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角质层蛋白通过在叶螨中产生一种诱饵环状RNA来介导抗逆性的进化。

Cuticle protein mediates the evolution of stress resistance by generating a decoy circular RNA in spider mite.

作者信息

Feng Kaiyang, Zhao Mingyu, Jiang Zhixin, Chen Sihan, Yang Ya, Chen Qingying, Wen Xiang, Xu Lin, Yang Yuhan, Xu Zhifeng, Niu Jinzhi, Dou Wei, He Lin

机构信息

Key Laboratory of Entomology and Pest Control Engineering, College of Plant Protection, Southwest University, Chongqing, China.

Key Laboratory of Agricultural Biosafety and Green Production of Upper Yangtze River, Ministry of Education, Chongqing, China.

出版信息

Sci Adv. 2025 Jun 20;11(25):eads3361. doi: 10.1126/sciadv.ads3361. Epub 2025 Jun 18.

Abstract

Phytophagous mites, including , are arthropods known for their wide infestation of host plants and pesticide resistance. We found that fenpropathrin-resistant female mites (YN-FeR, with target resistance: F1538I mutation) exhibited significantly enhanced adaptability to various stress conditions, including exposure to different acaricides and high-temperature (34°C) and low-humidity environments (40% relative humidity). This evolution was attributed to cuticle thickening in resistant female mites. Cuticle protein was identified as a critical gene mediating cuticle thickening. regulated its own overexpression by producing a circular RNA, named , which acted as a decoy to selectively sequester and bind to the miR-34~317 cluster. This study revealed a distinctive mechanism underlying the evolution of stress resistance in spider mites. Specifically, a cuticle protein in spider mites regulates its own overexpression by producing a decoy circRNA, thereby promoting cuticle thickening and facilitating rapid adaptation to adverse conditions.

摘要

植食性螨类,包括 ,是节肢动物,以对寄主植物的广泛侵染和抗药性而闻名。我们发现,对甲氰菊酯具有抗性的雌性螨类(YN-FeR,具有靶标抗性:F1538I突变)对各种胁迫条件表现出显著增强的适应性,包括接触不同的杀螨剂以及高温(34°C)和低湿度环境(相对湿度40%)。这种进化归因于抗性雌性螨类的表皮增厚。表皮蛋白 被鉴定为介导表皮增厚的关键基因。 通过产生一种名为 的环状RNA来调节自身的过表达,该环状RNA作为诱饵选择性地隔离并结合到miR-34~317簇。本研究揭示了叶螨抗逆性进化背后的独特机制。具体而言,叶螨中的一种表皮蛋白通过产生诱饵环状RNA来调节自身的过表达,从而促进表皮增厚并有助于快速适应不利条件。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/f19e/12175905/900aae80bdd0/sciadv.ads3361-f1.jpg

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