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陀螺优势:蛙类补偿运动的系统发生模式。

A gyroscopic advantage: phylogenetic patterns of compensatory movements in frogs.

机构信息

Department of Zoology, Faculty of Science, Charles University, Viničná 7, CZ-12843 Prague, Czech Republic.

Applied Neurosciences and Brain Imaging, National Institute of Mental Health, Topolová 748, CZ-25067 Klecany, Czech Republic.

出版信息

J Exp Biol. 2019 Jan 18;222(Pt 2):jeb186544. doi: 10.1242/jeb.186544.

DOI:10.1242/jeb.186544
PMID:30446541
Abstract

Head and eye compensatory movements known as vestibulo-ocular and vestibulo-cervical reflexes are essential to stay orientated in space while moving. We have used a previously developed methodology focused on the detailed mathematical description of head compensatory movements in frogs without the need for any surgical procedures on the examined specimens. Our comparative study comprising 35 species of frogs from different phylogenetic backgrounds revealed species-specific head compensatory abilities ensuring gaze stabilization. Moreover, we found a strong phylogenetic signal highlighting the great ability of compensatory head movements in families of Pyxicephalidae and Rhacophoridae from the Natatanura group. By contrast, families of Dendrobatidae and Microhylidae exhibited only poor or no head compensatory movements. Contrary to our expectation, the results did not corroborate an ecomorphological hypothesis anticipating a close relationship between ecological parameters and the head compensatory movements. We did not find any positive association between more complex (3D structured, arboreal or aquatic) habitats or more saltatory behavior and elevated abilities of head compensatory movements. Moreover, we found compensatory movements in most basal Archeobatrachia, giving an indication of common ancestry of these abilities in frogs that are variously pronounced in particular families. We hypothesize that the uncovered proper gaze stabilization during locomotion provided by the higher head compensatory abilities can improve or even enable visual perception of the prey. We interpret this completely novel finding as a possible gyroscopic advantage in a foraging context. We discuss putative consequences of such advanced neuromotor skills for diversification and ecological success of the Natatanura group.

摘要

头部和眼部代偿运动,即前庭眼反射和前庭颈反射,对于在运动中保持空间定向至关重要。我们使用了一种先前开发的方法,该方法侧重于对青蛙头部代偿运动进行详细的数学描述,而无需对检查标本进行任何手术。我们的比较研究包括来自不同系统发育背景的 35 种青蛙,揭示了确保凝视稳定的物种特异性头部代偿能力。此外,我们发现了一个强烈的系统发育信号,突出了来自 Natatanura 组的 Pyxicephalidae 和 Rhacophoridae 科的代偿头部运动的巨大能力。相比之下,Dendrobatidae 和 Microhylidae 科的代偿头部运动能力很差或根本没有。与我们的预期相反,结果并没有证实一个生态形态学假说,即生态参数与头部代偿运动之间存在密切关系。我们没有发现更复杂的(3D 结构、树栖或水生)栖息地或更跳跃行为与头部代偿运动能力的提高之间存在任何正相关。此外,我们在大多数基础的 Archeobatrachia 中发现了代偿运动,这表明这些能力在青蛙中具有共同的祖先,在特定的科中表现出不同的程度。我们假设,在运动过程中通过更高的头部代偿能力实现的适当凝视稳定,可以改善甚至使猎物的视觉感知成为可能。我们将这种完全新颖的发现解释为在觅食环境中可能存在的陀螺优势。我们讨论了这种先进的神经运动技能对 Natatanura 组的多样化和生态成功的潜在影响。

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A gyroscopic advantage: phylogenetic patterns of compensatory movements in frogs.陀螺优势:蛙类补偿运动的系统发生模式。
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