Feb. 19, 2026

DTEClimate at International Research Events

Presentations from DTEClimate Principal Investigator Prof. Mihai DATCU highlight recent advances for modelling geophysical extremes and digital twin technology. The event explored how digital twin technologies can be used to better understand the complex interactions between atmospheric, hydrological, and geological processes that drive extreme environmental events and climate-related risks.
extreme_events_3 Image from Vecteezy. For illustrative purposes only

The DTEClimate principal investigator recently presented key project advancements during an invited seminar at the Basque Centre for Climate Change (BC3), delivering a talk entitled “A Coupled Atmosphere–Hydrosphere–Lithosphere Digital Twin System: Physics-Based Explainable Artificial Intelligence Paradigm."

The presentation focused on techniques for integrating artificial intelligence with Earth observation data, including the use of counterfactual explanations in EO applications, explainable AI approaches to support climate change adaptation at human-activity scales, and physics-aware AI frameworks for analyzing data from diverse sensor networks. By integrating observational data with advanced modelling frameworks, such as digital twin systems, predictive capabilities can be improved. This offers better support for the monitoring of natural hazards and climate-driven phenomena.

Several case studies from the project were presented.

  • A first case study highlighted the role of AI methods in environmental research, particularly for analyzing complex multi-domain interactions across the atmosphere, hydrosphere, and lithosphere. The example of the 2024 exceptional meteorological event along Romania’s Black Sea coast was used for illustration, demonstrating the value of multi-source observations for enhancing monitoring and early warning of extreme weather.
  • A second case study focused on deriving environmental indicators from Sentinel-1 and Sentinel-2 data and examining their spatial and temporal relationships with meteorological variables such as wind, temperature, and precipitation.
  • In a third example, the virtual sensing approach was introduced: deep learning models trained on LiDAR measurements and satellite imagery were applied to estimate biophysical parameters such as forest canopy height.

A similar presentation has been delivered at the 2025 Big Data from Space (BiDS) conference organized between 29 September and 3 October 2025 in Riga, Latvia. This is a major biennial event focused on the intersection of large-scale satellite data, artificial intelligence, and cloud computing.

presentation_CoupledAtmosphereHydrosphereLithosphereDTxAI
Presentation title slide @BiDS25
BIDS25_4
BiDS25 Conference - Image Source: Flickr Latvian Ministry of Education and Science

DTEClimate, through its five specialized subprojects, contributes to supporting integrated climate adaptation strategies through advanced digital technologies and Earth Observation.

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