基于机载激光雷达影像的天山云杉林树高提取及蓄积量反演

doi:10.6048/j.issn.1001-4330.2023.04.021

新疆农业科学 ›› 2023, Vol. 60 ›› Issue (4): 958-964.DOI: 10.6048/j.issn.1001-4330.2023.04.021

• 园艺特产·林业·设施农业 • 上一篇下一篇

基于机载激光雷达影像的天山云杉林树高提取及蓄积量反演

曲延斌(), 王振锡(), 胡天祺, 董巍, 陈哲

新疆农业大学林学与风景园林学院/新疆教育厅干旱区林业生态与产业技术重点实验室,乌鲁木齐 830052

收稿日期:2022-09-05 出版日期:2023-04-20 发布日期:2023-05-06
通信作者: 王振锡(1977-),男,新疆喀什人,副教授,博士,硕士生导师,研究方向为林业3S技术及应用,(E-mail)wangzhenxi2003@163.com
作者简介:曲延斌(1995-),男,新疆巴州人,硕士研究生,研究方向为林业3S技术及应用,(E-mail)947965614@qq.com
基金资助:
新疆维吾尔自治区林业改革发展基金“新疆天保工程精准监测技术与评价体系研究”(XJTB20181102)

Extraction of the height of Picea schrenkiana var. tianshanica and inversion of accumulation volume based on airborne lidar images

QU Yanbin(), WANG Zhenxi(), HU Tianqi, DONG Wei, CHEN Zhe

Key Laboratory of Forestry Ecology and Industry Technology in Arid Region, Education Department of Xinjiang / College of Forestry and Horticulture, Xinjiang Agricultural University, Urumqi 830052, China

Received:2022-09-05 Online:2023-04-20 Published:2023-05-06
Correspondence author: WANG Zhenxi(1977-),male, native place: Xinjiang, professor, Research field: Forest ecosystem management, (E-mail)wangzhenxi2003@163.com
Supported by:
Forestry Reform and Development Fund Project of Xinjiang Uygur Autonomous Region of China “Research on the Precision Monitoring Technology and Evaluation System of Xinjiang Natural Forest Protection Project”(XJTB20181102)

摘要/Abstract

摘要：

【目的】研究提取影像高程数据建立模型反演天山云杉林分蓄积量,获得便捷、快速提取森林蓄积信息的技术方法,为研究山地天然林精准监测与评价提供技术途径。【方法】以新疆天山中部北坡天格尔森林公园天山云杉(Picea Schrenkiana var. tianshanica)为研究对象,机载激光雷达航拍影像与样地每木检尺为数据源,使用点云分类与克里金插值法对激光雷达影像高程数据进行提取获得天山云杉树高,根据样地实测数据构建胸径-树高模型,并根据胸径-树高模型天山云杉林林分蓄积量进行反演。【结果】激光雷达影像分辨率较高,经过点云分类后,采用克里金插值法提取的树高平均精度可达89.64%,幂函数曲线模型拟合度最高,R²为0.908,结合二元材积公式,基于激光雷达影像估测蓄积量与样地实测蓄积量对比,精度达到87.43%。【结论】采用克里金插值法对天山云杉林树高信息的提取效果较好,建立胸径-树高模型弥补了激光雷达不能对胸径直接测量的缺陷,反演天山云杉林林分蓄积量,该模型可满足对新疆山地天然林数字经营管理的标准。

关键词: 机载激光雷达; 天山云杉; 树高; 蓄积量

Abstract:

【Objective】The data that will be obtained is for building model to invert the accumulation of Picea schrenkiana var. tianshanica in the hope of providing a reference for the ecological restoration and scientific management of Picea schrenkiana var. tianshanica after the implementation of the natural forest protection project.【Methods】To extract the image elevation by using Picea schrenkiana var. tianshanica in the Tiangeer Forest Park on the northern slope of the central Tianshan Mountains in Xinjiang as the research object, and the airborne lidar aerial image and each wooden ruler of the sample plot as the data source. Point cloud classification and Kriging interpolation method were used to extract the height data of the UAV image to obtain the height of the Picea schrenkiana var.tianshanica, and at the same time to establish the DBH tree height model based on the measured data of the sample site, and finally the Picea schrenkiana var. tianshanica was inverted according to the DBH tree height model forest stand volume. 【Results】The UAV image had a high resolution. After point cloud classification, the average accuracy of the tree height extracted by the Kriging interpolation method reached 88.42%. By constructing the DBH tree height model, the power function curve model fit was obtained. The highest, R² was 0.730, combined with the binary volume formula, based on the comparison of the estimated volume of the UAV image with the measured volume of the sample site, the accuracy reached 87.66%.【Conclusion】The Kriging interpolation method has a good effect on the extraction of the height information of the Tianshan spruce forest. The establishment of the model of diameter of DBH makes up for the defect that the UAV cannot directly measure the diameter of the tree, and then inverts the accumulation of the Picea schrenkiana var. tianshanica. This provides a good reference for the restoration of natural forests in Xinjiang after the implementation of the “Natural Forest Protection” project.

