数字农科院2.0

The Potential of Using Different Legume Species in a Push-Pull Approach to Manage Spodoptera frugiperda in Maize in China

文献类型: 外文期刊

作者: Bi, Sijia;Wang, Yinhao;Xu, Tingting;Hu, Benjin;Wang, Zhenying;Jatoi, Wajid Ali;Hu, Fei;Xu, Lina

作者机构:

关键词: cowpea;fall armyworm;mung bean;push-pull strategy;repellent and attractant plants

期刊名称: JOURNAL OF APPLIED ENTOMOLOGY

ISSN: 0931-2048

年卷期: 2024 年

页码:

收录情况: SCIE(2024版)

摘要: Fall armyworm (FAW), Spodoptera frugiperda (Smith), a notorious pest native to the tropical and subtropical Americas, has recently invaded China, causing substantial damage to crops, particularly maize. The push-pull strategy has been reported to be an effective prevention measure for FAW in Africa, with maize-soybean intercropping significantly reducing FAW infestation. To assess the potential of legume hosts as 'push' or 'pull' plants to control FAW in maize, we employed life table analysis and indoor cage tests to investigate the offspring performance, feeding and oviposition preference of FAW on five selected legume species, namely mung bean (Vigna radiata L.), soybean (Glycine max L.), kidney bean (Phaseolus vulgaris L.), red bean (Vigna angularis Willd.) and cowpea (Vigna unguiculata L. Walp), with maize (Zea mays L.) as a control. Mung bean and cowpea were subsequently selected as repellent and attractant plant, respectively, to study FAW infestation levels in maize in the field. The results showed that maize was the most suitable host plant for FAW, as indicated by its shortest developmental duration and highest pupal weight. However, among all the tested legume species, cowpea was the best host for FAW, with shorter larval, pre-adult and adult durations than on the leaves of the other legumes. Moreover, the feeding and oviposition preference tests revealed that FAW had a strong preference for maize and cowpea, but strongly rejected mung bean. Compared with that in the maize monoculture group, the total number of eggs laid in the maize-mung group decreased by 67.25%, whereas that in the maize-cowpea group significantly increased by 2.04-fold in greenhouse tests. In the randomised block field experiment, the infestation of maize by FAW in the mung bean-cowpea system was significantly lower than that in the maize monoculture or in the system with maize surrounded only by cowpea. This study indicated that mung bean and cowpea are promising candidates as repellent plants (push) and attractant plants (pull), respectively, for intercropping with maize to reduce the damage caused by FAW.

分类号:

  • 相关文献

[1]Exploiting Push-Pull Strategy To Combat The Tea Green Leafhopper Based On Volatiles Of Lavandula Angustifolia And Flemingia Macrophylla. Wang Yun-gang,Han Bao-yu,Cui Lin,Wang Yan-su,Wang Meng-xin,Han Shan-jie. 2020

[2]Different dissipation potential and dietary risk assessment of tristyrylphenol ethoxylates in cowpea ecosystem in China. Li M.,Wang Q.,Li X.,Yue N.,Jin M.,Zheng L.,Wang J.,Jin F.. 2022

[3]Defensive Resistance of Cowpea Vigna unguiculata Control Megalurothrips usitatus Mediated by Jasmonic Acid or Insect Damage. Tao Li,Mingyue Feng,Yuanming Chi,Xing Shi,Zilin Sun,Zhen Wu,Aomei Li,Wangpeng Shi. 2023

[4]Evaluation of 41 Cowpea Lines Sown on Different Dates in Southern China. Dan Gong,Long Jia,Gaoling Luo,Yanhua Chen,Suhua Wang,Lixia Wang. 2023

[5]Parthenogenesis affects interspecific competition between Megalurothrips usitatus and Frankliniella intonsa (Thysanoptera: Thripidae) in changing environment: evidence from life table study. Guo, Ling-Hang,Wu, Sheng-Yong,Gong, Run-Na,Tang, Liang-De. 2023

[6]Neoseiulus mites as biological control agents against Megalurothrips usitatus (Thysanoptera: Thripidae) and Frankliniella intonsa (Thysanoptera: Thripidae) on cowpea crop: laboratory to field. Zhang, Yu-Fei,Zang, Lian-Sheng,Guo, Ling-Hang,Sukhwinder, Singh,Wu, Sheng-Yong,Yang, Xiangbing,Tang, Liang-De. 2024

