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Improving Rainfall Prediction with Satellite Sensors and Deep Learning

At a Glance

Researchers at Colorado State University have developed a deep learning framework to enhance rainfall prediction using data from the GOES-R series satellite. By combining observations from the advanced baseline imager (ABI) and geostationary lightning mapper (GLM), this technology improves upon current operational rainfall rate estimates.

Background

Accurate precipitation estimation is crucial for water resource management and understanding the risks of flooding and drought. Traditional methods, like rain gauges, have limitations in coverage and accuracy. Satellite sensors offer wide coverage but face challenges in precise estimation, especially in complex terrain regions.

Overview

The proposed deep learning framework aims to enhance the operational precipitation retrieval product on the GOES-R series satellite by leveraging observations from the ABI and GLM measurements. Comprising two convolutional neural network modules, the framework integrates cloud-top brightness temperature from multiple ABI channels and lightning flash rate data from the GLM measurement. Trained with ground-based multiradar multisensory (MRMS) quantitative precipitation estimates, the deep learning model demonstrates superior performance compared to the current operational product, particularly in capturing moderate to heavy precipitation events. Quantitatively, the CNN-based retrieval model exhibits significant improvements, achieving a minimum of 32% enhancement in integrated Heidke skill score and critical success index metrics and reducing estimation errors by at least 31% in terms of mean-squared error, mean absolute error, and the normal mean absolute error. These enhancements underscore the potential of the deep learning framework to revolutionize precipitation retrieval accuracy and contribute to improved understanding and forecasting of precipitation patterns, especially in regions prone to extreme weather events.

A figure that shows the hourly precipitation estimates at 23:00 UTC, May 17, 2020. (a) The CNN-based retrieval with the GLM measurements, (b) The CNN-based retrieval without the GLM data, (c) the MRMS ground truth, and (d) the currently operational GOES-16 RRQPE product.
Figure 1. An example of the hourly precipitation estimates at 23:00 UTC, May 17, 2020. (a) The CNN-based retrieval with the GLM measurements, (b) The CNN-based retrieval without the GLM data, (c) the MRMS ground truth, and (d) the currently operational GOES-16 RRQPE product.

Benefits

  • Enhances rainfall prediction accuracy compared to existing methods
  • Utilizes satellite data for wide coverage, overcoming limitations of ground-based systems
  • Incorporates lightning data to improve detection of convective precipitation
  • Lightweight and efficient deep learning model reduces computational time

Applications

  • Weather Forecasting
  • Natural Disaster Preparedness
  • Insurance and Risk Assessment
  • Agricultural Planning

Publications

Yang et al. (2023) “Deep learning for precipitation retrievals using ABI and GLM measurements on the GOES-R series.” IEEE Transactions on Geoscience and Remote Sensing. doi: 10.1109/TGRS.2023.3322352

Last Updated: July 2024
A graphic showing a weather radar in mixed colors on a white map of the central United States.
Opportunity

Available for Exclusive Licensing
TRL: 5

IP Status

Copyright

Inventors

Haonan Chen
Yifan Yang

Reference Number
2023-079
Licensing Manager

Aly Hoeher
Aly.Hoeher@colostate.edu
970-491-7100

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