International audienceThe mean dynamic topography (MDT) is a key reference surface for altimetry. It is needed for the calculation of the ocean absolute dynamic topography, and under the geostrophic approximation, the estimation of surface currents. CNES-CLS mean dynamic topography (MDT) solutions are calculated by merging information from altimeter data, GRACE, and GOCE gravity field and oceanographic in situ measurements (drifting buoy velocities, hydrological profiles). The objective of this paper is to present the newly updated CNES-CLS18 MDT. The main improvement compared to the previous CNES-CLS13 solution is the use of updated input datasets: the GOCO05S geoid model is used based on the complete GOCE mission (November 2009-October 20...
In anticipation of the future observations of the gravity mission Gravity Field and Steady-State Oce...
The Gravity Field and Steady-State Ocean Circulation Explorer (GOCE) and satellite altimetry can pro...
The Gravity Field and Steady-State Ocean Circulation Explorer (GOCE) and satellite altimetry can pro...
International audienceThe mean dynamic topography (MDT) is a key reference surface for altimetry. It...
Initially, existing mean dynamic topography (MDT) models were collected and reviewed. The models wer...
The surface geostrophic currents (SGC) can be derived via the principle of geostrophy from the dynam...
The ocean mean dynamic topography (MDT) is the surface representation of the ocean circulation. The ...
Mean dynamic topography (MDT) is crucial for research in oceanography and climatology. The optimal i...
Presented here are three mean dynamic topography maps derived with different methodologies. The firs...
Precise knowledge of the oceanic Mean Dynamic Topography (MDT) is crucial for a number of geodetic a...
Geostrophic surface velocities can be derived from the gradients of the mean dynamic topography-the ...
A mean dynamic ocean topography (MDT) has been computed using a high resolution GOCE (Gravity field ...
The Gravity Field and Steady-State Ocean Circulation Explorer (GOCE) and satellite altimetry can pro...
In anticipation of the future observations of the gravity mission Gravity Field and Steady-State Oce...
The Gravity Field and Steady-State Ocean Circulation Explorer (GOCE) and satellite altimetry can pro...
The Gravity Field and Steady-State Ocean Circulation Explorer (GOCE) and satellite altimetry can pro...
International audienceThe mean dynamic topography (MDT) is a key reference surface for altimetry. It...
Initially, existing mean dynamic topography (MDT) models were collected and reviewed. The models wer...
The surface geostrophic currents (SGC) can be derived via the principle of geostrophy from the dynam...
The ocean mean dynamic topography (MDT) is the surface representation of the ocean circulation. The ...
Mean dynamic topography (MDT) is crucial for research in oceanography and climatology. The optimal i...
Presented here are three mean dynamic topography maps derived with different methodologies. The firs...
Precise knowledge of the oceanic Mean Dynamic Topography (MDT) is crucial for a number of geodetic a...
Geostrophic surface velocities can be derived from the gradients of the mean dynamic topography-the ...
A mean dynamic ocean topography (MDT) has been computed using a high resolution GOCE (Gravity field ...
The Gravity Field and Steady-State Ocean Circulation Explorer (GOCE) and satellite altimetry can pro...
In anticipation of the future observations of the gravity mission Gravity Field and Steady-State Oce...
The Gravity Field and Steady-State Ocean Circulation Explorer (GOCE) and satellite altimetry can pro...
The Gravity Field and Steady-State Ocean Circulation Explorer (GOCE) and satellite altimetry can pro...