The Center for Evolution & Medicine, Arizona State University, Tempe, AZ, USA.
School of Life Sciences, Arizona State University, Tempe, AZ, USA.
J Insect Sci. 2024 Jan 1;24(1). doi: 10.1093/jisesa/ieae007.
Chemical-based interventions are mostly used to control insects that are harmful to human health and agriculture or that simply cause a nuisance. An overreliance on these insecticides however raises concerns for the environment, human health, and the development of resistance, not only in the target species. As such, there is a critical need for the development of novel nonchemical technologies to control insects. Electrocution traps using UV light as an attractant are one classical nonchemical approach to insect control but lack the specificity necessary to target only pest insects and to avoid harmless or beneficial species. Here we review the fundamental physics behind electric fields (EFs) and place them in context with electromagnetic fields more broadly. We then focus on how novel uses of strong EFs, some of which are being piloted in the field and laboratory, have the potential to repel, capture, or kill (electrocute) insects without the negative side effects of other classical approaches. As EF-insect science remains in its infancy, we provide recommendations for future areas of research in EF-insect science.
基于化学物质的干预措施主要用于控制对人类健康和农业有害或仅仅造成滋扰的昆虫。然而,过度依赖这些杀虫剂不仅对目标物种,而且对环境、人类健康和抗药性的发展都提出了担忧。因此,迫切需要开发新型非化学技术来控制昆虫。利用紫外线作为引诱剂的电击陷阱是一种经典的非化学昆虫控制方法,但缺乏必要的特异性,无法仅针对害虫,并且无法避免无害或有益的物种。在这里,我们回顾了电场(EF)背后的基本物理学,并将其置于更广泛的电磁场背景下。然后,我们专注于如何利用强大的电场进行新的应用,其中一些已经在现场和实验室中进行试点,有可能在不产生其他经典方法的负面影响的情况下驱赶、捕获或杀死(电击)昆虫。由于 EF-昆虫科学仍处于起步阶段,我们为 EF-昆虫科学的未来研究领域提供了建议。