Key words: airborne lidar; Picea schrenkiana var. tianshanica; tree height; accumulation

中图分类号:

S771

曲延斌, 王振锡, 胡天祺, 董巍, 陈哲. 基于机载激光雷达影像的天山云杉林树高提取及蓄积量反演[J]. 新疆农业科学, 2023, 60(4): 958-964.

QU Yanbin, WANG Zhenxi, HU Tianqi, DONG Wei, CHEN Zhe. Extraction of the height of Picea schrenkiana var. tianshanica and inversion of accumulation volume based on airborne lidar images[J]. Xinjiang Agricultural Sciences, 2023, 60(4): 958-964.

图/表 6

参考文献 18

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模型 Model	平方和 Sum of squares	df	均方 Mean square	F	Sig.	R²
回归 Return	2 334.187	1	2 334.187	1 150.511	0.000	0.886
残差 Residual	300.266	148	2.029

模型 Model	平方和 Sum of squares	df	均方 Mean square	F	Sig.	R²
回归 Return	2 334.187	1	2 334.187	1 150.511	0.000	0.886
残差 Residual	300.266	148	2.029

方程Model	R²	F	df1	df2
线性 Linear function(D=1.191×H-0.437)	0.901	891.645	1	98
对数 Logarithmic function(D=-40.431+21.547log(H))	0.878	702.104	1	98
倒数 Reciprocal function(D=41.808-341.66/H)	0.79	368.721	1	98
二次 Quadratic function(D=-1.969+1.358×H-0.004×H²)	0.902	446.552	2	97
三次 Cubic function(D=-1.913+1.348×H-0.004×H²-0.0009×H³)	0.905	306.307	3	96
复合 Function of function(D=7.337×1.058^H)	0.884	743.861	1	98
幂 Power function(D=(H×1.282)^0.872)	0.908	972.173	1	98
S曲线 S-curve(D=exp(4.030-17.037/H))	0.867	640.363	1	98
增长 Increasing function(D=exp(1.993+0.056×H))	0.884	743.861	1	98
指数 Exponential function(D=7.337×exp(0.056×H))	0.884	743.861	1	98
Logistic (D=1/(0.136×0.946^H))	0.884	743.861	1	98

方程Model	R²	F	df1	df2
线性 Linear function(D=1.191×H-0.437)	0.901	891.645	1	98
对数 Logarithmic function(D=-40.431+21.547log(H))	0.878	702.104	1	98
倒数 Reciprocal function(D=41.808-341.66/H)	0.79	368.721	1	98
二次 Quadratic function(D=-1.969+1.358×H-0.004×H²)	0.902	446.552	2	97
三次 Cubic function(D=-1.913+1.348×H-0.004×H²-0.0009×H³)	0.905	306.307	3	96
复合 Function of function(D=7.337×1.058^H)	0.884	743.861	1	98
幂 Power function(D=(H×1.282)^0.872)	0.908	972.173	1	98
S曲线 S-curve(D=exp(4.030-17.037/H))	0.867	640.363	1	98
增长 Increasing function(D=exp(1.993+0.056×H))	0.884	743.861	1	98
指数 Exponential function(D=7.337×exp(0.056×H))	0.884	743.861	1	98
Logistic (D=1/(0.136×0.946^H))	0.884	743.861	1	98

基于机载激光雷达影像的天山云杉林树高提取及蓄积量反演

Extraction of the height of Picea schrenkiana var. tianshanica and inversion of accumulation volume based on airborne lidar images

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