Evaluating Extreme Storm Events in an Ensemble of High‐Resolution Projections

Abstract This study uses different downscaling techniques and reference observations to investigate the characteristics of extreme storm events over the conterminous United States in historical and a projected future scenario. While previous studies agree on the projected changes in intensity and frequency of precipitation extremes, there is a lack of consensus regarding how their size will change in response to an increase in radiative forcing. Moreover, the influence of different downscaling techniques on their characteristics has not been thoroughly examined. This study employs an ensemble of high‐resolution projections derived from six CMIP6 GCMs, using dynamical, statistical and artificial intelligence based downscaling techniques and two reference observations. Overall, we find noticeable differences in the size, average depth, and total precipitation volume of these storms among the climate ensembles in the historical period. Despite these differences in the historical period, we find consistent future changes across various ensembles. We find a robust projected increase in storm size during Winter and Spring but a decrease in size during Summer in the East. Nevertheless, irrespective of changes in their size, extreme storms are projected to intensify across all the ensembles and seasons.

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Publication Details

Journal
Earth s Future
Published
2025-12-01
DOI
https://doi.org/10.1029/2025ef006570
Citations
1
Primary Topic
Climate variability and models
Type
article
Field-Weighted Citation Impact
1.11
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article

Evaluating Extreme Storm Events in an Ensemble of High‐Resolution Projections

Haoran Niu, Moetasim Ashfaq, Deeksha Rastogi, Shih‐Chieh Kao
1 citations
Earth s Future
Climate variability and models
1.11
article

Evaluating Extreme Storm Events in an Ensemble of High‐Resolution Projections

Haoran Niu, Moetasim Ashfaq, Deeksha Rastogi, Shih‐Chieh Kao
article en
1 citations

Abstract

Abstract This study uses different downscaling techniques and reference observations to investigate the characteristics of extreme storm events over the conterminous United States in historical and a projected future scenario. While previous studies agree on the projected changes in intensity and frequency of precipitation extremes, there is a lack of consensus regarding how their size will change in response to an increase in radiative forcing. Moreover, the influence of different downscaling techniques on their characteristics has not been thoroughly examined. This study employs an ensemble of high‐resolution projections derived from six CMIP6 GCMs, using dynamical, statistical and artificial intelligence based downscaling techniques and two reference observations. Overall, we find noticeable differences in the size, average depth, and total precipitation volume of these storms among the climate ensembles in the historical period. Despite these differences in the historical period, we find consistent future changes across various ensembles. We find a robust projected increase in storm size during Winter and Spring but a decrease in size during Summer in the East. Nevertheless, irrespective of changes in their size, extreme storms are projected to intensify across all the ensembles and seasons.

Earth s FutureVol. 13(12)
Oak Ridge National Laboratory (US)
Openalex Percentile: Top 17%
Climate variability and models
1.11
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Evaluating Extreme Storm Events in an Ensemble of High‐Resolution Projections — Haoran Niu, Moetasim Ashfaq, et al. · Earth s Future (2025) | TGRS Research Map | TGRS