Novel neonicotinoid flupyradifurone exhibits sublethal toxicity to natural enemies ladybeetles Propylea japonica by disturbing multi-level metabolic systems.

IF 11.3
Wei Li, Jiangwei Zheng, Yubing Ma, Yanrong Wu, Jie Liu, Shichang Zhang, Yao Zhao, Yu Peng
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Abstract

Flupyradifurone, a novel neonicotinoid insecticide widely used against sap-sucking pests, has poorly characterized sublethal effects on non-target natural enemies. We assessed sublethal effects of 0.5 and 3 mg/L flupyradifurone on Propylea japonica using biological, biochemical, transcriptomic, and metabolomic assays. Flupyradifurone significantly prolonged larval development and reduced adult body weight and fecundity, without affecting survival, pupation, or emergence. Enzyme activities (GST, POD and AChE) and nutritional substance contents (glycogen and free fatty acids) generally decreased at 12 and 24 h. However, CarE activity and total protein content showed no significant changes at 24 h. Transcriptomics analysis identified 1798 and 1607 differentially expressed genes, enriched in xenobiotic metabolism, immunity, and nutrient metabolism. Key genes GST, UGT, Duox, and TPS were significantly downregulated, whereas GLD was significantly upregulated, and Lys and FASN were significantly induced only at the low concentration. RNAi silencing of GST, UGT, Duox, TPS, and GLD increased ladybeetles susceptibility to flupyradifurone. Metabolomics analysis identified 483 and 508 differentially accumulated metabolites, with disruptions in glutathione, amino acid, and lipid metabolism. Thus, flupyradifurone suppresses detoxification and immunity, depletes energy reserves, and inhibits development and reproduction in P. japonica, highlighting the need to incorporate sublethal effects into ecological risk assessments.

新型新烟碱类氟吡喃醌通过干扰瓢虫的多层次代谢系统,对天敌瓢虫表现出亚致死毒性。
氟吡呋酮是一种新型的新烟碱类杀虫剂,广泛用于防治吸液害虫,但对非目标天敌的亚致死效果较差。我们通过生物学、生化、转录组学和代谢组学分析评估了0.5和3 mg/L氟吡地黄酮对日本丙烯的亚致死效应。氟吡喃酮显著延长了幼虫的发育,降低了成虫的体重和繁殖力,但不影响存活、化蛹或羽化。酶活性(GST、POD和AChE)和营养物质含量(糖原和游离脂肪酸)在12和24 h时普遍下降。而在24 h时,CarE活性和总蛋白含量无显著变化。转录组学分析鉴定出1798和1607个差异表达基因,富集于异种代谢、免疫和营养代谢。关键基因GST、UGT、Duox和TPS显著下调,GLD显著上调,Lys和FASN仅在低浓度下被显著诱导。GST、UGT、Duox、TPS和GLD的RNAi沉默增加了瓢虫对氟吡喃酮的敏感性。代谢组学分析鉴定出483和508种不同积累的代谢物,在谷胱甘肽、氨基酸和脂质代谢中受到破坏。因此,氟吡呋酮会抑制粳稻的解毒和免疫力,消耗能量储备,抑制发育和繁殖,突出表明有必要将亚致死效应纳入生态风险评估。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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