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Improved Precipitation Nowcasting Through a Deep Learning Model Based on Three-Dimensional Cloud Structures

delete2024-01-01
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PRE
AI
Y
Yuankang Ye
F
Feng Gao
W
Wei Cheng
C
Chang Liu *
张绍青 cover
张绍青 (Shaoqing Zhang)
S
Shudong Wang
DOI:10.1109/TGRS.2024.3404062delete
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Abstract

Abstract

En 中文
Precipitation nowcasting pertains to the localized forecasting of rainfall over a brief time horizon, characterized by precise estimates of both coverage and intensity. This capability holds particular significance in various societal applications, including agriculture, aviation safety, and transportation. However, since traditional methods mainly by extrapolating radar echo in 2-D space, cannot accurately and sufficiently represent the spatiotemporal state of clouds in the vertical direction, the accuracy of precipitation nowcasting using weather radar has reached a bottleneck. A new deep learning precipitation nowcasting model called 3dCloudNet is designed and evaluated in this study. The 3dCloudNet incorporates historical 3-D radar echo sequences obtained from weather radar data to improve the accuracy and reliability of precipitation nowcasting. By capturing both horizontal and vertical motion patterns of clouds at various altitude levels, this model demonstrates an enhanced capability in detecting and distinguishing regions prone to severe convective weather events. The experimental results show that the model better captures the cloud's motion patterns and trends, and therefore has a noteworthy ability to detect and distinguish areas that may lead to severe convective weather. This study provides a step toward further improving the accuracy of precipitation nowcasting.
Keywords:
Radar
Precipitation
Meteorology
Spatiotemporal phenomena
Predictive models
Meteorological radar
Clouds
Deep learning
precipitation nowcasting
spatiotemporal sequence forecasting
weather radar

Journal

IEEE Transactions on Geoscience and Remote Sensing cover
IEEE Transactions on Geoscience and Remote Sensing
IF:
8.6
Papers:
2.1W
Citations:
10.7W

Organization

H
Harbin Engineering University
Scholars:
1.9W
Papers: 1.3W
Citations: 1.3W
O
ocean university of china
Scholars:
3.1W
Papers: 2.0W
Citations: 21