The Crustacean Antennule: A Complex Organ Adapted for Lifelong Function in Diverse Environments and Lifestyles.

IF 2.1 4区 生物学 Q2 BIOLOGY Biological Bulletin Pub Date : 2021-04-01 Epub Date: 2021-03-30 DOI:10.1086/713537
Charles D Derby
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引用次数: 7

Abstract

AbstractThe crustacean first antenna, or antennule, has been an experimental model for studying sensory biology for over 150 years. Investigations have led to a clearer understanding of the functional organization of the antennule as an olfactory organ but also to a realization that the antennule is much more than that. Across the Crustacea, the antennules take on many forms and functions. As an example, the antennule of reptantian decapods has many types of sensilla, each with distinct structure and function and with hundreds of thousands of chemosensory neurons expressing hundreds of genes that code for diverse classes of receptor proteins. Together, these antennular sensilla represent multiple chemosensory pathways, each with its own central connections and functions. The antennule also has a diversity of sensors of mechanical stimuli, including vibrations, touch, water flow, and the animal's own movements. The antennule likely also detects other environmental cues, such as temperature, oxygen, pH, salinity, and noxious stimuli. Furthermore, the antennule is a motor organ-it is flicked to temporally and spatially sample the animal's chemo-mechanical surroundings-and this information is used in resolving the structure of chemical plumes and locating the odor source. The antennule is also adapted to maintain lifelong function in a changing environment. For example, it has specific secretory glands, grooming structures, and behaviors to stay clean and functional. Antennular sensilla and the annuli on which they reside are also added and replaced, leading to a complete turnover of the antennule over several molts. Thus, the antennule is a complex and dynamic sensory-motor integrator that is intricately engaged in most aspects of the lives of crustaceans.

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甲壳类动物触角:在不同环境和生活方式下适应终身功能的复杂器官。
摘要150多年来,甲壳类动物的第一触角一直是研究感觉生物学的实验模型。研究已经导致了一个更清晰的理解的功能组织的触角作为一个嗅觉器官,但也认识到,触角远不止于此。在整个甲壳类动物中,触角具有多种形式和功能。例如,爬行类十足类动物的触角触角具有多种类型的感受器,每种感受器都具有不同的结构和功能,并且具有数十万个化学感觉神经元,表达数百种编码不同类型受体蛋白的基因。这些触角状感受器共同代表了多种化学感觉通路,每一种都有自己的中心连接和功能。触角还具有多种机械刺激传感器,包括振动、触摸、水流和动物自身的运动。触角可能还能探测到其他环境信号,如温度、氧气、pH值、盐度和有害刺激。此外,触角是一种运动器官——它被轻弹以在时间和空间上对动物的化学机械环境进行采样——这些信息用于解析化学羽状物的结构和定位气味来源。天线还适应在不断变化的环境中保持终身功能。例如,它有特定的分泌腺、梳理结构和保持清洁和功能的行为。触角感受器和它们所在的环也被添加和替换,导致触角在几次蜕皮中完全翻转。因此,触角是一个复杂的、动态的感觉-运动集成器,它复杂地参与了甲壳类动物生活的大多数方面。
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来源期刊
Biological Bulletin
Biological Bulletin 生物-海洋与淡水生物学
CiteScore
3.30
自引率
6.20%
发文量
47
审稿时长
6-12 weeks
期刊介绍: The Biological Bulletin disseminates novel scientific results in broadly related fields of biology in keeping with more than 100 years of a tradition of excellence. The Bulletin publishes outstanding original research with an overarching goal of explaining how organisms develop, function, and evolve in their natural environments. To that end, the journal publishes papers in the fields of Neurobiology and Behavior, Physiology and Biomechanics, Ecology and Evolution, Development and Reproduction, Cell Biology, Symbiosis and Systematics. The Bulletin emphasizes basic research on marine model systems but includes articles of an interdisciplinary nature when appropriate.
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