人工蜂群算法优化SVR的叶面积指数反演

周晓雪; 李楠; 潘耀忠; 孙莉昕

doi:10.11834/jrs.20229298

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人工蜂群算法优化SVR的叶面积指数反演
Optimized SVR based on artificial bee colony algorithm for leaf area index inversion
2022年26卷第4期页码：766-780
纸质出版日期： 2022-04-07 ，
DOI： 10.11834/jrs.20229298

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周晓雪，李楠，潘耀忠，孙莉昕.2022.人工蜂群算法优化SVR的叶面积指数反演.遥感学报，26（4）： 766-780

Zhou X X，Li N，Pan Y Z and Sun L X. 2022. Optimized SVR based on artificial bee colony algorithm for leaf area index inversion. National Remote Sensing Bulletin， 26（4）：766-780
周晓雪，李楠，潘耀忠，孙莉昕.2022.人工蜂群算法优化SVR的叶面积指数反演.遥感学报，26（4）： 766-780 DOI： 10.11834/jrs.20229298.

Zhou X X，Li N，Pan Y Z and Sun L X. 2022. Optimized SVR based on artificial bee colony algorithm for leaf area index inversion. National Remote Sensing Bulletin， 26（4）：766-780 DOI： 10.11834/jrs.20229298.

摘要

支持向量机回归SVR（Support Vector Regression）方法作为叶面积指数反演的一种新思路，在LAI反演中具有一定的应用价值和前景，但SVR算法中惩罚系数

、核函数宽度参数

、不敏感损失函数参数

的取值对回归精度有显著的影响。本文提出了一种基于人工蜂群算法ABC（Artificial Bee Colony）优化SVR参数的遥感影像叶面积指数反演方法。研究数据为美国土壤水分实验（SMEX02）2002年LAI实测数据和同期的Landsat 7 ETM+地表反射率数据，为了验证ABC算法优化SVR各个参数对反演精度的影响，建立了未优化参数（SVR）、优化单个参数（ABC-SVR-

，ABC-SVR-

）、优化3个参数（ABC-SVR）的3类LAI反演模型，并比较了其回归拟合精度。在此基础上，分析了3个关键参数对LAI反演模型精度的敏感性，并对ABC算法优化SVR模型的精度进行显著性检验。研究表明：（1）相比未优化参数模型，ABC算法优化模型具有更高的反演精度，优化3个参数优于优化单个参数，回归直线斜率

达到0.797、决定系数

达到0.775。（2）SVR的3个关键参数对模型精度都有影响，相较参数

和

，参数

引起模型精度的不确定性更高。（3）95%的置信区间下，ABC-SVR模型与SVR模型的回归直线斜率

、

、RMSE的差异显著性检验

值均小于0.005，ABC算法显著改善了SVR模型的精度。

Abstract

Support Vector Regression (SVR) method as a new idea in LAI inversion has certain application value and prospect. However

the value of penalty coefficient

width parameter g of kernel function and insensitive loss function parameter

http://html.publish.founderss.cn/rc-pub/api/common/picture?pictureId=36316336&type=

http://html.publish.founderss.cn/rc-pub/api/common/picture?pictureId=36316333&type=

1.18533325

2.28600001

in the SVR algorithm have a significant impact on regression accuracy. This paper proposed a method for Leaf Area Index (LAI) inversion using remote sensing images based on ABC (Artificial Bee Colony) algorithm to optimize SVR parameters. In addition

the LAI measurement values were from the Soil Moisture Experiment 2002 in US (SMEX02) and Landsat 7 ETM + surface reflectance data at the same time. In order to verify the effect of SVR optimized by ABC

this paper established three types of LAI inversion models with non-optimized parameters(SVR)

optimized single parameter(ABC-SVR-

ABC-SVR-

)

and optimized three parameters (ABC-SVR)

and compared the accuracy of the three kinds of models. Based on this

we analyzed the sensitivity of LAI inversion model of three key parameters of SVR

and did a significant test on the accuracy of the ABC algorithm optimized SVR model. The study showed: (1) Compared with the model without optimizing parameters

the four models with the SVR parameters optimized by ABC algorithm had higher accuracy

and the optimized three parameters model had better accuracy than the model with optimizing single parameter

the slope of regression straight line reaching 0.797 and decision coefficient reaching 0.775. (2) The three key parameters of SVR have an influence on the accuracy of the LAI model

and compared with the parameters

and

the parameter

is more uncertain to the accuracy of the model. (3) At the confidence interval of 95%

the

value of difference significance test on the slope

and RMSE between ABC-SVR model and SVR model all less than 0.005

indicated that the ABC algorithm significantly improved the accuracy of the SVR model.

关键词

支持向量机回归SVR人工蜂群算法ABC参数优化Landsat 7叶面积指数LAI

Keywords

Support Vector Regression (SVR)Artificial Bee Colony (ABC) algorithmparameter optimizationLandsat 7Leaf Area Index (LAI)

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