Ship Wake Detection Based on Polarimetric Enhancement and Deep Learning via a Simulated Full-Polarized Dataset

IF 1.9 Q3 COMPUTER SCIENCE, HARDWARE & ARCHITECTURE IEEE Canadian Journal of Electrical and Computer Engineering Pub Date : 2024-12-30 DOI:10.1109/ICJECE.2024.3506115
Yanni Jiang;Ke Li;Ziyuan Yang;Tao Liu
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Abstract

Ship wake detection provides a supplementary way for ship target detection; however, the detection performances of small and slow targets under high sea state are always unsatisfying. Also, the potential of polarimetric enhancement and deep learning (DL) techniques in ship wake detection still remains to be further discovered. In this article, first, the polarimetric enhancement methods based on the polarimetric whitening filter (PWF) and polarimetric detection optimization filter (PDOF) have been researched. Since the measured full-polarized synthetic aperture radar (SAR) images of ship wake are rather limited and inadequate for DL techniques, a full-polarized wake detection dataset (FPWDD) has been established for the first time. It was constructed based on 6000 simulated polarimetric SAR (PolSAR) images of a typical small surface vehicle, including four kinds of target numbers, five kinds of wind speeds, five kinds of wind directions, five kinds of ship velocities, and 36 kinds of ship heading angles. It is composed of two kinds of images: the full covariance matrixes stored in the TIF format and the images after the Pauli decomposition stored in the RGB format. Furthermore, the ship wake detection has been performed based on the FPWDD and three widely applied target detection DL networks for the HH, HV, VV, PWF, and PDOF channels. Finally, an analysis of the wake detection performances of the five channels has been carried out, which has proved that the polarimetric enhancement methods can obviously enhance the wake detection performance of small surface vehicles, with most evaluation metrics about 10% higher than that of HH, VV, and HV.
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基于极化增强和深度学习的模拟全极化数据集舰船尾流检测
舰船尾流检测为舰船目标检测提供了补充途径;然而,在高海况条件下,对小而慢的目标的探测性能往往不能令人满意。此外,偏振增强和深度学习(DL)技术在船舶尾流检测中的潜力仍有待进一步发现。本文首先研究了基于偏振白化滤波器(PWF)和偏振检测优化滤波器(PDOF)的偏振增强方法。针对舰船尾流实测全极化合成孔径雷达(SAR)图像的局限性,首次建立了全极化尾流检测数据集(FPWDD)。该模型基于6000幅典型小型水面交通工具的极化SAR (PolSAR)模拟图像,包括4种目标数、5种风速、5种风向、5种舰船速度和36种舰船航向角。它由两种图像组成:以TIF格式存储的全协方差矩阵和以RGB格式存储的泡利分解后的图像。此外,基于FPWDD和HH、HV、VV、PWF和PDOF三种广泛应用的目标检测DL网络进行了舰船尾流检测。最后,对5个通道的尾迹检测性能进行了分析,结果表明,极化增强方法可以明显提高小型水面车辆的尾迹检测性能,大多数评价指标比HH、VV和HV提高10%左右。
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