Visualization analysis in research progress of pesticide droplet wetting and spreading based on CiteSpace

doi:10.13733/j.jcam.issn.2095‑5553.2024.08.011

Abstract

Abstract: In order to accurately grasp the status， hotspots and trends of research in the field of pesticide droplet wetting and spreading， with the help of the CiteSpace software and based on the literature samples from nearly 30 years obtained from CNKI and WOS databases， a visual analysis was carried out in the terms of the number of publications， countries， institutions， authors， research hotspots and evolutionary trends. The results showed that the research on pesticide droplet wetting and spreading was in a stage of rapid development at home and abroad， and the annual number of publications showed a surge. In 2021, the annual number of publications in Chinese and foreign literature has reached 78 and 53, respectively. Meanwhile， the stable core author groups and publishing institutions have been formed， but the cooperative relationship among various groups or various institutions was weak. In this field， China and America were the main research countries， and China had the most publications （109 foreign literature）， but the influence of these literatures （Centrality 0.09） was far less than that of America （Centrality 0.46）. In terms of research hotspots， domestic researches focused on practical aspects， such as exploring spraying parameters， droplet behavior analysis， pesticide chemical selection and combinations. Apart from the hotspots above， international researches also focused on innovation aspects， including the development of new pesticide materials， new spraying equipment and technologies. In the future， researches related to unmanned aerial vehicle application technology will be a scientific hotspot in this field.

Key words: pesticide droplet, wetting and spreading, knowledge map, unmanned aerial vehicle application, visual analysis

摘要： 为精准把握农药雾滴润湿展布领域的研究现状、热点及趋势，借助CiteSpace软件，基于CNKI和WOS数据库获得的近30年的文献样本，从发文量、国家、机构、作者、研究热点、演进趋势等方面进行可视化分析。结果表明:当前国内外关于农药雾滴润湿展布的研究均处于飞速发展阶段，年发文量呈现激增态势，2021年中、外文文献的发文量分别达到78篇和53篇，而且已形成稳定的核心作者群及发文机构，但各群体、机构间的合作关系较弱；在该领域，中、美是主要的研究国家，中国的发文量最多(109篇)，但文献的影响力（中介中心性0.09）却远不如美国（中介中心性0.46）；在研究热点方面，国内的研究侧重点在于探索喷施参数、雾滴行为分析、药剂选择组合等实践层面，而国际上的侧重点还包括研制新型农药物资、开发新型施药设备及技术等创新层面的研究；未来，与无人机施药技术相关的研究将会是该领域的研究热点。

关键词: 农药雾滴, 润湿展布, 知识图谱, 无人机施药, 可视化分析

CLC Number:

S48
G353.1

Huang Lusheng, , Peng Mingjian, Gao Rong, , Wen Sheng, , Lan Yubin, Zhang Jiantao, , . Visualization analysis in research progress of pesticide droplet wetting and spreading based on CiteSpace[J]. Journal of Chinese Agricultural Mechanization, 2024, 45(8): 69-76.

黄路生, 彭铭键, 高荣, 文晟, 兰玉彬, 张建桃, . 基于CiteSpace的农药雾滴润湿展布研究进展可视化分析[J]. 中国农机化学报, 2024, 45(8): 69-76.

