Deep-Learning-Based Multi-Channel Satellite Precipitation Forecasting Enhanced by Cloud Phase Classification

Clouds are closely related to precipitation, as their type, microphysical characteristics, and dynamic properties determine the intensity, duration, and form of rainfall. While geostationary satellites offer continuous cloud-top observations, they cannot capture the full three-dimensional structure of clouds, limiting the accuracy of precipitation forecasting based on geostationary satellite data. However, cloud–precipitation relationships contain valuable physical information that can be leveraged to improve forecasting performance. To further enhance the precision of satellite precipitation forecasting, this study proposes a multi-channel satellite precipitation forecasting method that integrates cloud classification products. The method combines precipitation-prior information from Himawari-8 satellite cloud classification products with multi-channel satellite observations to generate precipitation forecasts for the next four hours. This approach further exploits the potential of satellite observations in precipitation forecasting. Experimental results show that integrating cloud classification products improves the Critical Success Index by 8.0%, improves the Correlation Coefficient by 5.8%, and reduces the Mean Squared Error by 3.0%, but increases the MAE by 4.5%. It is proven that this method can effectively improve the accuracy of multi-channel satellite precipitation forecasting.

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Publication Details

Journal
Remote Sensing
Published
2025-08-16
DOI
https://doi.org/10.3390/rs17162853
Primary Topic
Precipitation Measurement and Analysis
Type
article
Field-Weighted Citation Impact
0.00

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article

Deep-Learning-Based Multi-Channel Satellite Precipitation Forecasting Enhanced by Cloud Phase Classification

Wei Cheng, Juanjuan Liu, Shuangshuang Bian, Yuhang Jiang et al.
Remote Sensing
Precipitation Measurement and Analysis
article

Deep-Learning-Based Multi-Channel Satellite Precipitation Forecasting Enhanced by Cloud Phase Classification

Wei Cheng, Juanjuan Liu, Shuangshuang Bian, Yuhang Jiang, Jingzhe Sun, Shudong Wang, Yayun Li
article en

Abstract

Clouds are closely related to precipitation, as their type, microphysical characteristics, and dynamic properties determine the intensity, duration, and form of rainfall. While geostationary satellites offer continuous cloud-top observations, they cannot capture the full three-dimensional structure of clouds, limiting the accuracy of precipitation forecasting based on geostationary satellite data. However, cloud–precipitation relationships contain valuable physical information that can be leveraged to improve forecasting performance. To further enhance the precision of satellite precipitation forecasting, this study proposes a multi-channel satellite precipitation forecasting method that integrates cloud classification products. The method combines precipitation-prior information from Himawari-8 satellite cloud classification products with multi-channel satellite observations to generate precipitation forecasts for the next four hours. This approach further exploits the potential of satellite observations in precipitation forecasting. Experimental results show that integrating cloud classification products improves the Critical Success Index by 8.0%, improves the Correlation Coefficient by 5.8%, and reduces the Mean Squared Error by 3.0%, but increases the MAE by 4.5%. It is proven that this method can effectively improve the accuracy of multi-channel satellite precipitation forecasting.

Remote SensingVol. 17(16)
China Meteorological Administration (CN), Chinese Academy of Sciences (CN), Beijing Meteorological Bureau (CN), Institute of Atmospheric Physics (CN), University of Chinese Academy of Sciences (CN), Dalian Polytechnic University (CN)
National Aeronautics and Space Administration, National Natural Science Foundation of China, Japan Aerospace Exploration Agency, National Key Research and Development Program of China
Openalex Percentile: Top 74%
Precipitation Measurement and Analysis
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