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WP4

From DTO4OWE Wiki

WP4 – Data-driven models for forecasting, downscaling and data fusion

Overview

This Work Package develops data-driven Artificial Intelligence (AI) and Machine Learning (ML) methods to improve the quality, resolution, and computational efficiency of reanalysis and forecast products for offshore wind farm (OWF) applications. The objectives are: (i) To design AI methods for improved local forecasts and working window planning. (ii) To develop AI tools for downscaling coarse-resolution data. (iii) To create AI-based data-simulation fusion methods for reanalysis and bias correction. (iv) To implement AI-driven emulators to assess OWF impacts on sea ice.

WP4 bridges physical modelling and data science, providing fast and efficient surrogate solutions to support digital twin-based ocean forecasting and OWF impact assessments.


Lead and Participants

  • Lead partner: DMI
  • Co-lead: HEREON
  • Contributing partners: FMI, SINDBAD, NIVA, SMHI, all WP4 partners

WP4 Meeting Notes

WP4 Meeting Notes


Tasks

The WP4 is divided into four main tasks:

Description: Development of optimized wave forecast systems for OWF sites that integrate ML-based forecast error correction and ensemble generation. These models combine physical model outputs and observed data to produce improved site-specific forecasts and weather windows for OWF operations.

Description: Training of deep neural networks (CNNs, GANs) to downscale low-resolution model outputs to fine-scale OWF-relevant domains. The resulting tools will provide high-resolution, low-cost forecasts for decision-making at local OWF sites.

Description: Fusion of observations and model data using advanced AI algorithms such as 4DVarNet for improving reanalysis quality and bias correction of climate simulations. Includes: – WP4.T3.1 – Data fusion for improving reanalysis – WP4.T3.2 – Bias correction for climate simulations

Description: Development of deep learning emulators (CNNs, GNNs) to reproduce sub-kilometer-scale sea ice states influenced by OWFs. These models will help assess physical impacts of turbine foundations on ice dynamics.



Source: DTO4OWE Full Proposal – Research Programme (Work Packages and Tasks).