References

[ 1 ] Chen H， Lan Y， Fritz B K， et al. Review of agricultural spraying technologies for plant protection using unmanned aerial vehicle （UAV） [J]. International Journal of Agricultural and Biological Engineering， 2021， 14（1）: 38-49.
[ 2 ] Zhao X， Cui H， Wang Y， et al. Development strategies and prospects of nano‑based smart pesticide formulation [J]. Journal of Agricultural and Food Chemistry， 2018， 66（26）: 6504-6512.
[ 3 ] 杨云海，赵芸，王凯博，等. 农药助剂对70%吡虫啉水分散粒剂在小麦叶片上附着性能的影响[J]. 云南农业大学学报（自然科学）， 2019， 34（6）: 954-964.
[ 4 ] Ji G， Chen H， Zhang Y， et al. Leaf surface characteristics affect the deposition and distribution of droplets in rice （Oryza sativa L.） [J]. Scientific Reports， 2021， 11（1）: 17846.
[ 5 ] Dorr G J， Kempthorne D M， Mayo L C， et al. Towards a model of spray‑canopy interactions: Interception， shatter， bounce and retention of droplets on horizontal leaves [J]. Ecological Modelling， 2014， 290: 94-101.
[ 6 ] 张慧春，郑加强，周宏平，等. 农药喷施过程中雾滴沉积分布与脱靶飘移研究[J]. 农业机械学报， 2017， 48（8）: 114-122.
Zhang Huichun， Zheng Jiaqiang， Zhou Hongping， et al.Droplet deposition distribution and off‑target drift during pesticide spraying operation [J]. Transactions of the Chinese Society for Agricultural Machinery， 2017， 48（8）: 114-122.
[ 7 ] 孙艳红，张钰杉，杨卓娟. 荷叶、水稻叶接触角随温度变化的实验研究[J]. 吉林工程技术师范学院学报， 2017， 33（6）: 102-104.
[ 8 ] 陈悦，陈超美，刘则渊，等. CiteSpace知识图谱的方法论功能[J]. 科学学研究， 2015， 33（2）: 242-253.
[ 9 ] 黄现民，樊平，闵建美，等. 国际土壤农药污染研究进展与前沿——基于CiteSpace分析[J]. 土壤， 2021， 53（4）: 764-770.
Huang Xianmin， Fan Ping， Min Jianmei， et al. Research progress and frontier of pesticide contamination in soil: Based on CiteSpace analysis [J]. Soils， 2021， 53（4）: 764-770.
[10] 银霞，黄建安，黄静，等. 基于CiteSpace可视化分析的茶叶香气研究进展[J]. 茶叶科学， 2020， 40（2）: 143-156.
Yin Xia， Huang Jian􀆳an， Huang Jing， et al. Research progress of tea aroma based on CiteSpace visual analysis [J]. Journal of Tea Science， 2020， 40（2）: 143-156.
[11] 张永强，王飞钊，谢锦钿，等. 不同植保器械在水稻不同生育期喷施农药的沉积率及雾滴参数[J]. 农药学学报， 2022， 24（2）: 376-384.
Zhang Yongqiang， Wang Feizhao， Xie Jintian， et al. Pesticide deposition rates and droplet parameters of different plant protection instruments applied at different growth stages of rice [J]. Chinese Journal of Pesticide Science， 2022， 24（2）: 376-384.
[12] 曾梦蝶，孟令涛，曹洪玉，等. 三种复配增效剂对除草剂的增效作用[J]. 农药学学报， 2022， 24（2）: 361-367.
Zeng Mengdie， Meng Lingtao， Cao Hongyu， et al. Synergistic effects of three synergists on herbicides [J]. Chinese Journal of Pesticide Science， 2022， 24（2）: 361-367.
[13] 王潇楠，王思威，刘艳萍，等. 四种喷雾助剂对25%噻虫嗪水分散粒剂在豇豆叶片表面润湿性能的影响[J/OL]. 吉林农业大学学报: 1-7[2022-08-10]. https://doi.org/10.13327/j.jjlau.2020.5837.
[14] 徐德进，徐广春，徐鹿，等. 喷雾参数对自走式喷杆喷雾机稻田喷雾农药利用率及雾滴沉积分布的影响[J]. 农药学学报， 2020， 22（2）: 324-332.
Xu Dejin， Xu Guangchun， Xu Lu， et al. Effects of spray parameters on pesticide utilization efficiency and droplet deposition distribution in paddy field of self‑propelled boom sprayer [J]. Chinese Journal of Pesticide Science， 2 020， 22（2）: 324-332.
[15] 范鹏，顾中言，徐德进，等. 不同浓度的甲氨基阿维菌素苯甲酸盐微乳剂药液的表面张力及其在甘蓝叶面的润湿展布动态[J]. 江苏农业学报， 2011， 27（3）: 510-515.
Fan Peng， Gu Zhongyan， Xu Dejin， et al. Surface tension and wet‑spreading dynamics of emamection‑benzoate ME withdifferent concentrations on cabbage leaf [J]. Jiangsu Journal of Agricultural Sciences， 2011， 27（3）: 510-515.
[16] 兰玉彬，单常峰，王庆雨，等. 不同喷雾助剂在植保无人机喷施作业中对雾滴沉积特性的影响[J]. 农业工程学报， 2021， 37（16）: 31-38.
Lan Yubin， Shan Changfeng， Wang Qingyu， et al. Effects of different spray additives on droplet deposition characteristics during plant protection UAV spraying operations [J]. Transactions of the Chinese Society of Agricultural Engineering， 2021， 37（16）: 31-38.
[17] Liu Q， Chen S， Wang G， et al. Drift evaluation of a quadrotor unmanned aerial vehicle （UAV） sprayer: Effect of liquid pressure and wind speed on drift potential based on wind tunnel test [J]. Applied Sciences‑Basel， 2021， 11（16）: 7258.
