阿维菌素
生物安全
风险分析(工程)
输送系统
杀虫剂
生物技术
生化工程
晋升(国际象棋)
不利影响
自然(考古学)
风险评估
毒理
业务
化工产品
环境科学
药物输送
农药
天然化合物
化学
计算机科学
生物杀虫剂
医学
生物
农药残留
药理学
作者
Dong Wen,Chengli Xu,Jiaqing Li,Kunwei Hua,Zhuangzhuang Qiao,Xu Cheng,Weihua Ma,Wanlun Cai,Lizhen Chen
摘要
BACKGROUND: Nanopesticides are deemed to significantly reduce the adverse effects of traditional chemical pesticides on the environment and organisms, but scientific evidence is lacking to support this claim. RESULTS: = 14.849 mg/L), while significantly enhancing its predatory ability, individual development, fecundity, and population growth. Meanwhile, its insecticidal activity against Megoura crassicauda did not differ significantly from that of AVM. Analysis of stress-related enzymes activity revealed that AVM@LGN induced a moderate physiological metabolic response in H. axyridis compared to AVM. Transcriptome diversity suggested that the gene expression levels among the different treatments shared a similar trend. Besides affecting the expression of genes involved in longevity regulation and insect hormone biosynthesis, AVM treatment also altered genes related to signal transduction and metabolic detoxification, whereas the differentially expressed genes (DEGs) induced by AVM@LGN were mainly associated with the penetration resistance of H. axyridis. CONCLUSION: In summary, we demonstrate that AVM@LGN significantly relieved adverse effects of AVM posed to H. axyridis. These results provide a reference for future biosafety assessments of nano-lignin coated pesticide formulations and offers theoretical support for the promotion and application of AVM@LGN. © 2025 Society of Chemical Industry.
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