[7]Residue behavior and quality influence of tolfenpyrad and cyromazine in cowpea during simulated household washing process. Shufan Jiang,Haoyue Li,Xuan Zhu,Shuhuai Li,Mingyue Wang,Defang Xie,Bei Li,Qiong Wu,Xinzhong Zhang,Bingjun Han. 2024

[8]In situ mass spectrometry imaging reveals pesticide residues and key metabolic pathways throughout the entire cowpea growth process. Shufan Jiang,Jingling Lin,Rui Zhang,Qiong Wu,Hongxing Li,Qun Zhang,Mingyue Wang,Longjun Dai,Defang Xie,Yue Zhang,Xinzhong Zhang,Bingjun Han. 2024

[9]Multiomics comprehensive analysis of pre-storage low-temperature on cowpea metabolism. Lichun Han,Zhengrong Wang,Qing Wang,Da Wen Sun,Xuelian He,Hongwei Wang,Lili Ma,Chunmei Bai,Christopher B. Watkins,Jinhua Zuo,Yanyan Zheng. 2024

[10]From field to table: Reducing residual toxicity and risk of four pesticides via washing and blanching of cowpea (Vigna unguiculata (L.) Walp.). Shuangwei Zhang,Yajing Guo,Shanshan Zhu,Linlin Guo,Xinglu Pan,Jun Xu,Fengshou Dong,Yongquan Zheng,Xiaohu Wu. 2025

[11]Monitoring invertebrate pests on cowpea crops across China using eDNA metabarcoding. Chen, Qi,Lv, Jun-Xian,Xie, Wen,Wang, Xing,Wei, Shu-Jun,Huang, Guo-Hua. 2025

[12]Greenhouse cultivation enhances pesticide bioaccumulation in cowpeas following repeated spraying. Kai Cui,Jian Wang,Guoping Ma,Shuai Guan,Jingyun Liang,Liping Fang,Teng Li,Zhan Dong,Ruiyan Ding,Xiaohu Wu,Yongquan Zheng. 2024

[13]Evaluation and Validation of Colloidal Gold Immunochromatographic Qualitative Testing Products for the Detection of Emamectin Benzoate, Isocarbophos, and Fipronil in Cowpea Samples. Song, Anning,Wang, Miao,She, Yongxin,Jin, Maojun,Cao, Zhen,Abd El-Aty, A. M.,Wang, Jing. 2025

[14]Identification and Analysis of WRKY Transcription Factors in Response to Cowpea Fusarium Wilt in Cowpea. Yali Hao,Rui Liu,Zhenchuan Mao,Qihong Yang,Shijie Zheng,Xiaofei Lu,Yuhong Yang,Bingyan Xie,Jianlong Zhao,Yan Li,Guohua Chen,Jian Ling. 2024

[15]Field-Based Evaluation of Insecticide Effectiveness on Megalurothrips usitatus in Guangdong, China: Implications for Pest Control Strategies. Peng, Zhengke,Li, Mengni,Guo, Chaosong,Zheng, Huixin,Wu, Mingyue,Yin, Fei,Xiao, Yong,Wang, Huanhuan,Kong, Xiangyi,Zalucki, Myron P.,Xie, Wen,Li, Zhenyu. 2025

[16]Contents of D-chiro-Inositol, Vitexin, and Isovitexin in Various Varieties of Mung Bean and Its Products. Yao Yang,Cheng Xu-zhen,Ren Gui-xing. 2011

[17]Mung Bean Decreases Plasma Cholesterol by Up-regulation of CYP7A1. Yao, Yang,Hao, Liu,Shi, Zhenxing,Wang, Lixia,Cheng, Xuzhen,Wang, Suhua,Ren, Guixing. 2014

[18]Functional properties of 8S globulin fractions from 15 mung bean (Vigna radiata (L.) Wilczek) cultivars. Liu, Hong,Liu, Hongkai,Yan, Lei,Kang, Yufan,Cheng, Xuzhen.

[19]A 90-day study of three bruchid-resistant mung bean cultivars in Sprague-Dawley rats. Yao, Yang,Cheng, Xuzhen,Ren, Guixing.

[20]Antioxidant and immunoregulatory activity of alkali-extractable polysaccharides from mung bean. Yao, Yang,Zhu, Yingying,Ren, Guixing,Zhu, Yingying.

作者其他论文 更多>>