[18] Xu L， Zhu H， Ozkan H E， et al. Adjuvant effects on evaporation time and wetted area of droplets on waxy leaves [J]. Transactions of the ASABE， 2010， 53（1）: 13-20.
[19] Cao C， Song Y， Zhou Z， et al. The role of adhesion force in the bouncing height of pesticide nanoparticles on the rice （Oryza sativa） leaf surface [J]. Journal of Molecular Liquids， 2018， 272: 92-96.
[20] Lebeau F， Verstraete A， Stainier C， et al. RTDrift: A real time model for estimating spray drift from ground applications [J]. Computers and Electronics in Agriculture， 2011， 77（2）: 161-174.
[21] Zhang B， Tang Q， Chen L， et al. Numerical simulation of spray drift and deposition from a crop spraying aircraft using a CFD approach [J]. Biosystems Engineering， 2018， 166: 184-199.
[22] 李继宇，胡潇丹，兰玉彬，等. 基于文献计量学的2001—2020全球农用无人机研究进展[J]. 农业工程学报， 2021， 37（9）: 328-339.
Li Jiyu， Hu Xiaodan， Lan Yubin， et al. Research advance on worldwide agricultural UAVs in 2001—2020 based on bibliometrics [J]. Transactions of the Chinese Society of Agricultural Engineering， 2021， 37（9）: 328-339.
[23] 郭世俭，宋会鸣. 两种喷撒技术雾滴在花椰菜上的沉积分布研究[J]. 植物保护， 1996（2）: 11-12.
[24] 袁会珠，陈万权，杨代斌，等. 药液浓度、雾滴密度与氧乐果防治麦蚜的关系研究[J]. 农药学学报， 2000（1）: 58-62.
Yuan Huizhu， Chen Wanquan， Yang Daibin， et al.Relationship between the efficacy of wheat aphids control and the omethoate concentration， droplets density [J]. Chinese Journal of Pesticide Science， 2000（1）: 58-62.
[25] 袁会珠，齐淑华，杨代斌. 药液在作物叶片的流失点和最大稳定持留量研究[J]. 农药学学报， 2000（4）: 66-71.
Yuan Huizhu， Qi Shuhua， Yang Daibin.Study on the point of run‑off and the maximum retention of spray liquid on crop leaves [J]. Chinese Journal of Pesticide Science， 2000（4）: 66-71.
[26] 何雄奎. 中国植保机械与施药技术研究进展[J]. 农药学学报， 2019， 21（Z1）: 921-930.
He Xiongkui. Research and development of crop protection machinery and chemical application technology in China [J]. Chinese Journal of Pesticide Science， 2019， 21（Z1）: 921-930.
[27] 王振，李光玉，高越，等. 嘧霉胺悬浮剂的润湿性能及其靶标表面性质研究[J]. 农药学学报， 2012， 14（5）: 551-556.
Wang Zhen， Li Guangyu， Gao Yue， et al. Study of wettability and target surface properties of pyrimethanil SC [J]. Chinese Journal of Pesticide Science， 2012， 14（5）: 551-556.
[28] 顾中言，许小龙，韩丽娟. 不同表面张力的杀虫单微乳剂药滴在水稻叶面的行为特性[J]. 中国水稻科学， 2004（2）: 90-94.
Gu Zhongyan， Xu Xiaolong， Han Lijuan. Action of drops of monosultap ME with different surface tension on rice leaf [J]. Chinese Journal of Rice Science， 2004（2）: 90-94.
[29] 范鹏，顾中言，徐德进，等. 能在水稻叶上润湿铺展的甲维盐微乳剂的研制[J]. 江苏农业学报， 2009， 25（5）: 1019-1024.
Fan Peng， Gu Zhongyan， Xu Dejin， et al. Studies on ME of emamection‑benzoate which enhanced wetting and spreading performance on rice leaf [J]. Jiangsu Journal of Agricultural Sciences， 2009， 25（5）: 1019-1024.
[30] 石辉，王会霞，李秧秧. 植物叶表面的润湿性及其生态学意义[J]. 生态学报， 2011， 31（15）: 4287-4298.
Shi Hui， Wang Huixia， Li Yangyang. Wettability on plant leaf surface and its ecological significance [J]. Acta Ecologica Sinica， 2011， 31（15）: 4287-4298.
[31] 周志艳，明锐，臧禹，等. 中国农业航空发展现状及对策建议[J]. 农业工程学报， 2017， 33（20）: 1-13.
Zhou Zhiyan， Ming Rui， Zang Yu， et al. Development status and countermeasures of agricultural aviation in China [J]. Transactions of the Chinese Society of Agricultural Engineering， 2017， 33（20）: 1-13.
[32] 刘晓慧，袁亮亮，石鑫，等. 植保施药机械喷雾雾滴飘移研究进展[J]. 农药学学报， 2022， 24（2）: 232-247.
Liu Xiaohui， Yuan Liangliang， Shi Xin， et al. Research progress on spray driftof droplets of plant protection machinery [J]. Chinese Journal of Pesticide Science， 2022， 24（2）: 232-247.
[33] 陈吟，齐浩亮，张龙，等. 大田环境中不同助剂和喷头对无人机喷洒雾滴分布和漂移的影响[J]. 华南农业大学学报， 2020， 41（6）: 50-58.

[1]	Zhou Shumei, , Li Jingjing, , Lu Na, . Knowledge map analysis of agricultural irrigation water resources value based on CiteSpace [J]. Journal of Chinese Agricultural Mechanization, 2023, 44(3): 141-148.
[2]	Li Zhixuan, Xiang Yun, Lu Qian.. Research progress, hotspots and prospects in the field of highquality development of agricultural economy: Visual analysis based on CiteSpace [J]. Journal of Chinese Agricultural Mechanization, 2022, 43(7): 106-115.