An ocean simulation of the “greenhouse” climate of the Late Cretaceous, about 80 million years ago (Ma), demonstrates that warm salty deep water, consistent with proxy climate data, can be formed by cooling in the high latitude Southern Hemisphere. This is contrary to the long standing hypothesis of deep water formation due to evaporation over low latitude marginal seas. A reduced equator to pole temperature gradient is maintained with a poleward ocean heat transport that is not larger than today\u27s
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 ...
An ocean simulation of the “greenhouse” climate of the Late Cretaceous, about 80 million years ago (...
The question of whether deep water formation might have occurred in subtropical latitudes in the ear...
The question of whether deep water formation might have occurred in subtropical latitudes in the ear...
Modern thermohaline circulation plays a role in latitudinal heat transport and in deep-ocean ventila...
Modern thermohaline circulation plays a role in latitudinal heat transport and in deep-ocean ventila...
The question of whether deep water formation might have occurred in subtropical latitudes in the ear...
The role that meridional overturning circulation (MOC) patterns played in poleward heat transport du...
Stable isotopic data from benthic foraminifera indicate the occurence of at least three deepwater ma...
The question of whether deep water formation might have occurred in subtropical latitudes in the ear...
During the mid-Cretaceous period, the global subsurface oceans were relatively warm, but the origins...
Constraining deep-ocean circulation during past greenhouse climatic periods, such as the Cretaceous,...
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 ...
An ocean simulation of the “greenhouse” climate of the Late Cretaceous, about 80 million years ago (...
The question of whether deep water formation might have occurred in subtropical latitudes in the ear...
The question of whether deep water formation might have occurred in subtropical latitudes in the ear...
Modern thermohaline circulation plays a role in latitudinal heat transport and in deep-ocean ventila...
Modern thermohaline circulation plays a role in latitudinal heat transport and in deep-ocean ventila...
The question of whether deep water formation might have occurred in subtropical latitudes in the ear...
The role that meridional overturning circulation (MOC) patterns played in poleward heat transport du...
Stable isotopic data from benthic foraminifera indicate the occurence of at least three deepwater ma...
The question of whether deep water formation might have occurred in subtropical latitudes in the ear...
During the mid-Cretaceous period, the global subsurface oceans were relatively warm, but the origins...
Constraining deep-ocean circulation during past greenhouse climatic periods, such as the Cretaceous,...
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 ...