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前庭系统介导小鼠低频声音的感觉。

The vestibular system mediates sensation of low-frequency sounds in mice.

机构信息

School of Life Sciences, University of Sussex, Falmer, Brighton, BN1 9QG, UK.

出版信息

J Assoc Res Otolaryngol. 2010 Dec;11(4):725-32. doi: 10.1007/s10162-010-0230-7. Epub 2010 Sep 4.

Abstract

The mammalian inner ear contains sense organs responsible for detecting sound, gravity and linear acceleration, and angular acceleration. Of these organs, the cochlea is involved in hearing, while the sacculus and utriculus serve to detect linear acceleration. Recent evidence from birds and mammals, including humans, has shown that the sacculus, a hearing organ in many lower vertebrates, has retained some of its ancestral acoustic sensitivity. Here we provide not only more evidence for the retained acoustic sensitivity of the sacculus, but we also found that acoustic stimulation of the sacculus has behavioral significance in mammals. We show that the amplitude of an elicited auditory startle response is greater when the startle stimuli are presented simultaneously with a low-frequency masker, including masker tones that are outside the sensitivity range of the cochlea. Masker-enhanced auditory startle responses were also observed in otoconia-absent Nox3 mice, which lack otoconia but have no obvious cochlea pathology. However, masker enhancement was not observed in otoconia-absent Nox3 mice if the low-frequency masker tones were outside the sensitivity range of the cochlea. This last observation confirms that otoconial organs, most likely the sacculus, contribute to behavioral responses to low-frequency sounds in mice.

摘要

哺乳动物内耳包含负责检测声音、重力和线性加速度以及角加速度的感觉器官。在这些器官中,耳蜗参与听觉,而囊和椭圆囊则用于检测线性加速度。最近来自鸟类和哺乳动物(包括人类)的证据表明,在许多低等脊椎动物中作为听觉器官的囊保留了一些其祖先的听觉敏感性。在这里,我们不仅提供了更多关于囊保留听觉敏感性的证据,还发现了囊的声刺激在哺乳动物中具有行为意义。我们表明,当起始刺激与低频掩蔽器同时呈现时,诱发的听觉起始反应的幅度更大,包括不在耳蜗灵敏度范围内的掩蔽器音调。在缺乏耳石但没有明显耳蜗病理学的 Nox3 小鼠中也观察到了掩蔽增强的听觉起始反应,但如果低频掩蔽器音调不在耳蜗的灵敏度范围内,则不会观察到掩蔽增强。最后这一观察结果证实,耳石器官(很可能是囊)有助于小鼠对低频声音的行为反应。

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