Enhancing Ocean Monitoring for Coastal Communities Using AI

Coastal communities and marine ecosystems face increasing risks due to changing ocean conditions, yet effective wave monitoring remains limited in many low-resource regions. This study investigates the use of seismic data to predict significant wave height (SWH), offering a low-cost and scalable solution to support coastal conservation and safety. We developed a baseline machine learning (ML) model and improved it using a longest-stretch algorithm for seismic data selection and station-specific hyperparameter tuning. Models were trained and tested on consumer-grade hardware to ensure accessibility and availability. Applied to the Sicily–Malta region, the enhanced models achieved up to a 0.133 increase in R2 and a 0.026 m reduction in mean absolute error compared to existing baselines. These results demonstrate that seismic signals, typically collected for geophysical purposes, can be repurposed to support ocean monitoring using accessible artificial intelligence (AI) tools. The approach may be integrated into conservation planning efforts such as early warning systems and ecosystem monitoring frameworks. Future work may focus on improving robustness in data-sparse areas through augmentation techniques and exploring broader applications of this method in marine and coastal sustainability contexts.

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Publication Details

Journal
Applied Sciences
Published
2025-09-28
DOI
https://doi.org/10.3390/app151910490
Primary Topic
Underwater Acoustics Research
Type
article
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article

Enhancing Ocean Monitoring for Coastal Communities Using AI

Adam Gauci, Kristian Guillaumier, Eleanor Bailey
Applied Sciences
Underwater Acoustics Research
article

Enhancing Ocean Monitoring for Coastal Communities Using AI

Adam Gauci, Kristian Guillaumier, Eleanor Bailey
article en

Abstract

Coastal communities and marine ecosystems face increasing risks due to changing ocean conditions, yet effective wave monitoring remains limited in many low-resource regions. This study investigates the use of seismic data to predict significant wave height (SWH), offering a low-cost and scalable solution to support coastal conservation and safety. We developed a baseline machine learning (ML) model and improved it using a longest-stretch algorithm for seismic data selection and station-specific hyperparameter tuning. Models were trained and tested on consumer-grade hardware to ensure accessibility and availability. Applied to the Sicily–Malta region, the enhanced models achieved up to a 0.133 increase in R2 and a 0.026 m reduction in mean absolute error compared to existing baselines. These results demonstrate that seismic signals, typically collected for geophysical purposes, can be repurposed to support ocean monitoring using accessible artificial intelligence (AI) tools. The approach may be integrated into conservation planning efforts such as early warning systems and ecosystem monitoring frameworks. Future work may focus on improving robustness in data-sparse areas through augmentation techniques and exploring broader applications of this method in marine and coastal sustainability contexts.

Applied SciencesVol. 15(19)
University of Malta (MT)
Openalex Percentile: Top 73%
Underwater Acoustics Research
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Enhancing Ocean Monitoring for Coastal Communities Using AI — Adam Gauci, Kristian Guillaumier, et al. · Applied Sciences (2025) | TGRS Research Map | TGRS