ML4WX

Extremes & hazards

Wildfire Danger Prediction and Understanding With Deep Learning

Spyros Kondylatos, Ioannis Prapas, Michele Ronco, Ioannis Papoutsis, Gustau Camps‐Valls, María Piles, Miguel‐Ángel Fernández‐Torres, Nuno Carvalhais

Geophysical Research Letters · · Max Planck Institute for Biogeochemistry

PaperPDF

In one sentence. Deep learning predicts next-day wildfire danger in the Eastern Mediterranean, beating the Fire Weather Index, with explainable AI attributing importance to wetness variables.

Abstract

Abstract Climate change exacerbates the occurence of extreme droughts and heatwaves, increasing the frequency and intensity of large wildfires across the globe. Forecasting wildfire danger and uncovering the drivers behind fire events become central for understanding relevant climate‐land surface feedback and aiding wildfire management. In this work, we leverage Deep Learning (DL) to predict the next day's wildfire danger in a fire‐prone part of the Eastern Mediterranean and explainable Artificial Intelligence (xAI) to diagnose model attributions. We implement DL models that capture the temporal and spatio‐temporal context, generalize well for extreme wildfires, and demonstrate improved performance over the traditional Fire Weather Index. Leveraging xAI, we identify the substantial contribution of wetness‐related variables and unveil the temporal focus of the models. The variability of the contribution of the input variables across wildfire events hints into different wildfire mechanisms. The presented methodology paves the way to more robust, accurate, and trustworthy data‐driven anticipation of wildfires.

Labels

Topic
Extremes & hazards, Explainability, uncertainty & physics
Type
New model or method
Time scale
6 h–3 days
Domain
Regional
Data
Other
Status
Research
Identifiers
DOI:10.1029/2022gl099368 OpenAlex:W4293919465
Added
2026-10-22

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