Coastal Crete: A Digital Twin of the Ocean for Oil Spill Identification and Forecasting

Developed within the Iliad Digital Twin of the Ocean (DTO) project, Coastal Crete provides advanced marine forecasting for oil spill detection and response. The system integrates satellite data, in-situ observations, and machine learning to predict oil spill trajectories and minimize environmental impacts. Using a multi-model approach, it combines WRF-DA, NEMO, and WAVEWATCH III models for high-resolution forecasts. Making use of Sentinel-1 SAR imagery, a deep learning approach was developed for near-real-time oil spill detection. The methodology is based on a U-net Neural Network, which is compared with the statistical methodology based on pythons’ SNAPpy library. The operational forecasting system employs MEDSLIK-II for oil spill transport modeling and visualization via the GeoMachine platform, ensuring rapid decision-making for marine safety and environmental protection.

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Publication Details

Published
2025-06-16
DOI
https://doi.org/10.1109/oceans58557.2025.11104538
Citations
1
Primary Topic
Oil Spill Detection and Mitigation
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article
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article

Coastal Crete: A Digital Twin of the Ocean for Oil Spill Identification and Forecasting

Miguel Velhote Correia, George Alexandrakis, Laura Vettorello, Vassiliki Metheniti et al.
1 citations
Oil Spill Detection and Mitigation
0.50
article

Coastal Crete: A Digital Twin of the Ocean for Oil Spill Identification and Forecasting

Miguel Velhote Correia, George Alexandrakis, Laura Vettorello, Vassiliki Metheniti, Maria Luisa Quarta, Nikolaos Kampanis, Antonios Parasyris, Georgios V. Kozyrakis, Marco Amaro Oliveira, Sabrina Outmani, Noemi Fazzini, J.F.W. Goddard, Simon Keeble
article en
1 citations

Abstract

Developed within the Iliad Digital Twin of the Ocean (DTO) project, Coastal Crete provides advanced marine forecasting for oil spill detection and response. The system integrates satellite data, in-situ observations, and machine learning to predict oil spill trajectories and minimize environmental impacts. Using a multi-model approach, it combines WRF-DA, NEMO, and WAVEWATCH III models for high-resolution forecasts. Making use of Sentinel-1 SAR imagery, a deep learning approach was developed for near-real-time oil spill detection. The methodology is based on a U-net Neural Network, which is compared with the statistical methodology based on pythons’ SNAPpy library. The operational forecasting system employs MEDSLIK-II for oil spill transport modeling and visualization via the GeoMachine platform, ensuring rapid decision-making for marine safety and environmental protection.

FORTH Institute of Applied and Computational Mathematics (GR), Beijing Meteorological Bureau (CN), INESC TEC (PT)
Life below water
Openalex Percentile: Top 36%
Oil Spill Detection and Mitigation
0.50
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Coastal Crete: A Digital Twin of the Ocean for Oil Spill Identification and Forecasting — Miguel Velhote Correia, George Alexandrakis, et al. · (2025) | TGRS Research Map | TGRS