数字农科院2.0

Using UAVs in Potato Growing: Diseases Diagnostics, Liquid Spraying

文献类型: 外文期刊

作者: Elena Shkodina;Andrey Ronzhin;Hongbiao Ding

作者机构:

关键词: Artificial intelligence;Computer vision;Desiccation;Lidar;Novgorod;Potato;Potato diseases diagnostics;UAV;Unmanned aerial vehicles

期刊名称: Smart Innovation, Systems and Technologies

ISSN: 2190-3018

年卷期: 2026 年 453 SIST 卷

页码:

收录情况: EI(2025版)

摘要: The paper considers agricultural unmanned aerial vehicles in growing potatoes for monitoring soil relief, calculating plant biomass, diagnosing diseases, and applying liquid preparations. When using UAVs, it will be necessary to change the concentration of solutions of active substances used in classic versions of agricultural technologies based on ground sprayers. Also relevant is the development of artificial intelligence technologies for computer processing of data recorded by onboard lidars and video cameras to assess soil relief, the quality of potato tops, and diagnose diseases. The results of 2024 work on the creation of the Novgorod experimental field for testing new digital and robotic agricultural technologies are presented. A plan for conducting experimental work on potatoes has been formulated, which provides for growing potatoes using standard technology using ground-based equipment, as well as options in which the treatment of plantings using UAVs will be tested in operations for treating diseases, pests, and desiccating tops. For the application of liquid substances and field monitoring, our own agricultural unmanned aerial vehicles with a payload weight of 12 kg, a flight range of up to 25 km, a flight time of up to 20 min, equipped with quick-release specialized nozzles, video cameras are used.

分类号:

  • 相关文献

[1]A review of three-dimensional computer vision used in precision livestock farming for cattle growth management. Yaowu Wang,Sander Mücher,Wensheng Wang,Leifeng Guo,Lammert Kooistra. 2023

[2]Estimating LAI for Cotton Using Multisource UAV Data and a Modified Universal Model. Yan, Puchen,Han, Qisheng,Feng, Yangming,Kang, Shaozhong. 2022

[3]Maize height estimation using combined unmanned aerial vehicle oblique photography and LIDAR canopy dynamic characteristics. Tao Liu,Shaolong Zhu,Tianle Yang,Weijun Zhang,Yang Xu,Kai Zhou,Wei Wu,Yuanyuan Zhao,Zhaosheng Yao,Guanshuo Yang,Ying Wang,Chengming Sun,Jianjun Sun. 2024

[4]Combining UAV multisensor field phenotyping and genome-wide association studies to reveal the genetic basis of plant height in cotton (Gossypium hirsutum). Liqiang Fan,Jiajie Yang,Xuwen Wang,Zhao Liu,Bowei Xu,Li Liu,Chenxu Gao,Xiantao Ai,Fuguang Li,Lei Gao,Yu Yu,Zuoren Yang. 2025

[5]Dairy farming in the era of artificial intelligence: trend or a real game changer?. Oscar R. Espinoza-Sandoval,Juan Carlos Angeles-Hernandez,Manuel Gonzalez-Ronquillo,Navid Ghavipanje,Naifeng Zhang,A. R. Bayat,Gonzalo Hervás,Ahmed E. Kholif,Marcello Mele,Juan J. Loor,Sokratis Stergiadis,Einar Vargas-Bello-Pérez. 2024

[6]Estimation of Aboveground Biomass of Potatoes Based on Characteristic Variables Extracted from UAV Hyperspectral Imagery. Liu, Yang,Feng, Haikuan,Yue, Jibo,Li, Zhenhai,Jin, Xiuliang,Fan, Yiguang,Feng, Zhihang,Yang, Guijun. 2022

[7]Estimation of the nitrogen content of potato plants based on morphological parameters and visible light vegetation indices. Yiguang Fan,Haikuan Feng,Xiuliang Jin,Jibo Yue,Yang Liu,Zhenhai Li,Zhihang Feng,Xiaoyu Song,Guijun Yang. 2022

[8]Monitoring and Optimization of Potato Growth Dynamics under Different Nitrogen Forms and Rates Using UAV RGB Imagery. Yanran Ye,Liping Jin,Chunsong Bian,Jiangang Liu,Huachun Guo. 2024

[9]Multi-Feature Fusion for Estimating Above-Ground Biomass of Potato by UAV Remote Sensing. Guolan Xian,Jiangang Liu,Yongxin Lin,Shuang Li,Chunsong Bian. 2024

[10]基于GIS数据的城市路网快速三维建模. 梁其洋,潘瑜春,吴保国,郝星耀. 2018

[11]Pleiotropic roles of late embryogenesis abundant proteins of Deinococcus radiodurans against oxidation and desiccation. Yingying Liu,Chen Zhang,Zhihan Wang,Min Lin,Jin Wang,Min Wu. 2021

[12]Applicability of UAV-based optical imagery and classification algorithms for detecting pine wilt disease at different infection stages. Zhang N.,Chai X.,Li N.,Zhang J.,Sun T.. 2023

[13]Brandt’s vole hole detection and counting method based on deep learning and unmanned aircraft system. Wei Wu,Shengping Liu,Xiaochun Zhong,Xiaohui Liu,Dawei Wang,Kejian Lin. 2024

[14]An Adaptive Spiral Strategy Dung Beetle Optimization Algorithm: Research and Applications. Xiong Wang,Yi Zhang,Changbo Zheng,Shuwan Feng,Hui Yu,Bin Hu,Zihan Xie. 2024

[15]Ensemble Learning for Pea Yield Estimation Using Unmanned Aerial Vehicles, Red Green Blue, and Multispectral Imagery. Liu, Zehao,Ji, Yishan,Ya, Xiuxiu,Liu, Rong,Liu, Zhenxing,Zong, Xuxiao,Yang, Tao. 2024

[16]Coupled estimation of global 500m daily aerodynamic roughness length, zero-plane displacement height and canopy height. Zhong Peng,Ronglin Tang,Meng Liu,Yazhen Jiang,Zhao Liang Li. 2023

[17]Mangrove tree height growth monitoring from multi-temporal UAV-LiDAR. Yin D.,Wang L.,Lu Y.,Shi C.. 2024

[18]New insights on canopy heterogeneous analysis and light micro-climate simulation in Chinese solar greenhouse. Demin Xu,Haochong Chen,Fang Ji,Jinyu Zhu,Zhi Wang,Ruihang Zhang,Maolin Hou,Xin Huang,Dongyu Wang,Tiangang Lu,Jian Zhang,Feng Yu,Yuntao Ma. 2025

[19]Outdoor color rating of sweet cherries using computer vision. Wang, Qi,Wang, Hui,Xie, Lijuan,Zhang, Qin,Wang, Hui,Xie, Lijuan.

[20]Classification of weed seeds based on visual images and deep learning. Tongyun Luo,Jianye Zhao,Yujuan Gu,Shuo Zhang,Xi Qiao,Wen Tian,Yangchun Han. 2023

作者其他论文 更多>>