结合弹性网络与低秩表示的高光谱遥感影像分类方法

苏红军; 姚文静; 吴曌月

doi:10.11834/jrs.20210209

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结合弹性网络与低秩表示的高光谱遥感影像分类方法
Hyperspectral remote sensing imagery classification based on elastic net and low-rank representation
2022年26卷第11期页码：2354-2368
收稿：2020-06-16，

纸质出版：2022-11-07
DOI： 10.11834/jrs.20210209
稿件说明：

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苏红军，姚文静，吴曌月.2022.结合弹性网络与低秩表示的高光谱遥感影像分类方法.遥感学报，26（11）： 2354-2368 DOI： 10.11834/jrs.20210209.

Su H J，Yao W J and Wu Z Y. 2022. Hyperspectral remote sensing imagery classification based on elastic net and low-rank representation. National Remote Sensing Bulletin， 26（11）：2354-2368 DOI： 10.11834/jrs.20210209.

摘要

近年来，低秩表示LRR（Low-rank Representation）在高光谱遥感影像分类中的应用越来越广泛，如何利用LRR准确地对地物进行分类已成为高光谱遥感研究的一个挑战。针对以上问题，本文设计了基于弹性网络的低秩表示ENLRR（Low-rank Representation based on Elastic Net）方法，并将该算法扩展到了核空间提出了基于弹性网络的核低秩表示方法KENLRR（Kernel ENLRR）。低秩表示分类可以充分利用影像的全局信息，它的基本思想是利用尽可能少的训练样本的线性组合来表示整个测试影像，再通过表示系数和训练样本对目标影像进行恢复重建，并根据最小重构误差准则判断每个像素的类别。提出的ENLRR方法的基本思想是在LRR中引入弹性网络思想，利用系数矩阵的核范数和F-范数代替秩函数进行低秩优化求解。为了更好地解决非线性数据的分类问题，在ENLRR 方法中引入核函数，提出KENLRR方法，通过邻域滤波核函数将原数据映射到高维特征空间中，实现空谱联合分类，进一步提高分类精度。实验部分选用3组高光谱遥感数据，利用提出的算法与SVM、KNN、ELM、LRR、MFLRR、LSLRR和KLRR等对比算法进行地物分类。结果表明，提出的两种算法在高光谱遥感地物分类方面效果较好，而且具有良好的稳定性和适应性。与LRR算法相比，提出的算法在Washington DC数据集上的精度分别提高了4.55%和6.74%，在Purdue Campus数据集上的精度分别提高了14.22%和23.30%，在高分五号GF-5（Gaofen-5）黄河口湿地数据集上的精度分别提高了8.45%和15.40%，而且结果也表明KENLRR算法具有最佳的分类表现。精确的分类结果为分析地物分布格局提供了技术支撑，也证明了本文提出的两种算法在高光谱遥感影像分类上的优越性。

Abstract

Recently

Low-Rank Representation (LRR) has been widely used in hyperspectral remote sensing imagery classification. How to accurately classify ground objects by LRR has become a challenge in hyperspectral remote sensing research. The LRR based on elastic net (ENLRR) and the extended kernel version of ENLRR (KENLRR) are proposed to solve the above-mentioned problem. LRR classification method can make full use of the global information of the image. Its basic idea is to represent the whole test image by using the linear combination of as few training samples as possible

reconstructing the target image according to the representation coefficient matrix and training samples

and calculating the class of each pixel by the minimum reconstruction error criterion. The main idea of ENLRR is to introduce an elastic net into the LRR model

which replaces the rank function with the combination of nuclear and Frobenius norms of the coefficient matrix. To better classify nonlinear data

a modified KENLRR method is proposed by introducing kernel tricks in the ENLRR algorithm

and the neighborhood filter kernel function is adopted to map the original data into a high-dimensional feature space

which can obtain spatial-spectral joint information for better classification. In the experiments

three popular hyperspectral datasets are adopted

the proposed methods and the SVM

KNN

ELM

LRR

MFLRR

LSLRR

and KLRR comparison methods are used to carry out classification. Based on the experimental results

the proposed methods are effective in accurately distinguishing ground objects and have good stability and adaptability. In comparison with LRR method

the overall classification accuracies of ENLRR and KENLRR are improved by 4.55% and 6.74% in the Washington DC dataset

14.22% and 23.30% in the Purdue Campus dataset

and 8.45% and 15.40% in the Gaofen-5 (GF-5) Yellow River Delta dataset. Therefore

the KENLRR method can provide the best performance for hyperspectral remote sensing imagery classification. The high-quality classification results provide technical support for analyzing the distribution pattern of ground objects

and prove the superiority of the proposed methods in hyperspectral remote sensing imagery classification。

关键词

Keywords

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