Predict ocean currents and power tsunami early-warning with AI.
AI for Ocean Currents & Tsunami Early-Warning shows how machine learning strengthens our ability to forecast the ocean and warn of its most dangerous events. You learn to work with oceanographic and seismic data, model ocean currents and dynamics, and build systems that detect tsunami signals early and estimate risk. The course connects these to the life-or-death demands of early-warning systems — speed, reliability and low false-alarm rates. You finish able to reason about an AI approach to ocean forecasting and hazard warning. A verified e-Certificate of competency and e-Marksheet from the Deep Science & Technology Consortium.
This course applies AI to ocean currents and tsunami early-warning — modelling ocean dynamics and detecting tsunami signals for faster, more reliable warnings.
1. Work with oceanographic and seismic data.
2. Model ocean currents and dynamics.
3. Detect tsunami signals early.
4. Estimate hazard and risk.
5. Design for warning speed and reliability.
• Oceanographers and geoscientists
• Disaster-risk and early-warning professionals
• Environmental data scientists
• Students of ocean and hazard science
• An understanding of AI in ocean forecasting.
• A hazard early-warning perspective.
• An ocean-data project.
• A verified e-Certificate of competency and e-Marksheet from the Deep Science & Technology Consortium.
Explore various ocean observations: Buoys/DART, HF radar, and satellite altimetry (SSH). • Understand data formats (NetCDF/Zarr), coordinates, and gridding for coastal domains. • Grasp physical basics of shallow-water intuition, bathymetry, and boundaries. • Compare ML landscape: baselines (persistence/AR) vs. advanced models like PINNs and Neural Operators (FNO).
Examine the essentials of Data Assimilation: EnKF/3D-Var intuition, analysis increments, and observation error. • Implement sequence models for marine time series data, including encoder–decoder transformers and SSMs, addressing masking and missing data. • Learn uncertainty and calibration techniques: ensembles, heteroscedastic outputs, and conformal prediction; assess coverage and CRPS. • Assimilate an HF-radar snapshot into yesterday’s state and visualize the resulting analysis increments.
Detect tsunami signals from DART/Tide Gauges: detrending, anomaly scoring, and ensuring robustness to noise/clock drift. • Estimate Tsunami ETA and communicate warnings effectively, including uncertainty bands and practical reporting. • Design alert mechanisms considering precision–recall vs. ROC, class imbalance, cost–loss analysis, and tiering (Advisory/Watch/Warning). • Detect tsunami-like anomalies and accurately estimate ETA with uncertainty bands.
| Parameter | Requirement |
|---|---|
| Covered Tool / Platform | Python |
| Covered Tool / Platform | NetCDF |
| Covered Tool / Platform | Zarr |
| Covered Tool / Platform | PINNs |
| Covered Tool / Platform | FNOs |
| Covered Tool / Platform | Encoder-Decoders |
| Covered Tool / Platform | EnKF/3D-Var |
| Covered Tool / Platform | Conformal Prediction |
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