Insights into the toxicity effects of indoxacarb against Spodoptera frugiperda using metabolomics combined with mass spectrometry imaging.
IF 3.8
1区 农林科学
Q1 AGRONOMY
Lianlian Ma,Xuehua Shao,Yinyi Tang,Shuai Yang,Zhen Li,Zhixiang Zhang,Hanhong Xu,Xinzhou Wu
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Abstract
BACKGROUND
As one of the most destructive and invasive pests for various plants in China, Spodoptera frugiperda (Lepidoptera: Noctuidae) poses an enormous threat to food security and results in serious economic losses for harvesting and consumption of agricultural vegetables. To this end, indoxacarb has shown great promise as an effective insecticide against Spodoptera frugiperda. It is metabolized by insect esterases or amidases into the N-decarbomethoxy metabolite (DCJW), which is a key metabolite responsible for the insecticidal activity of indoxacarb. The efficiency of DCJW generation directly affects the efficacy of pest control against target species such as Spodoptera frugiperda. Despite these efforts, insights into in situ metabolic regulation of Spodoptera frugiperda toward indoxacarb remain unclear.
RESULTS
Herein, we systematically explored the toxic effects of indoxacarb on Spodoptera frugiperda, including growth and development, locomotion, feeding, enzyme activity, expression levels and spatial distribution of metabolites. After indoxacarb treatment for 48 h, Spodoptera frugiperda exhibited a longer movement distance and lower food consumption with detoxifying enzymes significantly affected. Combining complementary strengths of metabolomics and mass spectrometry imaging, this study not only identifies dysregulated metabolic changes in Spodoptera frugiperda but also visualizes the spatial distribution of key metabolites and lipids.
CONCLUSION
Collectively, the findings suggest that the high toxicity of indoxacarb regarding Spodoptera frugiperda may be due to the inhibition of purine and amino acid metabolism, and mitochondrial damage, providing new perspectives for deciphering the toxicity mechanism between pesticides and target organisms. © 2025 Society of Chemical Industry.
利用代谢组学结合质谱成像技术研究茚虫威对夜蛾的毒性作用。
背景夜蛾(Spodoptera frugiperda,鳞翅目:夜蛾科)是中国最具破坏性和入侵性的植物害虫之一,对粮食安全构成巨大威胁,给农业蔬菜的收获和消费造成严重的经济损失。因此,茚虫威作为一种有效的杀虫剂具有广阔的应用前景。它被昆虫酯酶或酰胺酶代谢成n -脱碳甲氧基代谢物(DCJW),这是茚虫威杀虫活性的关键代谢物。DCJW的生成效率直接影响到对目标害虫(如夜蛾)的防治效果。尽管做出了这些努力,但仍不清楚夜蛾对茚虫威的原位代谢调节。结果系统探讨了茚虫威对夜蛾生长发育、运动、摄食、酶活性、代谢产物表达水平及空间分布等方面的毒性作用。茚虫威处理48 h后,夜蛾的移动距离增加,食用量减少,解毒酶受到显著影响。结合代谢组学和质谱成像的互补优势,本研究不仅识别了夜蛾代谢失调的变化,而且可视化了关键代谢物和脂质的空间分布。结论茚虫威对夜蛾的高毒性可能与抑制夜蛾嘌呤和氨基酸代谢及线粒体损伤有关,为解读农药与靶生物的毒性机制提供了新的视角。©2025化学工业协会。
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