Potential pesticide substrates of an insect ABCC transporter.

IF 2.9 1区 农林科学 Q1 ENTOMOLOGY
Jinli Chen, Dong Wang, Wei Liu, Yuanyuan Zhou, Qing Yang
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引用次数: 0

Abstract

The use of synthetic pesticides carries a significant risk of pests developing resistance, leading to decreased pesticide effectiveness. ATP-binding cassette (ABC) transporters, especially the ABCC subfamily members, have been suggested to act as efflux pumps for various pesticides, thereby contributing to pesticide resistance. So far, the identification of potential pesticide substrates of insect ABC transporters is most often based on the quantification of transcript in arthropods. Here, we screened and identified the potential pesticide substrates of ABCC-9C from Tribolium castaneum based on an in vitro ATPase activity assay. Together with affinity evaluation-, cytotoxicity analysis-, and RNA interference-based bioactivity tests, we revealed that the insecticides, carbofuran, and buprofezin, are potential substrates of TcABCC-9C. Additionally, we identified an amphipathic translocation channel in the transmembrane domain of TcABCC-9C formed by 8 transmembrane helices. Molecular docking suggested that both carbofuran and buprofezin bind at the same site within the translocation channel via hydrophobic interactions. These findings indicate that TcABCC-9C might play a critical role in multi-pesticide resistance, providing a potential target for managing pesticide resistance and laying the groundwork for future pest control strategies. Given the conservations among ABCC subfamily members, the experimental model we developed in this study can be also applied to identify the potential substrates of other ABCC transporters, as well as to predict insecticide resistance mediated by ABCC transporters.

昆虫ABCC转运体的潜在农药底物。
使用合成杀虫剂有很大的风险,可能导致害虫产生抗药性,从而降低杀虫剂的效力。atp结合盒(ABC)转运体,特别是ABCC亚家族成员,被认为是多种农药的外排泵,从而有助于农药抗性。到目前为止,鉴定昆虫ABC转运体的潜在农药底物通常是基于节肢动物转录物的定量。本研究通过体外atp酶活性测定,筛选和鉴定了木栗中ABCC-9C潜在的农药底物。结合亲和性评价、细胞毒性分析和基于RNA干扰的生物活性测试,我们发现杀虫剂、呋喃和丁丙嗪是TcABCC-9C的潜在底物。此外,我们在TcABCC-9C的跨膜结构域中发现了一个由8个跨膜螺旋形成的两性易位通道。分子对接表明,carbofuran和buprofezin通过疏水相互作用结合在易位通道内的同一位点。这些结果表明,TcABCC-9C可能在多种农药抗性中发挥关键作用,为农药抗性管理提供了潜在靶点,并为未来的害虫防治策略奠定了基础。鉴于ABCC亚家族成员之间的保守性,我们在本研究中建立的实验模型也可用于鉴定其他ABCC转运体的潜在底物,以及预测ABCC转运体介导的杀虫剂抗性。
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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来源期刊
Insect Science
Insect Science 生物-昆虫学
CiteScore
7.80
自引率
5.00%
发文量
1379
审稿时长
6.0 months
期刊介绍: Insect Science is an English-language journal, which publishes original research articles dealing with all fields of research in into insects and other terrestrial arthropods. Papers in any of the following fields will be considered: ecology, behavior, biogeography, physiology, biochemistry, sociobiology, phylogeny, pest management, and exotic incursions. The emphasis of the journal is on the adaptation and evolutionary biology of insects from the molecular to the ecosystem level. Reviews, mini reviews and letters to the editor, book reviews, and information about academic activities of the society are also published.
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