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哺乳动物耳蜗的进化途径。

Evolutionary paths to mammalian cochleae.

机构信息

Cochlear and Auditory Brainstem Physiology, IBU, Faculty V, Carl von Ossietzky University Oldenburg, Carl von Ossietzky Strasse 9-11, 26129 Oldenburg, Germany.

出版信息

J Assoc Res Otolaryngol. 2012 Dec;13(6):733-43. doi: 10.1007/s10162-012-0349-9. Epub 2012 Sep 15.

Abstract

Evolution of the cochlea and high-frequency hearing (>20 kHz; ultrasonic to humans) in mammals has been a subject of research for many years. Recent advances in paleontological techniques, especially the use of micro-CT scans, now provide important new insights that are here reviewed. True mammals arose more than 200 million years (Ma) ago. Of these, three lineages survived into recent geological times. These animals uniquely developed three middle ear ossicles, but these ossicles were not initially freely suspended as in modern mammals. The earliest mammalian cochleae were only about 2 mm long and contained a lagena macula. In the multituberculate and monotreme mammalian lineages, the cochlea remained relatively short and did not coil, even in modern representatives. In the lineage leading to modern therians (placental and marsupial mammals), cochlear coiling did develop, but only after a period of at least 60 Ma. Even Late Jurassic mammals show only a 270 ° cochlear coil and a cochlear canal length of merely 3 mm. Comparisons of modern organisms, mammalian ancestors, and the state of the middle ear strongly suggest that high-frequency hearing (>20 kHz) was not realized until the early Cretaceous (125 Ma). At that time, therian mammals arose and possessed a fully coiled cochlea. The evolution of modern features of the middle ear and cochlea in the many later lineages of therians was, however, a mosaic and different features arose at different times. In parallel with cochlear structural evolution, prestins in therian mammals evolved into effective components of a new motor system. Ultrasonic hearing developed quite late-the earliest bat cochleae (60 Ma) did not show features characteristic of those of modern bats that are sensitive to high ultrasonic frequencies.

摘要

耳蜗和哺乳动物高频听力(>20kHz;人类的超声)的进化一直是多年来研究的课题。古生物学技术的最新进展,尤其是微 CT 扫描的应用,现在提供了重要的新见解,本文对此进行了综述。真正的哺乳动物起源于 2 亿多年前。其中,三个谱系存活到了最近的地质时期。这些动物独特地发展出了三个中耳小骨,但这些小骨最初并不是像现代哺乳动物那样自由悬挂的。最早的哺乳动物耳蜗只有大约 2 毫米长,包含一个 lagena 斑。在多尖齿兽类和单孔目哺乳动物谱系中,耳蜗仍然相对较短,甚至在现代代表中也没有卷曲。在导致现代有胎盘哺乳动物和有袋类哺乳动物的谱系中,耳蜗卷曲确实发展了,但至少在 6000 万年前才出现。即使是晚侏罗纪的哺乳动物,也只显示出 270°的耳蜗卷曲和仅 3 毫米长的耳蜗管。现代生物、哺乳动物祖先和中耳状态的比较强烈表明,高频听力(>20kHz)直到白垩纪早期(约 1.25 亿年前)才实现。那时,有胎盘哺乳动物出现了,并拥有完全卷曲的耳蜗。然而,在有胎盘哺乳动物的许多后续谱系中,中耳和耳蜗的现代特征的进化是一个镶嵌体,不同的特征在不同的时间出现。与耳蜗结构进化并行的是,有胎盘哺乳动物中的 prestin 进化成为了新的运动系统的有效组成部分。超声听力的发展相当晚——最早的蝙蝠耳蜗(约 6000 万年前)并没有显示出那些对高频超声敏感的现代蝙蝠的特征。

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