4.7 Article

NDFTC: A New Detection Framework of Tropical Cyclones from Meteorological Satellite Images with Deep Transfer Learning

Journal

REMOTE SENSING
Volume 13, Issue 9, Pages -

Publisher

MDPI
DOI: 10.3390/rs13091860

Keywords

tropical cyclone detection; meteorological satellite images; deep learning; deep transfer learning; generative adversarial networks

Funding

  1. National Key Research and Development Program [2018YFC1406201]
  2. Natural Science Foundation of China [U1811464]
  3. Innovation Group Project of the Southern Marine Science and Engineering Guangdong Laboratory (Zhuhai) [311020008]
  4. Natural Science Foundation of Shandong Province [ZR2019MF012]
  5. Taishan Scholars Fund [ZX20190157]

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The study introduces a new detection framework for tropical cyclones, incorporating DCGAN and YOLOv3 model through deep transfer learning to enhance accuracy and stability. By utilizing generated images for data augmentation and pre-training, followed by transfer learning on real images, the framework achieves improved performance in detecting tropical cyclones compared to the YOLOv3 model.
Accurate detection of tropical cyclones (TCs) is important to prevent and mitigate natural disasters associated with TCs. Deep transfer learning methods have advantages in detection tasks, because they can further improve the stability and accuracy of the detection model. Therefore, on the basis of deep transfer learning, we propose a new detection framework of tropical cyclones (NDFTC) from meteorological satellite images by combining the deep convolutional generative adversarial networks (DCGAN) and You Only Look Once (YOLO) v3 model. The algorithm process of NDFTC consists of three major steps: data augmentation, a pre-training phase, and transfer learning. First, to improve the utilization of finite data, DCGAN is used as the data augmentation method to generate images simulated to TCs. Second, to extract the salient characteristics of TCs, the generated images obtained from DCGAN are inputted into the detection model YOLOv3 in the pre-training phase. Furthermore, based on the network-based deep transfer learning method, we train the detection model with real images of TCs and its initial weights are transferred from the YOLOv3 trained with generated images. Training with real images helps to extract universal characteristics of TCs and using transferred weights as initial weights can improve the stability and accuracy of the model. The experimental results show that the NDFTC has a better performance, with an accuracy (ACC) of 97.78% and average precision (AP) of 81.39%, in comparison to the YOLOv3, with an ACC of 93.96% and AP of 80.64%.

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