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地下运动:日本鼹鼠(Mogera wogura)运动的运动学和肌电图研究。

Underground locomotion in moles: kinematic and electromyographic studies of locomotion in the Japanese mole (Mogera wogura).

机构信息

Department of Animal System Physiology, Yamaguchi University, Yamaguchi City, 753-8511, Japan.

The United Graduated School of Veterinary Science, Yamaguchi University, Yamaguchi City, 753-8511, Japan.

出版信息

J Comp Physiol B. 2021 Mar;191(2):411-425. doi: 10.1007/s00360-021-01346-0. Epub 2021 Feb 11.

DOI:10.1007/s00360-021-01346-0
PMID:33575865
Abstract

A series of kinematic and electromyographic (EMG) studies were conducted to characterize the neural control of underground movement in the Japanese mole, Mogera wogura. For the purposes of the present study, the locomotion of moles was classified into two modes: crawling, which comprises alternate movements of the left and right forelimbs; and burrowing, in which both forelimbs move synchronously. In crawling, moles exhibit both symmetrical and asymmetrical locomotion independent of cycle duration and speed of travel. In burrowing, the movements of fore- and hindlimbs, and of the left and right hindlimb are loosely coordinated. We divided cycles of limb movement into recovery stroke phase and power stroke phases and observed that control of cycle duration in forelimbs and hindlimbs was achieved through changes to both recovery and power stroke phases. Our results showed phasic EMG bursts in various muscles in moles, whose timing differed from that seen in terrestrial four-legged mammals such as cats and dogs. The difference was especially apparent in the m. longissimus, in which EMG bursts recorded at the level of the thoracic and lumbar vertebrae corresponded to movements of the forelimbs and hindlimbs, respectively. Thus, we conclude that moles have evolved a distinctive mechanism of neural control to perform their specialized forms of underground locomotion.

摘要

进行了一系列运动学和肌电图(EMG)研究,以描述日本鼹鼠 Mogera wogura 地下运动的神经控制。就本研究而言,鼹鼠的运动分为两种模式:爬行,包括左右前肢的交替运动;和挖掘,其中两个前肢同步移动。在爬行中,鼹鼠表现出与周期持续时间和行进速度无关的对称和不对称运动。在挖掘中,前肢和后肢以及左后肢和右后肢的运动是松散协调的。我们将肢体运动的周期分为恢复冲程阶段和动力冲程阶段,并观察到前肢和后肢的周期持续时间控制是通过改变恢复冲程和动力冲程阶段来实现的。我们的结果显示,鼹鼠的各种肌肉中存在相位 EMG 爆发,其时间与猫和狗等陆生四足哺乳动物的时间不同。差异在 m. longissimus 中尤为明显,在胸腰椎水平记录的 EMG 爆发分别对应于前肢和后肢的运动。因此,我们得出结论,鼹鼠已经进化出一种独特的神经控制机制,以执行其特殊形式的地下运动。

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