From winter storm thermodynamics to wind gust extremes: discovering interpretable equations from data

Abstract Reliably identifying and understanding temporal precursors to extreme wind gusts is crucial for early warning and mitigation. This study proposes a simple data-driven approach to extract key predictors from a dataset of historical extreme European winter windstorms and derive simple equations linking these precursors to extreme gusts over land. A major challenge is the limited training data for extreme events, increasing the risk of model overfitting. Testing various mitigation strategies, we find that combining dimensionality reduction, careful cross-validation, feature selection, and a nonlinear transformation of maximum wind gusts informed by Generalized Extreme Value distributions successfully reduces overfitting. These measures yield interpretable equations that generalize across regions while maintaining satisfactory predictive skill. The discovered equations reveal the association between a steady drying low-troposphere before landfall and wind gust intensity in Northwestern Europe.

Authors

Publication Details

Journal
Environmental Data Science
Published
2025-01-01
DOI
https://doi.org/10.1017/eds.2025.10008
Primary Topic
Meteorological Phenomena and Simulations
Type
article
Field-Weighted Citation Impact
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article

From winter storm thermodynamics to wind gust extremes: discovering interpretable equations from data

Frederick Iat‐Hin Tam, Tom Beucler, Fabien Augsburger
Environmental Data Science
Meteorological Phenomena and Simulations
article

From winter storm thermodynamics to wind gust extremes: discovering interpretable equations from data

Frederick Iat‐Hin Tam, Tom Beucler, Fabien Augsburger
article en

Abstract

Abstract Reliably identifying and understanding temporal precursors to extreme wind gusts is crucial for early warning and mitigation. This study proposes a simple data-driven approach to extract key predictors from a dataset of historical extreme European winter windstorms and derive simple equations linking these precursors to extreme gusts over land. A major challenge is the limited training data for extreme events, increasing the risk of model overfitting. Testing various mitigation strategies, we find that combining dimensionality reduction, careful cross-validation, feature selection, and a nonlinear transformation of maximum wind gusts informed by Generalized Extreme Value distributions successfully reduces overfitting. These measures yield interpretable equations that generalize across regions while maintaining satisfactory predictive skill. The discovered equations reveal the association between a steady drying low-troposphere before landfall and wind gust intensity in Northwestern Europe.

Environmental Data ScienceVol. 4
Openalex Percentile: Top 68%
Meteorological Phenomena and Simulations
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From winter storm thermodynamics to wind gust extremes: discovering interpretable equations from data — Frederick Iat‐Hin Tam, Tom Beucler, et al. · Environmental Data Science (2025) | TGRS Research Map | TGRS