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The quantitative comparison between high wall shear stress and high strain in the formation of paraclinoid aneurysms

In the hemodynamic study, computational fluid dynamics (CFD) analysis has shown that high wall shear stress (WSS) is an important parameter in cerebral aneurysm formation. However, CFD analysis is not more realistic than fluid–structure interaction (FSI) analysis given its lack of considering the in...

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Published in:Scientific reports 2021-04, Vol.11 (1), p.7947-7947, Article 7947
Main Authors: Kim, Jung-Jae, Yang, Hyeondong, Kim, Yong Bae, Oh, Je Hoon, Cho, Kwang-Chun
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description In the hemodynamic study, computational fluid dynamics (CFD) analysis has shown that high wall shear stress (WSS) is an important parameter in cerebral aneurysm formation. However, CFD analysis is not more realistic than fluid–structure interaction (FSI) analysis given its lack of considering the involvement of vascular structures. To investigate the relationship between the hemodynamic parameters and the aneurysm formation, the locations of high WSS and high strain were extracted from the CFD and FSI analyses, respectively. Then the distances between the aneurysm formation site and the locations of high WSS or high strain were calculated. A total of 37 intracranial paraclinoid aneurysms were enrolled for quantitative comparison. Additionally, the dura mater was modeled to facilitate realistic results in FSI analysis. The average distance from the location of the aneurysm formation site to the high strain (1.74 mm ± 1.04 mm) was smaller than the average distance to the high WSS (3.33 mm ± 1.18 mm). The presence of dura mater also influenced the findings in the aneurysm formation site. High strain extracted by FSI analysis is an important hemodynamic factor related to the formation of cerebral aneurysms. Strain parameter could help to predict the formation of aneurysms and elucidate the appropriate treatment.
doi_str_mv 10.1038/s41598-021-87126-w
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subjects 631/114/116
639/166/988
692/53/2423
692/698
Aneurysm
Aneurysms
Computer applications
Dura mater
Fluid dynamics
Humanities and Social Sciences
Hydrodynamics
multidisciplinary
Science
Science (multidisciplinary)
Shear stress
title The quantitative comparison between high wall shear stress and high strain in the formation of paraclinoid aneurysms
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