TCR-GAN: Predicting tropical cyclone passive microwave rainfall using infrared imagery via generative adversarial networks
Fan Meng, Tao Song, Danya Xu

TL;DR
This paper introduces TCR-GAN, a novel generative adversarial network that predicts tropical cyclone rainfall from infrared satellite images, offering high-resolution, real-time rainfall estimation crucial for disaster management.
Contribution
The study develops a new GAN-based model and establishes a benchmark dataset for IR-to-rainfall prediction in tropical cyclones, advancing AI applications in meteorology.
Findings
Effective extraction of key features from IR images.
Potential for global real-time tropical cyclone rainfall prediction.
Establishment of a new benchmark dataset TCIRRP.
Abstract
Tropical cyclones (TC) generally carry large amounts of water vapor and can cause large-scale extreme rainfall. Passive microwave rainfall (PMR) estimation of TC with high spatial and temporal resolution is crucial for disaster warning of TC, but remains a challenging problem due to the low temporal resolution of microwave sensors. This study attempts to solve this problem by directly forecasting PMR from satellite infrared (IR) images of TC. We develop a generative adversarial network (GAN) to convert IR images into PMR, and establish the mapping relationship between TC cloud-top bright temperature and PMR, the algorithm is named TCR-GAN. Meanwhile, a new dataset that is available as a benchmark, Dataset of Tropical Cyclone IR-to-Rainfall Prediction (TCIRRP) was established, which is expected to advance the development of artificial intelligence in this direction. Experimental results…
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Taxonomy
TopicsTropical and Extratropical Cyclones Research · Precipitation Measurement and Analysis · Meteorological Phenomena and Simulations
