A novel strategy to combat insecticide resistance in insect pest with a nanoparticle‐based fusion dsRNA delivery system

RNA干扰 RNA沉默 生物 基因沉默 生物技术 有害生物分析 病虫害综合治理 病虫害防治 核糖核酸 基因 遗传学 农学 植物
作者
Daqian He,Qinghong Zeng,Guo‐Hua Hu,Dan Sun,M. M. Zhang,Chang Yu,Yuanli Xie,Huazhong Zhou,Jianhong Li,Shun He,Hu Wan
出处
期刊:Pest Management Science [Wiley]
标识
DOI:10.1002/ps.8966
摘要

Abstract BACKGROUND The decline in pest control efficacy due to insecticide resistance remains a significant threat to global food security. While RNA interference (RNAi)‐mediated silencing of key resistance genes offers a promising strategy to mitigate this challenge, and field‐applicable targeting insecticide resistance remains limited. This study aimed to develop an RNAi‐based spray platform utilizing fusion dsRNA to restore the efficacy of insecticides. RESULTS In this study, a gene‐targeting strategy was employed to develop a sprayable resistance‐overcoming system, MON‐NH 2 /ds NlCYP6ER1‐CarE1 , through the self‐assembly of aminated mesoporous organosilica nanoparticles (MON‐NH 2 ) with fusion double‐stranded RNA (dsRNA). The MON‐NH 2 effectively protects dsRNA from degradation and enhances RNAi persistence. By suppressing the expression of resistance‐associated genes, NlCYP6ER1 and NlCarE1 , the system significantly increased the susceptibility of resistant Nilaparvata lugens populations to multiple insecticides under laboratory conditions. Field trials further demonstrated that the combined application of MON‐NH 2 /ds NlCYP6ER1‐CarE1 with insecticides significantly improved control efficacy against N. lugens . CONCLUSION This study introduces a gene‐targeted insecticide resistance management strategy utilizing fusion dsRNA to disrupt metabolic resistance pathways. Its field efficacy underscores the potential of RNAi to restore insecticide effectiveness and represents a paradigm shift toward mechanism‐driven pest control. © 2025 Society of Chemical Industry.
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