Hyperspectral Data Analysis for Arid Vegetation Species : Smart & Sustainable Growth

S. Borana, S. K. Yadav, S. Parihar
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引用次数: 11

Abstract

Hyperspectral Images are continuous narrow spectral bands provides a wealth of information which can be used in different applications. Advance developments in hyperspectral remote sensing technology since two decade have opened new opportunity to explore innovative ways to study vegetation species. In this research work, ground-based AISA Vis-NIR hyper spectral image system of 240 bands, wavelength range from 390 to 960 nm with 2.5 nm spectral resolution and 1cm spatial resolution at a distance of 10m was used for classification of prominent vegetation species (Cactus, Neem and Babool). Machine learning supervised classification algorithms are used to classifying the Hyperspectral data. In supervised classification, four methods have been used viz. Spectral Angle Mapper (SAM), Minimum Distance (MD), Support Vector Machine (SVM) and Spectral Information Divergence (SID) Classifier. Environment of Visualize Images (ENVI) software is used for processing and analysis of hyperspectral images for classification of vegetation species in Jodhpur study area. Accuracy assessments were also carried out for classified output images and estimate the performance of a classifier. The overall accuracy for SVM classification algorithm is best (81.2%) when 237 hyperspectral bands were used and SAM classification algorithm has provided a better overall accuracy (76.6%) when maximum noise function (MNF) 11 bands were used. This research demonstrated the efficient use of contiguous fine bands of Hyperspectral data in discrimination and classification of vegetation species.
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干旱植被物种的高光谱数据分析:智能与可持续增长
高光谱图像是连续的窄光谱带,提供了丰富的信息,可用于不同的应用。近二十年来,高光谱遥感技术的发展为探索创新的植被物种研究方法提供了新的机遇。本研究利用240个波段,波长390 ~ 960 nm,光谱分辨率2.5 nm,空间分辨率1cm,距离10m的AISA可见光-近红外高光谱图像系统,对仙人掌、印楝和巴布尔等突出植被进行分类。采用机器学习监督分类算法对高光谱数据进行分类。在监督分类中,使用了四种方法,即光谱角映射器(SAM)、最小距离(MD)、支持向量机(SVM)和光谱信息发散(SID)分类器。利用环境可视化图像软件(Environment of visualimages, ENVI)对焦特布尔研究区植被种类分类的高光谱图像进行处理和分析。准确度评估也进行了分类输出图像和估计一个分类器的性能。当使用237个高光谱波段时,SVM分类算法的总体准确率最高(81.2%),而当使用最大噪声函数(MNF) 11个波段时,SAM分类算法的总体准确率最高(76.6%)。本研究证明了连续精细波段高光谱数据在植被种类识别和分类中的有效利用。
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