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用热来捕猎:蚊子、蛇和甲虫的热感觉驱动觅食。

Hunting with heat: thermosensory-driven foraging in mosquitoes, snakes and beetles.

机构信息

Department of Biology and Volen Center for Complex Systems, Brandeis University, Waltham, MA 02453, USA.

出版信息

J Exp Biol. 2023 Jul 1;226(13). doi: 10.1242/jeb.229658. Epub 2023 Jun 29.

Abstract

Animals commonly use thermosensation, the detection of temperature and its variation, for defensive purposes: to maintain appropriate body temperature and to avoid tissue damage. However, some animals also use thermosensation to go on the offensive: to hunt for food. The emergence of heat-dependent foraging behavior has been accompanied by the evolution of diverse thermosensory organs of often exquisite thermosensitivity. These organs detect the heat energy emitted from food sources that range from nearby humans to trees burning in a forest kilometers away. Here, we examine the biophysical considerations, anatomical specializations and molecular mechanisms that underlie heat-driven foraging. We focus on three groups of animals that each meet the challenge of detecting heat from potential food sources in different ways: (1) disease-spreading vector mosquitoes, which seek blood meals from warm-bodied hosts at close range, using warming-inhibited thermosensory neurons responsive to conductive and convective heat flow; (2) snakes (vipers, pythons and boas), which seek warm-blooded prey from ten or more centimeters away, using warmth-activated thermosensory neurons housed in an organ specialized to harvest infrared radiation; and (3) fire beetles, which maximize their offspring's feeding opportunities by seeking forest fires from kilometers away, using mechanosensory neurons housed in an organ specialized to convert infrared radiation into mechanosensory stimuli. These examples highlight the diverse ways in which animals exploit the heat emanating from potential food sources, whether this heat reflects ongoing metabolic activity or a recent lightning strike, to secure a nutritious meal for themselves or for their offspring.

摘要

动物通常利用温度感知(检测温度及其变化)来进行防御:保持适当的体温和避免组织损伤。然而,一些动物也利用温度感知来发起攻击:寻找食物。依赖热量的觅食行为的出现伴随着各种热敏感器官的进化,这些器官通常具有精妙的热敏性,可以检测到从附近人类到数公里外森林中燃烧的树木等食物来源所发出的热能。在这里,我们研究了支持热驱动觅食的生物物理考虑因素、解剖学特化和分子机制。我们重点介绍了三组动物,它们各自以不同的方式应对从潜在食物来源检测热量的挑战:(1) 传播疾病的蚊子,它们从近距离的温暖宿主身上寻找血液餐,利用对传导和对流热流敏感的变暖抑制热敏神经元;(2) 蛇(蝰蛇、蟒蛇和蚺蛇),它们从十多厘米外的温血猎物中寻找,利用专门用于采集红外线的器官中的温暖激活热敏神经元;(3) 火甲虫,它们利用专门的器官将红外线转化为机械感觉刺激,从数公里外寻找森林火灾,从而最大限度地增加后代的觅食机会。这些例子突出了动物利用潜在食物来源散发的热量的多种方式,无论这种热量反映了正在进行的代谢活动还是最近的雷击,都是为了确保自己或后代获得营养丰富的餐食。

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