Considering the Influence of Coronary Motion on Artery-Specific Biomechanics Using Fluid–Structure Interaction Simulation

The endothelium in the coronary arteries is subject to wall shear stress and vessel wall strain, which influences the biology of the arterial wall. This study presents vessel-specific fluid–structure interaction (FSI) models of three coronary arteries, using directly measured experimental geometries...

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Published inAnnals of biomedical engineering Vol. 51; no. 9; pp. 1950 - 1964
Main Authors Fogell, Nicholas A. T., Patel, Miten, Yang, Pan, Ruis, Roosje M., Garcia, David B., Naser, Jarka, Savvopoulos, Fotios, Davies Taylor, Clint, Post, Anouk L., Pedrigi, Ryan M., de Silva, Ranil, Krams, Rob
Format Journal Article
LanguageEnglish
Published Cham Springer International Publishing 01.09.2023
Springer Nature B.V
Subjects
Arteries
Bending
Biochemistry
Biological and Medical Physics
Biomechanical Phenomena
Biomechanics
Biomedical and Life Sciences
Biomedical Engineering and Bioengineering
Biomedicine
Biophysics
Boundary conditions
Classical Mechanics
Computer Simulation
Coronary artery
Coronary vessels
Coronary Vessels - physiology
Endothelium
Fluid-structure interaction
Heart
Hemodynamics
Models, Cardiovascular
Original
Original Article
Shear stress
Strain
Stress, Mechanical
Veins & arteries
Wall shear stresses
Coronary bending
Shear stress
Endothelial strain
Coronary biomechanics
Computational fluid dynamics
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Abstract The endothelium in the coronary arteries is subject to wall shear stress and vessel wall strain, which influences the biology of the arterial wall. This study presents vessel-specific fluid–structure interaction (FSI) models of three coronary arteries, using directly measured experimental geometries and boundary conditions. FSI models are used to provide a more physiologically complete representation of vessel biomechanics, and have been extended to include coronary bending to investigate its effect on shear and strain. FSI both without- and with-bending resulted in significant changes in all computed shear stress metrics compared to CFD ( p  = 0.0001). Inclusion of bending within the FSI model produced highly significant changes in Time Averaged Wall Shear Stress (TAWSS) + 9.8% LAD, + 8.8% LCx, − 2.0% RCA; Oscillatory Shear Index (OSI) + 208% LAD, 0% LCx, + 2600% RCA; and transverse wall Shear Stress (tSS) + 180% LAD, + 150% LCx and + 200% RCA (all p  < 0.0001). Vessel wall strain was homogenous in all directions without-bending but became highly anisotropic under bending. Changes in median cyclic strain magnitude were seen for all three vessels in every direction. Changes shown in the magnitude and distribution of shear stress and wall strain suggest that bending should be considered on a vessel-specific basis in analyses of coronary artery biomechanics.
AbstractList The endothelium in the coronary arteries is subject to wall shear stress and vessel wall strain, which influences the biology of the arterial wall. This study presents vessel-specific fluid–structure interaction (FSI) models of three coronary arteries, using directly measured experimental geometries and boundary conditions. FSI models are used to provide a more physiologically complete representation of vessel biomechanics, and have been extended to include coronary bending to investigate its effect on shear and strain. FSI both without- and with-bending resulted in significant changes in all computed shear stress metrics compared to CFD ( p  = 0.0001). Inclusion of bending within the FSI model produced highly significant changes in Time Averaged Wall Shear Stress (TAWSS) + 9.8% LAD, + 8.8% LCx, − 2.0% RCA; Oscillatory Shear Index (OSI) + 208% LAD, 0% LCx, + 2600% RCA; and transverse wall Shear Stress (tSS) + 180% LAD, + 150% LCx and + 200% RCA (all p  < 0.0001). Vessel wall strain was homogenous in all directions without-bending but became highly anisotropic under bending. Changes in median cyclic strain magnitude were seen for all three vessels in every direction. Changes shown in the magnitude and distribution of shear stress and wall strain suggest that bending should be considered on a vessel-specific basis in analyses of coronary artery biomechanics.
