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哺乳动物中耳的缩放

Scaling of the mammalian middle ear.

作者信息

Nummela S

机构信息

Department of Zoology, University of Helsinki, Finland.

出版信息

Hear Res. 1995 May;85(1-2):18-30. doi: 10.1016/0378-5955(95)00030-8.

DOI:10.1016/0378-5955(95)00030-8
PMID:7559173
Abstract

This study considers the general question how animal size limits the size and information receiving capacity of sense organs. To clarify this in the case of the mammalian middle ear, I studied 63 mammalian species, ranging from a small bat to the Indian elephant. I determined the skull mass and the masses of the ossicles malleus, incus and stapes (M, I and S), and measured the tympanic membrane area, A1. The ossicular mass (in mg) is generally negatively allometric to skull mass (in g), the regression equation for the whole material (excluding true seals) being y = 1.373 x(0.513). However, for very small mammals the allometry approaches isometry. Within a group of large mammals no distinct allometry can be discerned. The true seals (Phocidae) are exceptional by having massive ossicles. The size relations within the middle ear are generally rather constant. However, the I/M relation is slightly positively allometric, y = 0.554 x(1.162). Two particularly isometric relations were found; the S/(M + I) relation for the ossicles characterized by the regression equation y = 0.054 x(0.993), and the relation between a two-dimensional measure of the ossicles and the tympanic membrane ares, (M + I)2/3 /A1. As in isometric ears the sound energy collected by the tympanic membrane is linearly related to its area, the latter isometry suggests that, regardless of animal size, a given ossicular cross-sectional area is exposed to a similar sound-induced stress. Possible morphological middle ear adaptations to particular acoustic environments are discussed.

摘要

本研究探讨了一个一般性问题,即动物体型如何限制感觉器官的大小和信息接收能力。为了阐明哺乳动物中耳的情况,我研究了63种哺乳动物,范围从小蝙蝠到印度象。我测定了头骨质量以及锤骨、砧骨和镫骨(分别用M、I和S表示)的质量,并测量了鼓膜面积A1。听小骨质量(以毫克为单位)通常与头骨质量(以克为单位)呈负异速生长关系,整个样本(不包括真海豹)的回归方程为y = 1.373 x(0.513)。然而,对于非常小的哺乳动物,异速生长接近等速生长。在一组大型哺乳动物中,无法辨别出明显的异速生长关系。真海豹(海豹科)是例外,其听小骨粗壮。中耳内的大小关系通常相当恒定。然而,I/M关系呈轻微的正异速生长,y = 0.554 x(1.162)。发现了两种特别的等速生长关系;听小骨的S/(M + I)关系,其回归方程为y = 0.054 x(0.993),以及听小骨的二维测量值与鼓膜面积之间的关系,即(M + I)2/3 /A1。由于在等速生长的耳朵中,鼓膜收集的声能与其面积呈线性相关,后一种等速生长表明,无论动物体型大小,给定的听小骨横截面积所承受的声致应力相似。文中讨论了中耳可能针对特定声学环境的形态学适应情况。

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