Study on damage of the macrostructure of the cochlea under the impact load.

IF 1.7 4区 医学 Q3 ENGINEERING, BIOMEDICAL
Jiakun Wang, Junyi Liang, Lei Gao, Wenjuan Yao
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引用次数: 0

Abstract

Due to the tiny and delicate structure of the cochlea, the auditory system is the most sensitive to explosion impact damage. After being damaged by the explosion impact wave, it usually causes long-term deafness, tinnitus, and other symptoms. To better understand the influence of impact load on the cochlea and basilar membrane (BM), a three-dimensional (3D) fluid-solid coupling finite element model was developed. This model accurately reflects the actual spatial spiral shape of the human cochlea, as well as the lymph environment and biological materials. Based on verifying the reliability of the model, the curve of impact load-amplitude response was obtained, and damage of impact load on the cochlea and the key macrostructure-BM was analyzed. The results indicate that impact wave at middle frequency has widest influence on the cochlea. Furthermore, impact loading causes tears in the BM and destroys the cochlear frequency selectivity.

冲击载荷作用下耳蜗宏观结构损伤的研究。
由于耳蜗的结构微小而精致,听觉系统对爆炸冲击损伤最为敏感。被爆炸冲击波破坏后,通常会引起长期耳聋、耳鸣等症状。为了更好地理解冲击载荷对耳蜗基底膜(BM)的影响,建立了三维流固耦合有限元模型。该模型准确地反映了人类耳蜗的实际空间螺旋形状,以及淋巴环境和生物材料。在验证模型可靠性的基础上,得到了冲击载荷-幅值响应曲线,分析了冲击载荷对耳蜗及关键宏观结构-耳蜗的损伤。结果表明,中频冲击波对耳蜗的影响最大。此外,冲击载荷导致脑基撕裂,破坏耳蜗频率选择性。
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来源期刊
CiteScore
3.60
自引率
5.60%
发文量
122
审稿时长
6 months
期刊介绍: The Journal of Engineering in Medicine is an interdisciplinary journal encompassing all aspects of engineering in medicine. The Journal is a vital tool for maintaining an understanding of the newest techniques and research in medical engineering.
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