The endothelium in the coronary arteries is subject to wall shear stress and vessel wall strain, which influences the biology of the arterial wall. This study presents vessel-specific fluid-structure interaction (FSI) models of three coronary arteries, using directly measured experimental geometries and boundary conditions. FSI models are used to provide a more physiologically complete representation of vessel biomechanics, and have been extended to include coronary bending to investigate its effect on shear and strain. FSI both without- and with-bending resulted in significant changes in all computed shear stress metrics compared to CFD (p = 0.0001). Inclusion of bending within the FSI model produced highly significant changes in Time Averaged Wall Shear Stress (TAWSS) + 9.8% LAD, + 8.8% LCx, - 2.0% RCA; Oscillatory Shear Index (OSI) + 208% LAD, 0% LCx, + 2600% RCA; and transverse wall Shear Stress (tSS) + 180% LAD, + 150% LCx and + 200% RCA (all p < 0.0001). Vessel wall strain was homogenous in all directions without-bending but became highly anisotropic under bending. Changes in median cyclic strain magnitude were seen for all three vessels in every direction. Changes shown in the magnitude and distribution of shear stress and wall strain suggest that bending should be considered on a vessel-specific basis in analyses of coronary artery biomechanics.The endothelium in the coronary arteries is subject to wall shear stress and vessel wall strain, which influences the biology of the arterial wall. This study presents vessel-specific fluid-structure interaction (FSI) models of three coronary arteries, using directly measured experimental geometries and boundary conditions. FSI models are used to provide a more physiologically complete representation of vessel biomechanics, and have been extended to include coronary bending to investigate its effect on shear and strain. FSI both without- and with-bending resulted in significant changes in all computed shear stress metrics compared to CFD (p = 0.0001). Inclusion of bending within the FSI model produced highly significant changes in Time Averaged Wall Shear Stress (TAWSS) + 9.8% LAD, + 8.8% LCx, - 2.0% RCA; Oscillatory Shear Index (OSI) + 208% LAD, 0% LCx, + 2600% RCA; and transverse wall Shear Stress (tSS) + 180% LAD, + 150% LCx and + 200% RCA (all p < 0.0001). Vessel wall strain was homogenous in all directions without-bending but became highly anisotropic under bending. Changes in median cyclic strain magnitude were seen for all three vessels in every direction. Changes shown in the magnitude and distribution of shear stress and wall strain suggest that bending should be considered on a vessel-specific basis in analyses of coronary artery biomechanics.
The endothelium in the coronary arteries is subject to wall shear stress and vessel wall strain, which influences the biology of the arterial wall. This study presents vessel-specific fluid-structure interaction (FSI) models of three coronary arteries, using directly measured experimental geometries and boundary conditions. FSI models are used to provide a more physiologically complete representation of vessel biomechanics, and have been extended to include coronary bending to investigate its effect on shear and strain. FSI both without- and with-bending resulted in significant changes in all computed shear stress metrics compared to CFD (p = 0.0001). Inclusion of bending within the FSI model produced highly significant changes in Time Averaged Wall Shear Stress (TAWSS) + 9.8% LAD, + 8.8% LCx, - 2.0% RCA; Oscillatory Shear Index (OSI) + 208% LAD, 0% LCx, + 2600% RCA; and transverse wall Shear Stress (tSS) + 180% LAD, + 150% LCx and + 200% RCA (all p < 0.0001). Vessel wall strain was homogenous in all directions without-bending but became highly anisotropic under bending. Changes in median cyclic strain magnitude were seen for all three vessels in every direction. Changes shown in the magnitude and distribution of shear stress and wall strain suggest that bending should be considered on a vessel-specific basis in analyses of coronary artery biomechanics.
The endothelium in the coronary arteries is subject to wall shear stress and vessel wall strain, which influences the biology of the arterial wall. This study presents vessel-specific fluid–structure interaction (FSI) models of three coronary arteries, using directly measured experimental geometries and boundary conditions. FSI models are used to provide a more physiologically complete representation of vessel biomechanics, and have been extended to include coronary bending to investigate its effect on shear and strain. FSI both without- and with-bending resulted in significant changes in all computed shear stress metrics compared to CFD (p = 0.0001). Inclusion of bending within the FSI model produced highly significant changes in Time Averaged Wall Shear Stress (TAWSS) + 9.8% LAD, + 8.8% LCx, − 2.0% RCA; Oscillatory Shear Index (OSI) + 208% LAD, 0% LCx, + 2600% RCA; and transverse wall Shear Stress (tSS) + 180% LAD, + 150% LCx and + 200% RCA (all p < 0.0001). Vessel wall strain was homogenous in all directions without-bending but became highly anisotropic under bending. Changes in median cyclic strain magnitude were seen for all three vessels in every direction. Changes shown in the magnitude and distribution of shear stress and wall strain suggest that bending should be considered on a vessel-specific basis in analyses of coronary artery biomechanics.
