TY - JOUR
T1 - Uncertainty quantification of wind gust predictions in the northeast United States
T2 - An evidential neural network and explainable artificial intelligence approach
AU - Jahan, Israt
AU - Schreck, John S.
AU - Gagne, David John
AU - Becker, Charlie
AU - Astitha, Marina
N1 - Publisher Copyright:
© 2025 Elsevier Ltd
PY - 2025/9
Y1 - 2025/9
N2 - Machine learning algorithms have shown promise in reducing bias in wind gust predictions, while still underpredicting high gusts. Uncertainty quantification (UQ) supports this issue by identifying when predictions are reliable or need cautious interpretation. Using data from 61 extratropical storms in the Northeastern USA, we introduce evidential neural network (ENN) as a novel approach for UQ in gust predictions, leveraging atmospheric variables from the Weather Research and Forecasting (WRF) model. Explainable AI techniques suggested that key predictive features contributed to higher uncertainty, which correlated strongly with storm intensity and spatial gust gradients. Compared to WRF, ENN demonstrated a 47 % reduction in RMSE and allowed the construction of gust prediction intervals without an ensemble, successfully capturing at least 95 % of observed gusts at 179 out of 266 stations. From an operational perspective, providing gust forecasts with quantified uncertainty enhances stakeholders’ confidence in risk assessment and response planning for extreme gust events.
AB - Machine learning algorithms have shown promise in reducing bias in wind gust predictions, while still underpredicting high gusts. Uncertainty quantification (UQ) supports this issue by identifying when predictions are reliable or need cautious interpretation. Using data from 61 extratropical storms in the Northeastern USA, we introduce evidential neural network (ENN) as a novel approach for UQ in gust predictions, leveraging atmospheric variables from the Weather Research and Forecasting (WRF) model. Explainable AI techniques suggested that key predictive features contributed to higher uncertainty, which correlated strongly with storm intensity and spatial gust gradients. Compared to WRF, ENN demonstrated a 47 % reduction in RMSE and allowed the construction of gust prediction intervals without an ensemble, successfully capturing at least 95 % of observed gusts at 179 out of 266 stations. From an operational perspective, providing gust forecasts with quantified uncertainty enhances stakeholders’ confidence in risk assessment and response planning for extreme gust events.
KW - Evidential neural network
KW - Explainable AI
KW - Uncertainty quantification
KW - Wind gust prediction
UR - https://www.scopus.com/pages/publications/105009323817
U2 - 10.1016/j.envsoft.2025.106595
DO - 10.1016/j.envsoft.2025.106595
M3 - Article
AN - SCOPUS:105009323817
SN - 1364-8152
VL - 193
JO - Environmental Modelling and Software
JF - Environmental Modelling and Software
M1 - 106595
ER -