The currents, the sea level, and the transport of material (pollutants and nutrients, for example) in the Wadden Sea depend in a complex way on the forcing: the tides, the wind, the atmospheric pressure, and the fresh water discharged from Lake IJssel. It is possible to model these complex interactions using simulations, but these simulations are expensive. They usually have to be run hundreds of computing cores over several days. This is problematic, for example, for predictions of the future of the Wadden Sea
under several distinct climate change scenarios. In this project, we look at the possibilities of using Machine Learning to predict certain quantities that characterize the hydrodynamic response of the Wadden Sea as a function of the forcing conditions. We use a particular type of Recurrent Neural Networks (RNN) called long-short-term memory (LSTM) RNN. The advantage of this type of RNN is that it can process sequences of data. This is crucial because the state of the Wadden Sea at any given time depends not only on the
forcing at that time but also on the state and the forcing in the immediate past. To train and test the network, we use data from a simulation spanning 36 years into the past. In general, the RNN LSTM models can recover the most important features. Further research needs to be done still to improve the ML to be use for future prediction.
Machine Learning for the complex response of the Wadden Sea
Machine learning for modelling complex interactions in the Wadden Sea
Participating organisations
Impact
- 1.Author(s): A. Verdy, S. T. Gille, B. D. Cornuelle, G. Gopalakrishnan, M. R. MazloffPublished in 202610.1029/2025ea004931
- 2.Author(s): Lulu Hao, Xiao Qin, Xiaoli ChenPublished in 202610.3390/pr14071036
- 3.Author(s): Tor Nordam, Ana J. Abascal, Germán Aragón, Hossein Babaei, Christopher H. Barker, Kuo-Hsien Chang, Knut-Frode Dagestad, Rodrigo Duran, Deborah French-McCay, Melissa Gloekler, Panagiota Keramea, Sébastien Legrand, Angelo T. Lemos, Yuehua Lin, Svitlana Liubartseva, Rabab Mashayekhi, Gabrielle McGrath, Arsalan Mostaani, Rachael D. Mueller, Don J. Pettit, Jørgen Skancke, Yang Song, Georgios Sylaios, Daniel Constantino Zacharias, George ZodiatisPublished in 202610.1016/j.ocemod.2026.102806
- 4.Author(s): Seung-Yeol Hong, Yong-Hyuk KimPublished in 202610.3390/jmse14201886
- 5.Author(s): Jimena Medina-Rubio, Madlene Nussbaum, Ton S. van den Bremer, Erik van SebillePublished in 202610.5194/os-22-49-2026
- 6.Author(s): Ismail Oubarka, Imad Kissami, Eric DeleersnijderPublished in 202610.1016/j.matcom.2026.03.008
- 7.Author(s): Yang Song, Ayumi Fujisaki-Manome, David M. Wright, Stacey Naeemullah, Jia Wang, Dan TitzePublished in 202610.1016/j.oceaneng.2026.125783
- 8.Author(s): Yuan Yao, Wending Xu, Haoxin FanPublished in 202510.3390/toxics13121018
- 9.Author(s): Betty John Kaimathuruthy, Isabel Jalón-Rojas, Damien SousPublished in 202510.5194/gmd-18-7227-2025
- 10.Author(s): Taehun Kim, Seulhee Kwon, Yong-Hyuk KimPublished in 202510.3390/jmse13101928
- 11.Author(s): Yuanshu Jiang, Yingtao Zhou, Juntong ZhangPublished in 202510.3390/w17233383
- 12.Author(s): Pablo Vallés, Mario Morales-Hernández, Volker Roeber, Pilar García-Navarro, Daniel Caviedes-VoullièmePublished in 202510.5194/gmd-18-7399-2025
- 13.Author(s): Jeancarlo M. Fajardo-Urbina, Ulf Gräwe, Herman J.H. Clercx, Theo Gerkema, Matias Duran-MatutePublished in 202510.1016/j.csr.2025.105602
Output
- 1.Author(s): Jeancarlo M. Fajardo-Urbina, Yang Liu, Sonja Georgievska, Ulf Gräwe, Herman J.H. Clercx, Theo Gerkema, Matias Duran-MatutePublished by Elsevier BV in 202410.2139/ssrn.4815334
- 2.Author(s): Jeancarlo M. Fajardo-Urbina, Yang Liu, Ulf Gräwe, Sonja Georgievska, Meiert W. Grootes, Herman J.H. Clercx, Theo Gerkema, Matias Duran-MatutePublished by Copernicus GmbH in 202310.5194/egusphere-egu23-6537
Team
Contact person
MDM
Matias Duran Matute
Meiert Grootes