Marine Environment Numerical Simulation and Artificial Intelligence

A Special Issue of Journal of Marine Science and Engineering (ISSN 2077-1312) belonging to the section "Physical Oceanography".

Deadline for manuscript submissions: 1 November 2026 | Viewed by 1317

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Guest Editor
College of Engineering, Ocean University of China, Qingdao 266100, China
Interests: ocean dynamics; numerical simulation; artificial intelligence
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Special Issue Information

Dear Colleagues,

The marine environment underpins the sustainability, safety, and efficiency of human activities in marine and coastal areas. Understanding its complex interactions is not only critical to preventing structural failures that could lead to catastrophic economic losses and environmental disasters, but also essential to advancing sustainable ocean development in line with global climate and energy goals. Accurate numerical simulation therefore becomes an indispensable tool for predicting ocean states, assessing risks, and designing resilient marine infrastructure. However, conventional numerical models face long-standing challenges: sparse in-situ observations limit model initialization and validation, subgrid-scale processes rely on semi-empirical parameterizations with substantial uncertainties, and high-fidelity simulations demand prohibitive computational resources.

Artificial intelligence, particularly deep learning, brings revolutionary improvements to marine numerical simulation and the observational systems that feed it, effectively addressing the pain points of traditional methods such as high observation costs, data sparsity, and inaccurate physical parameterizations. In terms of observation, AI can reconstruct missing data and filter out noise, supplying richer inputs for model forcing and assimilation. In simulation, deep learning‑based surrogate models compress traditional computation from hours to milliseconds, enabling real-time forecasting and rapid uncertainty quantification, while also learning to improve subgrid parameterization schemes directly from high-resolution data. Data assimilation—the fusion of models and observations—is dramatically accelerated by AI-based emulators and learned error covariances. Furthermore, physics‑guided AI and hybrid modeling ensure that prediction results obey physical conservation laws while maintaining the flexibility of data‑driven approaches, offering a new paradigm that combines the robustness of first principles with the pattern‑recognition power of neural networks.

This Special Issue aims to present and disseminate the most recent advances related to the marine environment, focusing on marine environmental observation, numerical simulation of marine environment, structural resilience under extreme marine events, and artificial intelligence prediction. We consider contributions addressing theoretical and experimental, and numerical studies on marine environmental observation and data reconstruction; numerical simulation of marine environments and fluid–structure–seabed interactions; structural resilience under extreme marine events, including failure mechanisms, risk assessment, and resilient design; and artificial intelligence prediction methods—such as physics-informed machine learning, deep learning-based surrogate models, and AI-enhanced data assimilation—to advance the understanding and forecasting of marine environments.

Prof. Dr. Zhifeng Wang
Guest Editor

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Keywords

  • ocean environmental observations
  • artificial intelligence
  • numerical simulation
  • physical modelling experiment
  • fluid-structure interaction
  • marine environment
  • marine environmental design parameters

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Published Papers (3 papers)

