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一种独特但技术上简单的关节类型允许蝎子尾巴具有高度的活动性。

A unique yet technically simple type of joint allows for the high mobility of scorpion tails.

机构信息

Allgemeine & Spezielle Zoologie, Institut für Biowissenschaften, Universität Rostock, Universitätsplatz 2, 18055 Rostock, Germany.

Evolutionary Biology of Invertebrates, Institute of Evolution and Ecology, University of Tübingen, Auf der Morgenstelle 28E, 72076 Tübingen, Germany.

出版信息

J R Soc Interface. 2021 Sep;18(182):20210388. doi: 10.1098/rsif.2021.0388. Epub 2021 Sep 1.

Abstract

Although being one of the most well-known animal groups, functional and constructional aspects of scorpions and especially of their tail (metasoma) have so far been overlooked. This tail represents a special construction, as it consists of five tube-shaped segments made up of strong cuticle, which are movable against each other and thus manoeuvre the notorious stinger both quickly and very precisely in space. This high mobility of an exoskeletal structure can be attributed to the connection between the segments described here for the first time. This joint allows for the twisting and bending at the same time in a single, simple construction: adjoining metasomal segments each possess an almost circular opening posteriorly, where the next segment is lodged. Anteriorly, these segments possess two saddle-like protrusions laterally, which are able to rotate in two directions on the rim of the posterior circular opening of the previous segment allowing for twisting and bending. The metasomal joint is particularly noteworthy since its mechanism can be compared to that of arthropod appendages. The scorpion metasoma is actually the only known case in Chelicerata, in which an entire body section has been modified to perform tasks similar to that of an appendage while containing digestive organs. The joint mechanism can also inspire technical applications, for instance in robotics.

摘要

虽然蝎子是最著名的动物群体之一,但它们的功能和结构,尤其是它们的尾巴(尾节),迄今为止一直被忽视。这个尾巴代表了一种特殊的结构,因为它由五个管状节段组成,由坚固的角质层构成,这些节段可以相互移动,从而能够快速而非常精确地在空间中操纵臭名昭著的刺针。这种外骨骼结构的高机动性可以归因于这里首次描述的节段之间的连接。这个关节允许在一个简单的结构中同时扭曲和弯曲:相邻的尾节段每个都在后部有一个几乎圆形的开口,下一个节段就位于其中。在前面,这些节段在侧面各有两个鞍状突起,它们可以在之前节段的后部圆形开口的边缘上向两个方向旋转,从而实现扭曲和弯曲。尾节关节特别值得注意,因为它的机制可以与节肢动物附肢的机制相媲美。蝎子的尾节实际上是已知的螯肢动物中唯一的一个身体部分被修改为执行类似于附肢的任务,同时包含消化器官的例子。该关节机制也可以为技术应用提供灵感,例如在机器人技术中。

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