数字农科院2.0

The invasion of fall armyworm and green pest control: an analysis of farmers' willingness to adopt genetically modified insect-resistant maize in Southwest China

文献类型: 外文期刊

作者: Huang, Yanfang;Zhang, Minglong;Jia, Xiangping;Nie, Fengying;Yang, Xianming;Wu, Kongming

作者机构:

关键词: Adoption willingness;fall armyworm;genetically modified insect-resistant maize;genetically modified technology;green pest control

期刊名称: GM CROPS & FOOD-BIOTECHNOLOGY IN AGRICULTURE AND THE FOOD CHAIN

ISSN: 2164-5698

年卷期: 2025 年 16 卷 1 期

页码:

收录情况: SCIE(2025版)

摘要: The invasion of fall armyworm poses a serious threat to global food security, necessitating the urgent promotion of environmentally friendly pest control technologies. As a key strategy in green pest control, the effectiveness of genetically modified (GM) insect-resistant crops largely depends on the extent of farmer acceptance. Based on survey data from 426 GM maize pilot farmers in Yunnan Province, this study employs an ordered Logit model to analyze the key factors influencing farmers' adoption intentions from a behavioral decision-making perspective. The results indicate that (1) cognition, value orientation, and social trust are the primary drivers of farmers' willingness to adopt GM maize; (2) the impact of risk perception is context-dependent, exerting a significant positive moderating effect on planting decisions among farmers with higher levels of social trust; (3) planting experience reinforces the effects of cognition and social trust and amplifies the role of value orientation. This study provides policy-relevant insights for the industrial promotion of GM crops and the green control of fall armyworms, with important implications for safeguarding national food security.

分类号:

  • 相关文献

[1]Quality assessment of Telenomus remus successively reared on Spodoptera litura eggs for 30 generations. Chen, Wanbin,Liu, Huan,Chen, Bin,Chen, Junjie,Wang, Mengqing,Shen, Zhongjian,Li, Yuyan,Mao, Jianjun,Zhang, Lisheng. 2023

[2]Global genomic signature reveals the evolution of fall armyworm in the Eastern hemisphere. Zhang, Lei,Li, Zaiyuan,Peng, Yan,Liang, Xinyue,Wilson, Kenneth,Chipabika, Gilson,Karangwa, Patrick,Uzayisenga, Bellancile,Mensah, Benjamin A.,Kachigamba, Donald L.,Xiao, Yutao. 2023

[3]Management of Spodoptera frugiperda J.E. Smith Using Recycled Virus Inoculum from Larvae Treated with Baculovirus under Field Conditions. Allan Mweke,Ivan Rwomushana,Arthur Okello,Duncan Chacha,Jingfei Guo,Belinda Luke. 2023

[4]Cold storage effects on biological parameters of Telenomus remus, a promising egg parasitoid of Spodoptera frugiperda, reared on Spodoptera litura eggs. Chen, Wanbin,Li, Yuyan,Zhang, Changhua,Jia, Fangzhao,Zhang, Maosen,Wang, Mengqing,Mao, Jianjun,Zhang, Lisheng. 2022

[5]Push-pull plants in wheat intercropping system to manage Spodoptera frugiperda. Liu, Huan,Cheng, Yumeng,Wang, Qian,Liu, Xiaobei,Fu, Yu,Zhang, Yong,Chen, Julian. 2022

[6]Population occurrence of the fall armyworm, Spodoptera frugiperda (Lepidoptera: Noctuidae), in the winter season of China. . 2020

[7]Management of Spodoptera frugiperda JE Smith Using Recycled Virus Inoculum from Larvae Treated with Baculovirus under Field Conditions. Mweke, Allan,Rwomushana, Ivan,Okello, Arthur,Chacha, Duncan,Guo, Jingfei,Luke, Belinda. 2023

[8]Morphological defense of the egg mass of Spodoptera frugiperda (Lepidoptera: Noctuidae) affects parasitic capacity and alters behaviors of egg parasitoid wasps. Hui Dong,Kai hui Zhu,Qian Zhao,Xue ping Bai,Jin cheng Zhou,Li sheng Zhang. 2021

[9]Transcriptome Analysis of Detoxification-Related Genes in Spodoptera frugiperda (Lepidoptera: Noctuidae). Haoliang Chen,Minghui Xie,Lulu Lin,Yongzhi Zhong,Feng Zhang,Weihua Su. 2022

[10]High virulence of a naturally occurring entomopathogenic fungal isolate, Metarhizium (Nomuraea) rileyi, against Spodoptera frugiperda. Zhang Yan-li,Dong Hui,Zhang Li-sheng,Gu Zu-min,Zhou Jin-cheng. 2022

[11]Understanding the Feeding Behavior and Identifying the Plant Parts Preferences of Fall Armyworm on Peanut Seedlings. Yuanyuan Cheng,Lulu Liu,Hongmei Li,Xianming Yang,Suqin Shang. 2024

[12]Sensitivities of Fall Armyworm (Spodoptera frugiperda) Populations in Different Regions of China to Four Bt Proteins. Yanfang Zhou,Chunmeng Huang,Yi Chen,Lanzhi Han,Jiajian Xie,Xiuping Chen. 2023

[13]The Potential of Using Different Legume Species in a Push-Pull Approach to Manage Spodoptera frugiperda in Maize in China. Bi, Sijia,Wang, Yinhao,Xu, Tingting,Hu, Benjin,Wang, Zhenying,Jatoi, Wajid Ali,Hu, Fei,Xu, Lina. 2024

[14]Knockout of the delta11-desaturase SfruDES1 disrupts sex pheromone biosynthesis, mating and oviposition in the fall armyworm, Spodoptera frugiperda. Shi L.,Liu X.,Liu H.,Shan S.,Shen S.,Bai M.,Lan H.,Khashaveh A.,Gu S.,Zhang Y.. 2024

[15]Demographic analysis of the biological parameters of Spodoptera frugiperda after sublethal exposure to insecticides. Lulu Lin,Minghui Xie,Yongzhi Zhong,Guangling Zhang,Feng Zhang,Haoliang Chen. 2024

[16]Heterologous expression of taxane genes confers resistance to fall armyworm in Nicotiana benthamiana. Xu, Zhenlu,Zhai, Yaohua,Chang, Huimin,Yan, Da,Ge, Pengliang,Ren, Guangming,Zhang, Lijun,Yuan, Ye,Wang, Ruoyan,Li, Wentao,Li, Fuguang,Ren, Maozhi,Mo, Huijuan. 2024

[17]Biology of fall armyworm – an introduction. Elvira S. de Lange,Yutao Xiao,Leo W. Beukeboom. 2023

[18]An Internal Marking Method for Adult Spodoptera frugiperda Smith Using an Artificial Diet Containing Calco Oil Red N-1700. Shishuai Ge,Bo Chu,Xiaoting Sun,Jiajie Ma,Xianming Yang,Kongming Wu. 2024

[19]Synergistic mechanism of botanical pesticide camptothecin encapsulated in a nanocarrier against fall armyworm: Enhanced stability and amplified growth suppression. Xinzheng Huang,Xueqi Ni,Huali Li,Ying Wei,Zeng Wang,Cong'ai Zhen,Meizhen Yin,Jie Shen,Wangpeng Shi,Yongjun Zhang,Shuo Yan. 2024

[20]Population genomics of migratory and resident Spodoptera frugiperda reveals key genes and loci driving migration traits. Sun, Zhongxiang,Fu, Pengfei,Chen, Yaping,Lu, Zhihui,Wan, Fanghao,Gui, Furong. 2025

作者其他论文 更多>>