Three-dimensional numerical simulation of a failed coronary stent implant at different degrees of residual stenosis. Part I: Fluid dynamics and shear stress on the vascular wall
Three-dimensional numerical simulation of a failed coronary stent implant at different degrees of residual stenosis. Part I: Fluid dynamics and shear stress on the vascular wall
The influence of the degree of residual stenosis on the hemodynamics inside coronary arteries is investigated through three-dimensional (3D) numerical simulations. The present paper, which is the first of a series of two, focuses on the influence that the degree of residual stenosis (DOR) has on the fluid dynamics and the shear stresses acting on the stent and the artery wall. The pulsatile nature of the blood flow and its non-Newtonian features are taken into account. Four models of artery are investigated. The results show that the wall shear stress (WSS) increases monotonically, but not linearly, with the DOR.
638-652
Di Venuta, Ivan
c478ec72-9e42-45cd-9afb-147f93b6835b
Boghi, Andrea
54a72da6-c8a2-468c-9773-897efac0638f
Gori, Fabio
f7e76614-37d8-4c3b-b7b0-8c6603a4515f
2017
Di Venuta, Ivan
c478ec72-9e42-45cd-9afb-147f93b6835b
Boghi, Andrea
54a72da6-c8a2-468c-9773-897efac0638f
Gori, Fabio
f7e76614-37d8-4c3b-b7b0-8c6603a4515f
Di Venuta, Ivan, Boghi, Andrea and Gori, Fabio
(2017)
Three-dimensional numerical simulation of a failed coronary stent implant at different degrees of residual stenosis. Part I: Fluid dynamics and shear stress on the vascular wall.
Numerical Heat Transfer; Part A: Applications, 71 (6), .
(doi:10.1080/10407782.2017.1293985).
Abstract
The influence of the degree of residual stenosis on the hemodynamics inside coronary arteries is investigated through three-dimensional (3D) numerical simulations. The present paper, which is the first of a series of two, focuses on the influence that the degree of residual stenosis (DOR) has on the fluid dynamics and the shear stresses acting on the stent and the artery wall. The pulsatile nature of the blood flow and its non-Newtonian features are taken into account. Four models of artery are investigated. The results show that the wall shear stress (WSS) increases monotonically, but not linearly, with the DOR.
Text
Stent_Parte_1
- Accepted Manuscript
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Accepted/In Press date: 20 January 2017
e-pub ahead of print date: 28 March 2017
Published date: 2017
Identifiers
Local EPrints ID: 421756
URI: http://eprints.soton.ac.uk/id/eprint/421756
ISSN: 1040-7782
PURE UUID: bd67f7c2-540d-45c8-84f2-fdae15bb1254
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Date deposited: 26 Jun 2018 16:30
Last modified: 17 Mar 2024 12:06
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Author:
Ivan Di Venuta
Author:
Fabio Gori
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