基于空间光谱特征的高光谱图像自动分类

Shivani Dhok, Ankit A. Bhurane, A. Kothari
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引用次数: 0

摘要

高光谱成像已经成为地质、采矿、农业等各个领域的一个引人注目的工具,应用范围从物体检测到质量检测。特征提取及其方法在提高高光谱成像(HSI)分类精度方面起着不可或缺的作用。本文提出了一种利用线性预测系数、小波系数、标准差、平均能量、均值、分形维数、熵、rsamuyi熵和Kraskov熵等9个空间光谱特征进行高光谱图像自动分类的算法。这些特征进一步使用二次支持向量机(SVM)进行分类。精心设计的方案进行了10倍交叉验证。确定了所提取特征的集体效应,并确定了不同数量特征的精度趋势。所有三个公开可用的数据集的总体精度(OA)如下:Salinas- a数据集$(\mathbf{OA}= 99.60% \%)$, Salinas数据集$(\mathbf{OA}=92.4\%)$和博茨瓦纳数据集$(\mathbf{OA}= 89.5\%)$。
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Automated Hyperspectral Image Classification Using Spatial-Spectral Features
Hyperspectral imaging has transpired as a compelling tool in various fields like geology, mining, agriculture, etc with applications ranging from object detection to quality inspection. Feature extraction, as well as the methodology used for feature extraction, plays an indispensable role in increasing the accuracy of the classification of hyperspectral imaging (HSI). This paper proposes an algorithm for automated hyperspectral image classification using nine spatial-spectral features, which includes linear predictive coefficients, wavelet coefficients, standard deviation, average energy, mean, fractal dimension, entropy, Rényi entropy and Kraskov entropy. These features are further used for classification using the quadratic support vector machine (SVM). The elaborated scheme exercises 10-fold cross-validation. The collective effect of the excerpted features is determined and the accuracy trends for the various number of features is ascertained. Appreciable overall accuracies (OA) for all the three publicly available data sets are acquired as follows: Salinas-A data set $(\mathbf{OA} = 99.60\%)$, Salinas data set $(\mathbf{OA}=92.4\%)$ and Botswana data set $(\mathbf{OA} =89.5\%)$.
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