应用Sinkhorn距离和图正则约束的高效解混算法
Efficient unmixing algorithm using Sinkhorn distance and graph regularization constraints
- 2023年27卷第11期 页码:2603-2616
收稿:2021-03-11,
纸质出版:2023-11-07
DOI: 10.11834/jrs.20221126
移动端阅览
收稿:2021-03-11,
纸质出版:2023-11-07
移动端阅览
高光谱盲解混是解决混合像元问题的重要技术。其中,非负矩阵分解凭借其明确的物理意义,为无监督线性光谱解混的发展奠定了基础。由于传统非负矩阵分解采用欧氏距离度量原始矩阵与重构矩阵之间的误差,因而不能有效挖掘各维度特征间关系,影响解混精度。为充分利用高光谱图像中丰富的相关特征,本研究在地球移动距离的基础上引入熵正则约束,用Sinkhorn距离代替欧氏距离,建模不同维度特征之间的关系。同时,为刻画数据的流形结构,将图正则项作为丰度的约束条件,提出了一种基于Sinkhorn距离和图正则约束的非负矩阵解混算法。本研究采用乘性迭代规则对提出的解混模型进行求解,在模拟数据集、Urban数据集以及Jasper数据集上进行实验,实验结果验证了所提出算法的有效性。
Hyperspectral remote sensing technology
as a new type of earth observation technology
provides rich spectral information of features and can identify and finely classify feature targets. A single pixel in hyperspectral images contains multiple features as limited by the spatial resolution. As a result
the mixed pixels become widespread. Ultimately
the accuracy of pixel-level applications is difficult to improve. Nonnegative Matrix Factorization (NMF)
with its clear physical meaning
lays the foundation for the development of unsupervised linear spectral unmixing. Thus
traditional NMF often uses Euclidean distance as a similarity measure method. On the one hand
hyperspectral data have manifold distribution. Thus
simple linear measurement between two points cannot accurately represent the distance between data. This problem makes the sample internal features weakly correlated
which results in the NMF algorithm having an inaccurate prediction of the high-dimensional spatial inaccurate prediction of the translational noise in high-dimensional space. On the other hand
the objective function constructed based on this method ignores the correlation characteristics in the image space
which inhibits the performance of the algorithm.
Method Considering the correlation between data manifolds and features
this study proposes a nonnegative matrix factorization unmixing algorithm based on Sinkhorn distance and graph regularization constraint (SDGNMF). On the basis of fully exploiting the advantages of EMD
the algorithm imposes entropy regularization constraint on EMD
improves EMD to Sinkhorn distance
and takes it as the standard of measuring error
which effectively reduces the computational complexity. In addition
EMD with entropy regularization constraint
that is
the representation of the model by Sinkhorn distance
can better model the relationship between different dimensional features and fully utilize the correlation of features. In particular
this study introduces the graph regularity constraint based on the Sinkhorn distance to further characterize the manifold structure of data. Compared with the unmixing model constructed by Euclidean distance
SDGNMF is relatively insensitive to the noise in hyperspectral data and can better extract the internal structural information of the data
which improves the unmixing accuracy.
Result An experiment was conducted on simulated and real datasets. Experimental results prove that the proposed algorithm proposed has achieved excellent subspace learning results and has good robustness. Compared with several other algorithms
SDGNMF can retain the similar structure after iteration. The correlation between the endmember features is also fully considered in SDGNMF. Thus
the similar substances distributed in adjacent regions can be separated. Therefore
SDGNMF can better display the details of local abundance and obtain a more realistic and perfect abundance map.
Conclusion In general
the proposed unmixing model can overcome noise and consider the correlation of features and data manifold structure simultaneously. Experimental results show that the proposed algorithm can effectively improve the unmixing accuracy of most hyperspectral remote sensing data
especially those with high feature correlation. However
the proposed algorithm has high computational complexity. In addition
the algorithm only considers the prior knowledge of abundance. Therefore
future work will focus on solving these problems.
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