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Controlling invasive rodents via synthetic gene drive and the role of polyandry

机译:通过合成基因驱动控制入侵性啮齿动物和一妻多夫制的作用

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摘要

House mice are a major ecosystem pest, particularly threatening island ecosystems as a non-native invasive species. Rapid advances in synthetic biology offer new avenues to control pest species for biodiversity conservation. Recently, a synthetic sperm-killing gene drive construct called t-Sry has been proposed as a means to eradicate target mouse populations owing to a lack of females. A factor that has received little attention in the discussion surrounding such drive applications is polyandry. Previous research has demonstrated that sperm-killing drivers are extremely damaging to a male’s sperm competitive ability. Here, we examine the importance of this effect on the t-Sry system using a theoretical model. We find that polyandry substantially hampers the spread of t-Sry such that release efforts have to be increased three- to sixfold for successful eradication. We discuss the implications of our finding for potential pest control programmes, the risk of drive spread beyond the target population, and the emergence of drive resistance. Our work highlights that a solid understanding of the forces that determine drive dynamics in a natural setting is key for successful drive application, and that exploring the natural diversity of gene drives may inform effective gene drive design.
机译:家鼠是一种主要的生态系统害虫,尤其是作为非本地入侵物种威胁着岛屿生态系统。合成生物学的飞速发展为控制有害生物物种以保护生物多样性提供了新途径。近来,由于缺乏雌性动物,已经提出了一种合成的杀精子基因驱动构建体,称为t-Sry,作为消除靶标小鼠种群的一种手段。在关于此类驱动器应用的讨论中很少引起注意的一个因素是一妻多夫制。先前的研究表明,杀精子的司机会严重损害男性的精子竞争能力。在这里,我们使用理论模型研究了这种效应对t-Sry系统的重要性。我们发现,一妻多夫制在很大程度上阻碍了t-Sry的传播,因此为成功根除,释放工作必须增加三到六倍。我们讨论了我们的发现对潜在有害生物控制计划的意义,驱动力传播到目标人群之外的风险以及驱动力抗性的出现。我们的工作强调,对在自然环境中确定驱动动力学的力的扎实了解对于成功应用驱动至关重要,而探索基因驱动的自然多样性可能会为有效的基因驱动设计提供参考。

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