DMANet_KF: Tropical Cyclone Intensity Estimation Based on Deep Learning and Kalman Filter From Multispectral Infrared Images

  • Jiang, Wenjun; 
  • Hu, Gang; 
  • Wu, Tiantian; 
  • Liu, Lingbo; 
  • Kim, Bubryur; 
  • 외 2명
Citations

WEB OF SCIENCE

25
Citations

SCOPUS

37

초록

It is very crucial to identify the intensity of tropical cyclone (TC) accurately. In this article, a novel TC intensity estimation method is proposed to estimate the TC intensity from multispectral infrared images in the Northwest Pacific Basin. A deep multisource attention network (DMANet) is proposed to model the dynamics of multispectral infrared images along the spatial dimension. We first introduce a message-passing enhancement module based on the conditional random fields to process multispectral infrared images. Multispectral data transfer the complementary information to refine the features of TC. Second, we utilize a local global attention module to make the model focus on local key features (i.e., the typhoon eye) and obtain deeper global semantic information of TC. The ablation experiment is set up in the same dataset and computing environment to verify the effectiveness of each module. Finally, we use a Kalman filter to correct the error of TC intensity during its lifetime estimated by the DMANet model. After using Kalman filter, the evolution of TC intensity becomes smooth and corresponding root-mean-square error (RMSE) decreases from 9.79 to 7.82 knots. Compared with the best result of the existing TC intensity estimation method, the RMSE of our method is reduced by 9.07%. Therefore, the proposed TC intensity estimation method shows a great potential for accurately estimating the TC intensity.

키워드

Attention mechanism; deep learning; intensity estimation; Kalman filter; tropical cyclone (TC); SATELLITE
제목
DMANet_KF: Tropical Cyclone Intensity Estimation Based on Deep Learning and Kalman Filter From Multispectral Infrared Images
저자
Jiang, Wenjun; Hu, Gang; Wu, Tiantian; Liu, Lingbo; Kim, Bubryur; Xiao, Yiqing; Duan, Zhongdong
DOI
10.1109/JSTARS.2023.3273232
발행일
2023
유형
Article
저널명
IEEE Journal of Selected Topics in Applied Earth Observations and Remote Sensing
권
16
페이지
4469 ~ 4483