In this paper, a variational method for removing positioning errors (PEs) from drifter trajectories is proposed. The technique is based on the assumption of statistical independence of the PEs and drifter accelerations. The method provides a realistic approximation to the probability density function of the accelerations while keeping the difference between the filtered and observed trajectories within the error bars of the positioning noise. Performance of the method is demonstrated in application to real data acquired during the Grand Lagrangian Deployment (GLAD) experiment in the Northern Gulf of Mexico in 2012
Abstract: We investigate sources of systematic error (bias) in acceleration statistics derived from ...
Abstract: An improved adaptive Huber filter algorithm is presented to model error and mea-surement n...
The Grand LAgrangian Deployment (GLAD) used multiscale sampling and GPS technology to observe time s...
In this paper, a variational method for removing positioning errors (PEs) from drifter trajectories ...
Lagrangian ocean drifters provide highly accurate approximations of ocean surface currents but are s...
The surface drifting buoys, or drifters, of the Global Drifter Program (GDP) are predominantly track...
The use of GNSS tracked Lagrangian drifters allows more realistic quantification of fluid motion and...
The Lagrangian separation distance between the endpoints of simulated and observed drifter trajector...
We used evolutionary computation to predict the trajectory of surface drifters. The data used to cre...
Methods of Lagrangian data assimilation (LaDA) require carefully chosen sites for optimal drifter de...
Commonplace in oceanography is the collection of ocean drifter posi-tions. Ocean drifters are device...
Drifters deployed in close proximity collectively provide a unique observational data set with which...
Results from recent deployments of surface drifters in the Baltic Sea are presented. For the first t...
Drifters deployed in close proximity collectively provide a unique observational data set with which...
ABSTRACT Satellite-tracked drifting buoys of the Global Drifter Program have drogues, centered at 15...
Abstract: We investigate sources of systematic error (bias) in acceleration statistics derived from ...
Abstract: An improved adaptive Huber filter algorithm is presented to model error and mea-surement n...
The Grand LAgrangian Deployment (GLAD) used multiscale sampling and GPS technology to observe time s...
In this paper, a variational method for removing positioning errors (PEs) from drifter trajectories ...
Lagrangian ocean drifters provide highly accurate approximations of ocean surface currents but are s...
The surface drifting buoys, or drifters, of the Global Drifter Program (GDP) are predominantly track...
The use of GNSS tracked Lagrangian drifters allows more realistic quantification of fluid motion and...
The Lagrangian separation distance between the endpoints of simulated and observed drifter trajector...
We used evolutionary computation to predict the trajectory of surface drifters. The data used to cre...
Methods of Lagrangian data assimilation (LaDA) require carefully chosen sites for optimal drifter de...
Commonplace in oceanography is the collection of ocean drifter posi-tions. Ocean drifters are device...
Drifters deployed in close proximity collectively provide a unique observational data set with which...
Results from recent deployments of surface drifters in the Baltic Sea are presented. For the first t...
Drifters deployed in close proximity collectively provide a unique observational data set with which...
ABSTRACT Satellite-tracked drifting buoys of the Global Drifter Program have drogues, centered at 15...
Abstract: We investigate sources of systematic error (bias) in acceleration statistics derived from ...
Abstract: An improved adaptive Huber filter algorithm is presented to model error and mea-surement n...
The Grand LAgrangian Deployment (GLAD) used multiscale sampling and GPS technology to observe time s...