECO, ~55–50 Ma), climate deteriorated and gradually ch...
We examine ocean changes in response to changes in paleogeography from the Cretaceous to present in ...
We examine ocean changes in response to changes in paleogeography from the Cretaceous to present in ...
We examine ocean changes in response to changes in paleogeography from the Cretaceous to present in ...
We examine ocean changes in response to changes in paleogeography from the Cretaceous to present in ...
Abstract Declining atmospheric CO 2 concentrations are considered the primary driver for the Cenozoi...
Declining atmospheric CO2 concentrations are considered the primary driver for the Cenozoic Greenhou...
Declining atmospheric CO2 concentrations are considered the primary driver for the Cenozoic Greenhou...
Declining atmospheric CO2 concentrations are considered the primary driver for the Cenozoic Greenhou...
Declining atmospheric CO2 concentrations are considered the primary driver for the Cenozoic Greenhou...
Declining atmospheric CO2 concentrations are considered the primary driver for the Cenozoic Greenhou...
Declining atmospheric CO2 concentrations are considered the primary driver for the Cenozoic Greenhou...
Global ocean circulation is strongly controlled by the formation and closing of oceanic basins and g...
Global ocean circulation is strongly controlled by the formation and closing of oceanic basins and g...
The role of Southern Ocean gateways contributing to the Eocene-Oligocene climate transition is still...
Following the Early Eocene climatic optimum (EECO, ~55–50 Ma), climate deteriorated and gradually ch...
We examine ocean changes in response to changes in paleogeography from the Cretaceous to present in ...
We examine ocean changes in response to changes in paleogeography from the Cretaceous to present in ...
We examine ocean changes in response to changes in paleogeography from the Cretaceous to present in ...
We examine ocean changes in response to changes in paleogeography from the Cretaceous to present in ...
Abstract Declining atmospheric CO 2 concentrations are considered the primary driver for the Cenozoi...
Declining atmospheric CO2 concentrations are considered the primary driver for the Cenozoic Greenhou...
Declining atmospheric CO2 concentrations are considered the primary driver for the Cenozoic Greenhou...
Declining atmospheric CO2 concentrations are considered the primary driver for the Cenozoic Greenhou...
Declining atmospheric CO2 concentrations are considered the primary driver for the Cenozoic Greenhou...
Declining atmospheric CO2 concentrations are considered the primary driver for the Cenozoic Greenhou...
Declining atmospheric CO2 concentrations are considered the primary driver for the Cenozoic Greenhou...
Global ocean circulation is strongly controlled by the formation and closing of oceanic basins and g...
Global ocean circulation is strongly controlled by the formation and closing of oceanic basins and g...
The role of Southern Ocean gateways contributing to the Eocene-Oligocene climate transition is still...
Following the Early Eocene climatic optimum (EECO, ~55–50 Ma), climate deteriorated and gradually ch...