a Department of Life Sciences , Imperial College London , London , UK.
Pathog Glob Health. 2017 Dec;111(8):412-423. doi: 10.1080/20477724.2018.1438880. Epub 2018 Feb 19.
Self-propagating gene drive technologies have a number of desirable characteristics that warrant their development for the control of insect pest and vector populations, such as the malaria-transmitting mosquitoes. Theoretically easy to deploy and self-sustaining, these tools may be used to generate cost-effective interventions that benefit society without obvious bias related to wealth, age or education. Their species-specific design offers the potential to reduce environmental risks and aim to be compatible and complementary with other control strategies, potentially expediting the elimination and eradication of malaria. A number of strategies have been proposed for gene-drive based control of the malaria mosquito and recent demonstrations have shown proof-of-principle in the laboratory. Though several technical, ethical and regulatory challenges remain, none appear insurmountable if research continues in a step-wise and open manner.
自传播基因驱动技术具有许多理想的特性,值得开发用于控制害虫和病媒种群,例如传播疟疾的蚊子。这些工具理论上易于部署和自我维持,可以用于产生具有成本效益的干预措施,使社会受益,而不会因财富、年龄或教育程度而产生明显的偏见。它们的物种特异性设计有可能降低环境风险,并旨在与其他控制策略兼容和互补,有可能加速消除疟疾。已经提出了一些基于基因驱动的控制疟疾蚊子的策略,最近的实验室演示已经证明了其原理。尽管仍然存在一些技术、伦理和监管方面的挑战,但如果以逐步和开放的方式继续研究,这些挑战似乎都不是不可逾越的。