Author Yang, Pan
Fogell, Nicholas A. T.
Ruis, Roosje M.
de Silva, Ranil
Garcia, David B.
Naser, Jarka
Savvopoulos, Fotios
Pedrigi, Ryan M.
Davies Taylor, Clint
Patel, Miten
Post, Anouk L.
Krams, Rob
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  organization: National Heart and Lung Institute, Imperial College London
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  organization: National Heart and Lung Institute, Imperial College London
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  fullname: Yang, Pan
  organization: National Heart and Lung Institute, Imperial College London
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  givenname: Roosje M.
  surname: Ruis
  fullname: Ruis, Roosje M.
  organization: National Heart and Lung Institute, Imperial College London
– sequence: 5
  givenname: David B.
  surname: Garcia
  fullname: Garcia, David B.
  organization: National Heart and Lung Institute, Imperial College London
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  givenname: Jarka
  surname: Naser
  fullname: Naser, Jarka
  organization: National Heart and Lung Institute, Imperial College London
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  organization: National Heart and Lung Institute, Imperial College London
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  organization: Simulia, Dassault Systemes UK Ltd
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  surname: Post
  fullname: Post, Anouk L.
  organization: Amsterdam UMC, Department of Biomedical Engineering and Physics, University of Amsterdam
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  givenname: Ryan M.
  surname: Pedrigi
  fullname: Pedrigi, Ryan M.
  organization: Mechanical & Materials Engineering, University of Nebraska-Lincoln
– sequence: 11
  givenname: Ranil
  surname: de Silva
  fullname: de Silva, Ranil
  organization: National Heart and Lung Institute, Imperial College London
– sequence: 12
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  surname: Krams
  fullname: Krams, Rob
  organization: School for Material Sciences and Engineering, Queen Mary University
BackLink https://www.ncbi.nlm.nih.gov/pubmed/37436564$$D View this record in MEDLINE/PubMed
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crossref_primary_10_1063_5_0226743
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IsDoiOpenAccess true
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Issue 9
Keywords Coronary bending
Shear stress
Endothelial strain
Coronary biomechanics
Computational fluid dynamics
Language English
License 2023. The Author(s).
Open Access This article is licensed under a Creative Commons Attribution 4.0 International License, which permits use, sharing, adaptation, distribution and reproduction in any medium or format, as long as you give appropriate credit to the original author(s) and the source, provide a link to the Creative Commons licence, and indicate if changes were made. The images or other third party material in this article are included in the article's Creative Commons licence, unless indicated otherwise in a credit line to the material. If material is not included in the article's Creative Commons licence and your intended use is not permitted by statutory regulation or exceeds the permitted use, you will need to obtain permission directly from the copyright holder. To view a copy of this licence, visit http://creativecommons.org/licenses/by/4.0/.
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Associate Editor Estefanía Peña oversaw the review of this article.
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Snippet The endothelium in the coronary arteries is subject to wall shear stress and vessel wall strain, which influences the biology of the arterial wall. This study...
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StartPage 1950
SubjectTerms Arteries
Bending
Biochemistry
Biological and Medical Physics
Biomechanical Phenomena
Biomechanics
Biomedical and Life Sciences
Biomedical Engineering and Bioengineering
Biomedicine
Biophysics
Boundary conditions
Classical Mechanics
Computer Simulation
Coronary artery
Coronary vessels
Coronary Vessels - physiology
Endothelium
Fluid-structure interaction
Heart
Hemodynamics
Models, Cardiovascular
Original
Original Article
Shear stress
Strain
Stress, Mechanical
Veins & arteries
Wall shear stresses
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Title Considering the Influence of Coronary Motion on Artery-Specific Biomechanics Using Fluid–Structure Interaction Simulation
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