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胡须作为觅食海豹的水动力猎物传感器。

Whiskers as hydrodynamic prey sensors in foraging seals.

机构信息

National Institute of Polar Research, Tokyo 190-8518, Japan.

Department of Biological Sciences, Graduate School of Science, The University of Tokyo, Tokyo 113-0032, Japan.

出版信息

Proc Natl Acad Sci U S A. 2022 Jun 21;119(25):e2119502119. doi: 10.1073/pnas.2119502119. Epub 2022 Jun 13.

DOI:10.1073/pnas.2119502119
PMID:35696561
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC9231483/
Abstract

The darkness of the deep ocean limits the vision of diving predators, except when prey emit bioluminescence. It is hypothesized that deep-diving seals rely on highly developed whiskers to locate their prey. However, if and how seals use their whiskers while foraging in natural conditions remains unknown. We used animal-borne tags to show that free-ranging elephant seals use their whiskers for hydrodynamic prey sensing. Small, cheek-mounted video loggers documented seals actively protracting their whiskers in front of their mouths with rhythmic whisker movement, like terrestrial mammals exploring their environment. Seals focused their sensing effort at deep foraging depths, performing prolonged whisker protraction to detect, pursue, and capture prey. Feeding-event recorders with light sensors demonstrated that bioluminescence contributed to only about 20% of overall foraging success, confirming that whiskers play the primary role in sensing prey. Accordingly, visual prey detection complemented and enhanced prey capture. The whiskers' role highlights an evolutionary alternative to echolocation for adapting to the extreme dark of the deep ocean environment, revealing how sensory abilities shape foraging niche segregation in deep-diving mammals. Mammals typically have mobile facial whiskers, and our study reveals the significant function of whiskers in the natural foraging behavior of a marine predator. We demonstrate the importance of field-based sensory studies incorporating multimodality to better understand how multiple sensory systems are complementary in shaping the foraging success of predators.

摘要

深海的黑暗限制了潜水捕食者的视力,除非猎物发出生物发光。据推测,深海潜水的海豹依赖高度发达的胡须来定位猎物。然而,海豹在自然条件下是否以及如何使用它们的胡须觅食仍然未知。我们使用动物携带的标签表明,自由游动的象海豹利用它们的胡须进行水动力猎物感知。小型的、安装在脸颊上的视频记录仪记录到海豹在嘴前有节奏地伸展胡须,就像陆地哺乳动物探索环境一样。海豹在深觅食深度集中进行感知努力,通过长时间的胡须伸展来探测、追逐和捕捉猎物。带有光传感器的进食事件记录器表明,生物发光对整体觅食成功率的贡献仅约为 20%,证实了胡须在感知猎物方面发挥着主要作用。因此,视觉猎物探测补充并增强了猎物捕获。胡须的作用凸显了一种适应深海极端黑暗环境的替代回声定位的进化选择,揭示了感官能力如何塑造深海潜水哺乳动物的觅食生态位分化。哺乳动物通常具有可移动的面部胡须,我们的研究揭示了胡须在海洋捕食者自然觅食行为中的重要功能。我们证明了在野外进行多模态感官研究的重要性,以更好地了解多个感官系统在塑造捕食者的觅食成功率方面是如何互补的。

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Forced into an ecological corner: Round-the-clock deep foraging on small prey by elephant seals.被逼入生态绝境:南象海豹对小型猎物进行全天候深度觅食
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Lightscapes of fear: How mesopredators balance starvation and predation in the open ocean.
将环斑海豹的觅食行为与环境变化联系起来。
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Making sense of vertebrate senses from a neural crest and cranial placode evo-devo perspective.从神经嵴和颅基板演化发育的角度理解脊椎动物的感官。
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Describing the musculature of mystacial pads in harbour seals (Phoca vitulina) using diceCT.使用容积CT扫描技术描述港海豹(Phoca vitulina)吻垫的肌肉组织。
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Deep-sea cabled video-observatory provides insights into the behavior at depth of sub-adult male northern elephant seals, Mirounga angustirostris.深海有缆视频观测站揭示了南方象海豹亚成体雄性个体在深海中的行为。
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