骨传导刺激时的内耳边界运动。内耳压缩和液体惯性的适应症

S. Stenfelt, Namkeun Kim
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引用次数: 1

摘要

为了研究骨传导声在人头部的传播,建立了人头部的有限元模型。该模型由骨、脑、软组织等组织组成。利用该模型对内耳周围骨的运动进行了研究。这是通过定义一个假想的盒子来封装内耳,并分析相对两侧的运动来完成的。根据这一分析,在表面上的运动是平滑和规则的。然而,当比较相对两侧的运动时,其幅度差别很大。这不能用波传递的规律阻尼来解释,而是源于骨内复杂的波运动。这也意味着内耳压缩对骨传导听力的影响可能比使用内耳周围骨骼恒定振幅的模型所预测的更为重要。
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Inner ear boundary motion during bone conduction stimulation — Indications for inner ear compression and fluid inertia
A finite element model of a whole human head was developed to study sound transmission by bone conducted sound. The model comprises tissues as bone, brain and soft tissues. With this model, the motion of the bone surrounding the inner ear was investigated. This was done by defining an imaginary box encapsulating the inner ear and analyzing the motion of the opposing sides. According to this analysis, the motion over the surface area was smooth and regular. However, when comparing the motions at the opposing sides the magnitudes differed significantly. This cannot be explained by regular damping of the wave transmission but originates in the complex wave motion in the bone. It also implies that inner ear compression is probably more important for bone conduction hearing than predicted with models using a constant magnitude of the vibration in the bone around the inner ear.
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