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Paper · arXiv

Impact of geophysical fields on Deep Learning-based Lagrangian drift simulations

We assess the influence of different Eulerian geophysical input fields on Lagrangian drift simulations using DriftNet, a learning-based method designed to simulate Lagrangian drift on the sea surface. Two experiments are conducted: a fully numerical experiment (Benchmark B1) and a real-world drifters-based experiment (Benchmark B2). Both experiments are performed in two regions with different ocean dynamics: North East Pacific and Gulf Stream regions. The performance of DrifNet is evaluated with three different metrics: separation distance between simulated and ground-truth trajectories, the normalized cumulative Lagrangian separation and the autocorrelation of Lagrangian velocities. In b...

AuthorsDaria Botvynko, Carlos Granero-Belinchon, Simon Van Gennip et al.
Primary categoryphysics.ao-ph
Published27 March 2026
Last updated at source27 March 2026
physics.ao-phcs.AI
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