z Development of real-time laser-scanning system to detect tree canopy characteristics for variable-rate pesticide application

文献类型： 外文期刊

第一作者： Cai Jichen

作者： Cai Jichen;Zhao Chunjiang;Cai Jichen;Wang Xiu;Song Jian;Wang Songlin;Yang Shuo;Zhao Chunjiang;Cai Jichen;Wang Xiu;Song Jian;Wang Songlin;Yang Shuo;Zhao Chunjiang;Cai Jichen;Wang Xiu;Song Jian;Wang Songlin;Yang Shuo;Zhao Chunjiang

作者机构：

关键词： laser-scanning system;sensor;tree canopy;variable-rate spray;pesticide application efficiency;gridding volumes;calculation algorithm

期刊名称：INTERNATIONAL JOURNAL OF AGRICULTURAL AND BIOLOGICAL ENGINEERING （ 影响因子：2.032； 五年影响因子：2.137 ）

ISSN： 1934-6344

年卷期： 2017 年 10 卷 6 期

页码：

收录情况： SCI

摘要： Improving pesticide application efficiency is increasingly important in orchard spraying. In this study, a laser-scanning system was designed to acquire gridding volumes of a tree to quantify the geometry characteristics of the tree canopy in real-time. A laser-scanning sensor mounted on a linear guide was utilized to measure the structure of a target tree canopy. A computer was used to receive measurement data from the laser scanner and obtain the movement distance of the laser-scanning sensor from a controller. An algorithm written with VC# program was designed to calculate gridding volumes of trees by recognizing valid measurement data from the laser scanner. Laboratory evaluations were conducted on three kinds of regular objects, and the maximum relative errors of section volumes of the cuboid, triangular prism and cylinder objects were 3.3%, 7.9% and 9.4%, respectively, which illustrated that the algorithm could calculate the section volumes in different parts of the objects with high accuracy. A conifer tree and an apple tree were chosen to verify detecting accuracy of the laser-scanning system at variable speeds and grid sizes. The variation coefficients of total volumes for each kind of the tree were 0.078 and 0.041, respectively, which indicated that the laser-scanning system could be applied to provide the gridding volumes of different canopy densities in real-time with good reliability for guiding a variable-rate sprayer.

分类号：

  • 相关文献

[1]Spatial distribution visualization of PWAT continuous variable-rate spray. Wei, Deng,Zhao Chunjiang,Xiu, Wang,Huang, Yanbo,Liu Jinlong. 2013

[2]Evaluation of monosodium glutamate, disodium inosinate and guanylate umami taste by an electronic tongue. Yang, Yang,Chen, Qinqin,Shen, Cheng,Zhang, Shuming,Gan, Zhilin,Hu, Rui,Zhao, Jinhong,Ni, Yuanying,Yang, Yang,Gan, Zhilin,Hu, Rui,Zhao, Jinhong,Ni, Yuanying,Chen, Qinqin,Zhang, Shuming.

[3]DNAzyme-based biosensor for detection of lead ion: A review. Liang, Gang,Man, Yan,Li, An,Jin, Xinxin,Pan, Ligang,Liang, Gang,Man, Yan,Li, An,Jin, Xinxin,Pan, Ligang,Liang, Gang,Man, Yan,Li, An,Jin, Xinxin,Pan, Ligang,Liu, Xinhui.

[4]A Review on Leaf Temperature Sensor: Measurement Methods and Application. Yu, Lu,Wang, Wenli,Zhang, Xin,Zhang, Xin,Zheng, Wengang. 2016

[5]Heterogeneous synthesis of nitrogen-doped carbon dots prepared via anhydrous citric acid and melamine for selective and sensitive turn on-off-on detection of Hg (II), glutathione and its cellular imaging. lqbal, Anam,lqbal, Kanwal,Xu, Lige,Li, Bo,Gong, Deyan,Liu, Xiaoyu,Guo, Yali,Liu, Weisheng,Qin, Wenwu,lqbal, Anam,lqbal, Kanwal,Xu, Lige,Li, Bo,Gong, Deyan,Liu, Xiaoyu,Guo, Yali,Liu, Weisheng,Qin, Wenwu,lqbal, Anam,Guo, Huichen,lqbal, Anam,lqbal, Kanwal,Xu, Lige,Li, Bo,Gong, Deyan,Liu, Xiaoyu,Guo, Yali,Liu, Weisheng,Qin, Wenwu,Guo, Huichen,lqbal, Anam,lqbal, Kanwal,Xu, Lige,Li, Bo,Gong, Deyan,Liu, Xiaoyu,Guo, Yali,Liu, Weisheng,Qin, Wenwu,Guo, Huichen,Li, Bo,Liu, Xiaoyu. 2018

[6]Mycotoxin Determination in Foods Using Advanced Sensors Based on Antibodies or Aptamers. Xu, Lin,Zhang, Zhaowei,Zhang, Qi,Li, Peiwu,Xu, Lin,Li, Peiwu,Xu, Lin,Zhang, Zhaowei,Zhang, Qi,Li, Peiwu,Zhang, Qi,Li, Peiwu,Li, Peiwu. 2016

[7]Design of a suspended particles sensor based on laser backscattering theory that used in poultry housing and corral. Zhao, Xiande,Jiao, Leizi,Dong, Daming. 2015

[8]Highly sensitive and selective Cu2+ sensor based on electrospun rhodamine dye doped poly(ether sulfones) nanofibers. Min, Minghua,Wang, Lumin,Huang, Hongliang,Shi, Jiangao,Min, Minghua,Wang, Xuefen,Chen, Yanmo. 2013

[9]Preparation of a Xanthine Sensor Based on the Immobilization of Xanthine Oxidase on a Chitosan Modified Electrode by Cross-linking. Liu Yuge,Li Weiming,Wei Changbin,Lu Lingling. 2012

[10]A smartphone-based soil color sensor: For soil type classification. Han, Pengcheng,Dong, Daming,Zhao, Xiande,Jiao, Leizi,Lang, Yun.

作者其他论文 更多>>

微信小程序