人髂动脉组织空化分析

Jaynandan Kumar , Anshul Faye
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引用次数: 0

摘要

髂动脉动脉瘤(IAA)破裂是影响世界范围内大量人群的重要问题。IAA的破裂伴随着组织的解体和组织中微空洞的出现。这些微空洞逐渐扩大,逐渐削弱了动脉壁的结构完整性,直到它失效,导致破裂。先前的研究考虑了组织的各向同性超弹性特性来分析动脉瘤组织中的空化。然而,它表现出各向异性行为。因此,在考虑其各向异性的同时,研究组织内空隙的生长变得势在必行。本文采用ABAQUS软件对静水张力作用下的微孔洞进行了数值模拟。实验校准的Gasser-Ogden-Holzapfel (GOH)材料参数用于捕获动脉瘤组织的复杂行为。本研究分析了各向异性髂动脉组织的空洞生长和空化现象。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Analysis of Cavitation in Human Iliac Arterial Tissue
Iliac Artery Aneurysm (IAA) rupture is a critical issue affecting a large population worldwide. The rupture of IAA is accompanied by the disintegration of the tissue and the appearance of micro-voids in the tissue. These micro-voids gradually enlarge, progressively weakening the structural integrity of the arterial wall until it fails, resulting in a rupture. Previous studies have considered the isotropic hyper-elastic nature of the tissue to analyse the cavitation in aneurysmatic tissue. However, it shows anisotropic behaviour. Therefore, it becomes imperative to investigate the growth of voids within the tissue while considering its anisotropic nature. In the study, micro-voids under hydrostatic tension have been analysed using numerical simulation in ABAQUS. The experimentally calibrated material parameter for Gasser-Ogden-Holzapfel (GOH) is used to capture the complex behaviour of aneurysmatic tissue. This study deals with the analysis of void growth and cavitation in anisotropic iliac arterial tissue.
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