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Research

25 pages, 6384 KB  
Article
Validation-Guided Development of a Virtual Buoy for Coastal Wave Reconstruction: Feature Ablation and Historical High-Wave-Event Augmentation
by Bin-Da Yang and Chia-An Han
J. Mar. Sci. Eng. 2026, 14(18), 1710; https://doi.org/10.3390/jmse14181710 - 15 Sep 2026
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Abstract
Reliable nearshore wave information is essential for harbor engineering, coastal-hazard mitigation, and marine operations, yet field observations are often limited by sparse monitoring networks, data gaps, and few high-wave samples. Using hourly observations from three marine stations and one tide gauge, this study [...] Read more.
Reliable nearshore wave information is essential for harbor engineering, coastal-hazard mitigation, and marine operations, yet field observations are often limited by sparse monitoring networks, data gaps, and few high-wave samples. Using hourly observations from three marine stations and one tide gauge, this study develops a multi-station virtual-buoy framework to reconstruct significant wave height, peak period, and wave direction. Random Forest is used as the primary model, and an independent validation set guides comparisons of feature modules, coordinate representations, lagged inputs, static spatial features, and alternative algorithms; the test set is retained for final hold-out evaluation. Validation results show that wave and wind inputs form a consistently competitive configuration: wind provides the most consistent auxiliary benefit, although the absolute improvements are generally modest, whereas current and tide provide limited and less consistent additional benefit. Hs is comparatively less sensitive to lag configuration, whereas Tp and Dir benefit more consistently from short-term lagged inputs; static features add little. Historical high-wave-event-window augmentation substantially improves Hs reconstruction during unseen high-wave events, although the most severe peak remains underestimated. Overall, validation-guided feature selection and targeted historical-event augmentation improve reconstruction under both ordinary and high-wave conditions while retaining a relatively simple model architecture. Full article
(This article belongs to the Special Issue Marine Environment Numerical Simulation and Artificial Intelligence)
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20 pages, 2813 KB  
Article
Three-Dimensional Thermohaline Field Forecast Using a Numerical Model Assimilating AI-Reconstructed Parameters in the Western Indian Ocean
by Qi Yang, Dianjun Zhang, Jun Wang, Ruixue Xia and Xuefeng Zhang
J. Mar. Sci. Eng. 2026, 14(13), 1214; https://doi.org/10.3390/jmse14131214 - 30 Jun 2026
Viewed by 334
Abstract
Accurate three-dimensional temperature and salinity initial fields are essential for regional short-term ocean forecasting, but subsurface constraints remain limited in the Western Indian Ocean because in situ profiles are sparse and satellite observations mainly describe the sea surface. This study evaluated a method [...] Read more.
Accurate three-dimensional temperature and salinity initial fields are essential for regional short-term ocean forecasting, but subsurface constraints remain limited in the Western Indian Ocean because in situ profiles are sparse and satellite observations mainly describe the sea surface. This study evaluated a method to improve short-term forecasts by assimilating pretrained language model (PLM)-reconstructed thermohaline fields into the Finite Volume Community Ocean Model with a three-dimensional variational data assimilation scheme (FVCOM–3DVAR). The method was applied to the Western Indian Ocean, covering 15° S–10° N, 33° E–60° E. A non-assimilation control experiment (Control_run), Modular Ocean Data Assimilation System assimilation (MODAS_ass), and PLM reconstructed-field assimilation (PLM_ass) were conducted to evaluate the forecast performance with 5-day rolling forecasts. World Ocean Database (WOD) profiles were used for profile-based validation, and Copernicus Marine Environment Monitoring Service (CMEMS) gridded fields were used for spatially continuous reference evaluation in February, May, August, and November 2021. The results demonstrated that PLM_ass produced lower temperature and salinity root-mean-square errors (RMSEs) than Control_run and MODAS_ass at most depths and lead times. Relative to Control_run, PLM_ass reduced mean temperature RMSE by 28.0% at 100–200 m and mean salinity RMSE by 23.5% at 0–100 m; compared with MODAS_ass, the reductions were approximately 16.6% and 14.2%, respectively. Spatial diagnostics showed variable-, depth-, and region-dependent impacts with the most robust improvement in thermocline temperature forecasts. This study provides a feasible pathway for incorporating AI-reconstructed subsurface information into regional ocean forecasting systems under sparse observation conditions. Full article
(This article belongs to the Special Issue Marine Environment Numerical Simulation and Artificial Intelligence)
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22 pages, 2153 KB  
Article
Optimization of ROMS Parameterization Schemes for Ocean Current Simulation in the Western Guangdong Sea Areas Using Observation Data
by Yudong Feng, Chao Li, Pengcheng Ma and Zhifeng Wang
J. Mar. Sci. Eng. 2026, 14(11), 1061; https://doi.org/10.3390/jmse14111061 - 5 Jun 2026
Viewed by 473
Abstract
Located in the northern South China Sea (SCS), the Guangdong Sea areas exhibit a highly complex hydrodynamic structure driven by the combined effects of tides, monsoons, and offshore current systems, serving as a core region for China’s marine economy and offshore engineering. Although [...] Read more.
Located in the northern South China Sea (SCS), the Guangdong Sea areas exhibit a highly complex hydrodynamic structure driven by the combined effects of tides, monsoons, and offshore current systems, serving as a core region for China’s marine economy and offshore engineering. Although the Regional Ocean Modeling System (ROMS) is widely applied in current simulations, its accuracy is often constrained by the inadequate adaptability of its parameterization schemes to the regional environment. Furthermore, systematic parameter optimization tailored to this specific domain remains scarce. To address these limitations, this study conducts an observation-driven parameter optimization for surface current simulations in the western Guangdong Sea areas, aiming to enhance the reliability of hydrodynamic simulations and forecasting. A three-dimensional ROMS hydrodynamic model was employed to systematically design 18 physical parameterization experiments. The model’s performance was rigorously evaluated against 26 h continuous in situ current measurements from four observation stations, utilizing statistical metrics including the correlation coefficient (R), root mean square error (RMSE), Taylor diagrams, and the MMS standardized evaluation. The results indicate that the Mellor–Yamada vertical mixing scheme yields the optimal regional adaptability. For horizontal diffusion, the biharmonic scheme outperforms the Laplacian approach. Regarding bottom friction, the logarithmic formulation demonstrates superior accuracy compared to the quadratic and linear schemes, with the latter proven unsuitable for this region. A comprehensive evaluation identifies the ‘MY–Biharmonic–Logarithmic’ combination as the optimal parameterization configuration for the western Guangdong Sea areas. This study establishes an adaptable ROMS parameterization framework for the western Guangdong Sea areas and elucidates the influence mechanisms of key physical parameters on simulation outcomes. These findings not only provide high-precision hydrodynamic support for short-term pollutant dispersion forecasting, and disaster mitigation in this region but also offer valuable methodological references for numerical modeling in the broader SCS and analogous complex coastal environments. Full article
(This article belongs to the Special Issue Marine Environment Numerical Simulation and Artificial Intelligence)
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