M^2 S^2 F^2 : Multiscale Multistage Spectral-Spatial Features Fusion Framework for Hyperspectral Image Classification

Xiangbin Shi, Kuo Song, Zhaokui Li, Jing Bi, Deyuan Zhang
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Abstract

Hyperspectral image classification has been widely applied in many fields, but it also faces challenges because of small number of labeled samples. In this paper, we propose the Multiscale Multistage Spectral-Spatial Feature Fusion Framework (M^2 S^2 F^2 ) for hyperspectral image classification using small training samples. The Framework is the combination of two deep convolutional neural networks, which can extract more representative and discriminative features by combining the following operations. Firstly, two different scale 3-D cubes are the inputs for the spectral and spatial feature extraction respectively. Secondly, by fusing strong complementary information between different layers, we form multistage spectral and spatial features by fusion primary, intermediate and advanced features of the spectral and spatial features respectively. Spectral and spatial features are extracted by spectral and spatial skipped residual blocks, which can effectively alleviate the problems of gradient degradation. Thirdly, the fusion of complementary multistage spectral and spatial features can improve the classification accuracy. Experimental results on the IN, UP and KSC datasets show the effectiveness of the proposed method using small training samples.
M^2 S^2 F^2:用于高光谱图像分类的多尺度多阶段光谱-空间特征融合框架
高光谱图像分类在许多领域得到了广泛的应用,但由于标记样本数量少而面临挑战。在本文中,我们提出了用于小样本高光谱图像分类的多尺度多阶段光谱-空间特征融合框架(M^2 S^2 F^2)。该框架是两个深度卷积神经网络的结合,通过结合以下操作,可以提取出更具代表性和判别性的特征。首先,将两个不同尺度的三维立方体分别作为提取光谱和空间特征的输入;其次,通过融合不同层间的强互补信息,分别融合光谱和空间特征的初级、中级和高级特征,形成多阶段光谱和空间特征;利用光谱和空间跳过残差块提取光谱和空间特征,有效缓解了梯度退化问题。第三,将互补的多阶段光谱特征与空间特征融合,可以提高分类精度。在IN、UP和KSC数据集上的实验结果表明了该方法在小样本训练下的有效性。
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