From the Lab to the Field: Translating Applications of Near-Infrared Light from Laboratory to the Field to Improve Honeybee Mitochondrial Function and Hive Health.

Jaimie Hoh Kam, Christophe Brod, Anthony Gourde, Muriel Brod, Glen Jeffery
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Abstract

Objective: Bee populations are under threat from diverse sources from climate change to insecticide use. These culminate in physiological stress undermining mitochondrial function. In laboratory environments, mitochondrial stress can be ameliorated by long wavelength light that protects insects individually against stress. In this study, we ask if these results can be translated to large insect communities and complex environments in the form of field honeybee hives. Materials and methods: We embed 670 nm light devices into honeybee hives in the field, and in sampled populations measure mitochondrial function, resistance to insecticide exposure, and the maintenance of hive temperatures in challenging summer conditions. Results: We show that 670 nm light increases the mitochondrial function and protects bees when they are exposed to imidacloprid in the winter supplementary feed. Hives with 670 nm lights maintained stable temperatures compared with controls in adverse weather conditions. Conclusions: This proof-of-principal study opens the door to widespread use of long wavelength light to protect honeybee hives from the increasing threats undermining their physiology that can cause colony collapse.

从实验室到现场:翻译近红外光从实验室到现场的应用,以改善蜜蜂线粒体功能和蜂巢健康。
目的:蜜蜂种群正受到从气候变化到杀虫剂使用等多种因素的威胁。这些生理压力最终破坏线粒体功能。在实验室环境中,线粒体压力可以通过长波长的光来改善,这种光可以保护昆虫个体免受压力。在这项研究中,我们想知道这些结果是否可以转化为大型昆虫群落和复杂的野外蜂箱环境。材料和方法:我们在野外将670 nm光装置嵌入蜂箱中,并在取样的种群中测量线粒体功能,对杀虫剂暴露的抗性以及在具有挑战性的夏季条件下保持蜂箱温度。结果:670 nm光增强了线粒体功能,并对冬季补充饲料中吡虫啉的蜜蜂起到保护作用。在恶劣的天气条件下,与对照组相比,670 nm光源的蜂巢保持稳定的温度。结论:这项主要的研究为广泛使用长波长的光来保护蜂巢免受越来越多的威胁打开了大门,这些威胁破坏了它们的生理机能,可能导致蜂群崩溃。
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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