Potential pesticide substrates of an insect ABCC transporter

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.

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Publication Details

Journal
Insect Science
Published
2024-11-29
DOI
https://doi.org/10.1111/1744-7917.13476
Citations
6
Primary Topic
Drug Transport and Resistance Mechanisms
Type
article
Field-Weighted Citation Impact
1.70

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article

Potential pesticide substrates of an insect ABCC transporter

Wei Liu, Jinli Chen, Dong Wang, Qing Yang et al.
6 citations
Insect Science
Drug Transport and Resistance Mechanisms
1.70
article

Potential pesticide substrates of an insect ABCC transporter

Wei Liu, Jinli Chen, Dong Wang, Qing Yang, Yuanyuan Zhou
article en
6 citations

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.

Insect ScienceVol. 32(6)
Dalian University of Technology (CN), Agricultural Genomics Institute at Shenzhen (CN), Dalian University (CN), Institute of Plant Protection (CN), Chinese Academy of Agricultural Sciences (CN), Ministry of Agriculture and Rural Affairs (CN)
National Natural Science Foundation of China, Chinese Academy of Sciences, National Key Research and Development Program of China, Institute of Biophysics, Chinese Academy of Sciences
Openalex Percentile: Top 13%
Drug Transport and Resistance Mechanisms
1.70
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