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Published： 07 January 2024 ，
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周承乐，石茜，李军，张新长.2024.光谱—频域属性模式融合的高光谱遥感图像变化检测.遥感学报，28（1）： 105-120
Zhou C L，Shi Q，Li J and Zhang X C. 2024. Spectral-frequency domain attribute pattern fusion for hyperspectral image change detection. National Remote Sensing Bulletin， 28（1）：105-120
高光谱作为“图谱合一”的遥感技术，具有精细光谱和空间影像的地面覆盖观测与识别优势。然而，高光谱遥感数据的光谱信息表征以及空间信息的利用给双时相高光谱遥感图像变化检测任务带来了巨大的挑战。为此，本文探讨了一种光谱—频域属性模式融合的高光谱遥感图像变化检测方法SFDAPF（Spectral-Frequency Domain Attribute Pattern Fusion）。首先，设计一种基于梯度相关性的光谱绝对距离，使双时相高光谱遥感图像像元对的属性模式从光谱信息表征方面得到了逐级量化；其次，基于傅里叶变换理论提出一种变化像元属性模式显著性增强策略，从全局空间信息利用方面改善了变化与非变化属性像元对的可分性；再次，将全图属性模式显著性水平与梯度相关性的光谱绝对距离进行融合，得到变化检测的综合界定值；最后，依据虚警阈值确定双时相高光谱遥感图像变化检测的二值化结果。将本文提出的SFDAPF方法在开源的双时相高光谱遥感图像河流和农场数据集上进行了变化检测性能验证，结果表明SFDAPF方法能够优于传统的和最新的变化检测方法，变化检测的总体精度在河流和农场数据集上分别达到了0.96508和0.97287（最高精度为1.00000）。证实了本文SFDAPF方法的有效性。
HyperSpectral Imagery (HSI) is a three-dimensional cube data that combines spatial imagery and spectral information
which introduces increased conveniences to the accurate interpretation of observation information of ground coverings. However
high-dimensional nonlinear data processing for the HSI Change Detection (HSI-CD) task encounters challenges. Therefore
an HSI-CD method based on Spectral-Frequency Domain Attribute Pattern Fusion (SFDAPF) is introduced to gradually quantify the spectral representation of pixel attribute patterns. Specifically
a Saliency Enhancement (SE) strategy for pixel attribute patterns based on Fourier transform theory is developed to improve the separability between pixel attribute patterns in the current work. The proposed SFDAPF method comprises four components as follows.
First
a gradient correlation-based spectral absolute distance (GCASD) is designed in this paper. Therefore
the attribute patterns of pixel pairs in bitemporal HSI can be gradually quantified from the aspect of spectral information representation. Then
an SE strategy of attribute patterns of pixel pairs is proposed in accordance with Fourier transform theory
which improves the separability of attribute patterns of changing and non-changing pixel pairs in terms of global spatial information utilization. Next
the saliency level and GCASD per pixel are fused to obtain the comprehensive discrimination value of change detection. Finally
the binarization results of the bitemporal HSI-CD are obtained in accordance with the false alarm threshold.
The proposed SFDAPF method is applied to two open-source bitemporal HSI datasets (i.e.
River and Farmland datasets). Experimental results show that the proposed SFDAPF method can outperform the traditional and state-of-the-art HSI-CD methods. For the River dataset
compared with the traditional methods
the SFDAPF method in this paper introduces the local context information of the pixel in the calculation stage of the GCASD and adopts the global SE strategy
which is effective in reducing false alarms. Compared with the state-of-the-art methods
the SFDAPF method in this paper achieves the highest accuracy for most of the performance evaluation indicators. For the Farmland dataset
the AA
Kappa
F1
IoU
and OA indicators of the SFDAPF method in this paper have reached the highest accuracy
which is 0.01985
0.05653
0.01474
0.02798
and 0.02187 higher than the second highest accuracy. In addition
the OAu (0.97500) and OAc (0.96766) indicators of the SFDAPF method did not achieve the highest accuracy. However
they were only 0.00673 and 0.01237 lower than the highest accuracy
which can be called slightly lower than the highest accuracy. Therefore
the experiments verified the effectiveness of the proposed SFDAPF method in the HSI-CD task.
The proposed SFDAPF method generally considers the representation of spectral information and the utilization of neighborhood spatial information
thus promoting the overall accuracy of HSI-CD. However
the proposed SFDAPF method only considers the single-window eight-connected neighborhood in the spectral characterization stage and the magnitude features represented in the frequency domain. Therefore
future research work should further explore the contribution of dual-window spectral information representation and phase information of frequency domain representation to HSI-CD task.
高光谱图像变化检测图像融合特征提取显著性分析傅里叶变换
hyperspectral imagechange detectionimage fusionfeature extractionsaliency analysisfourier transform
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