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空中电感受。

Aerial electroreception.

机构信息

School of Biological Sciences, University of Bristol, 24 Tyndall Avenue, Bristol BS8 1TQ, UK.

出版信息

Curr Biol. 2024 Oct 21;34(20):R1018-R1023. doi: 10.1016/j.cub.2024.06.028.

DOI:10.1016/j.cub.2024.06.028
PMID:39437720
Abstract

Electroreception is the capacity of living organisms to detect the presence of electricity, usually studied in the aquatic environment. Electroreception in air, however, has received much less attention until relatively recently. Understanding how and why aerial electroreception may work requires a multidisciplinary framework, anchored in both the physics of static electricity and the ecology of sensory biology. In essence, the novel challenge arises from the fact that air is a much less conductive medium than water. Yet, recent research on terrestrial arthropods, including bees, flies, spiders, worms and caterpillars, has unveiled sensitivity to electric fields in different sensory ecological contexts. For each aerial organism considered thus far, filiform hairs and/or the antennae have been proposed to be the specialised sensory structures enabling detection based on both empirical and theoretical evidence. This newfound sensory modality reveals a previously unrecognised source of information, a new informational ecological niche integral to diverse life histories and navigational abilities, which remarkably involves animals, plants and atmospheric electricity (Figure 1). Understanding aerial electroreception in arthropods opens avenues for exploring their behaviour and ecology in diverse environments and sheds light on the evolution of sensory adaptations in terrestrial organisms. Because, as is known today, humans are not sensitive to weak electric fields, challenges arise in our comprehension of the elusive and discrete nature of aerial electric fields, and how they could be detected and used by terrestrial organisms.

摘要

电感受是生物体检测电存在的能力,通常在水生环境中进行研究。然而,直到最近,空气中的电感受才受到较少关注。理解空气电感受如何以及为什么可能起作用需要一个多学科框架,该框架基于静电物理学和感官生物学生态学。从本质上讲,新的挑战源于这样一个事实,即空气是一种比水传导性差得多的介质。然而,最近对包括蜜蜂、苍蝇、蜘蛛、蠕虫和毛毛虫在内的陆地节肢动物的研究揭示了它们在不同感官生态环境中对电场的敏感性。对于迄今为止考虑的每一个空气生物,丝状毛发和/或触角都被提出是基于经验和理论证据的专门感觉结构,使检测成为可能。这种新发现的感觉方式揭示了一个以前未被识别的信息来源,这是一个新的信息生态位,是各种生命历史和导航能力的组成部分,其中涉及动物、植物和大气电(图 1)。了解节肢动物中的空气电感受为探索它们在不同环境中的行为和生态学开辟了途径,并揭示了陆地生物感官适应的进化。因为,正如今天所知,人类对弱电场不敏感,因此在理解难以捉摸和离散的空气电场的性质以及如何由陆地生物检测和利用这些电场方面存在挑战。

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