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SEED project logo: a boot drawn as a network graph with a sprouting plant
Research project · 2025–2026

SEED: Spatiotemporal Explainable Geospatial Artificial Intelligence for Extreme Events and Their Drivers

SEED develops a spatiotemporal explainability framework to identify and understand the key drivers of extreme events, in particular droughts and heatwaves, as learned by existing deep learning models for extreme event detection, creating an interpretable foundation for climate geo-intelligence.

Funding
UC3M Programa Propio de Investigación — Ayudas para jóvenes doctores/as (2025)
Principal Investigator
Miguel-Ángel Fernández-Torres
Host
Dept. of Signal Theory and Communications, Universidad Carlos III de Madrid
Duration
12 months (2025–2026)
Motivation

Global warming is intensifying extreme weather and climate events, increasing the frequency and severity of heatwaves and droughts. When they co-occur, these compound events interact nonlinearly to amplify impacts such as crop failure, wildfires and water scarcity. Yet extremes still lack universal definitions and consistent characterizations across their spatial, temporal and causal dimensions.

Machine learning and computer vision models can detect and localize extremes, but they act as black boxes, which limits both their interpretability and the scientific insight they provide. SEED addresses this gap with explainable AI (xAI) tailored to the spatiotemporal nature of Earth system data, aiming to uncover what these models learn about the physical drivers of extremes and how they manifest over space and time. Grounding model explanations in physical variables aims to reveal data-driven, physically grounded definitions of extremes based on their drivers.

Objectives
  • OBJ1Baseline model selectionSelect and validate state-of-the-art spatiotemporal deep learning models for the detection of droughts and heatwaves, providing a stable foundation for the explainability research.
  • OBJ2ExplainabilityApply and adapt explainable AI (xAI) methods to pre-trained spatiotemporal models to identify which physical drivers, such as soil moisture deficits or temperature anomalies, underlie their detections.
  • OBJ3Focused pilot case studiesDemonstrate the explainability framework on regional and seasonal heatwave and drought events worldwide, showing how it supports scientific understanding and impact interpretation.
  • TOBJ1DisseminationShare methods and findings through publications, conference presentations and open-source code, building a community across ML/CV and geoscience.
  • TOBJ2Interdisciplinary trainingFoster collaborations that train a new generation of researchers bridging advanced ML/CV and critical geoscience challenges.
Publications
4 outputs

This project is funded by Universidad Carlos III de Madrid through the 2025 call for research activity grants for young doctors (Programa Propio de Investigación y Transferencia).