Mathematical Modeling of Intravascular Blood Coagulation under Wall Shear Stress.

Increased shear stress such as observed at local stenosis may cause drastic changes in the permeability of the vessel wall to procoagulants and thus initiate intravascular blood coagulation. In this paper we suggest a mathematical model to investigate how shear stress-induced permeability influences...

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Main Authors: Oleksii S Rukhlenko, Olga A Dudchenko, Ksenia E Zlobina, Georgy Th Guria
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2015-01-01
Series:PLoS ONE
Online Access:https://doi.org/10.1371/journal.pone.0134028
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spelling doaj-d32e15d8d29a47c38e435116a09deb2f2021-03-03T20:00:22ZengPublic Library of Science (PLoS)PLoS ONE1932-62032015-01-01107e013402810.1371/journal.pone.0134028Mathematical Modeling of Intravascular Blood Coagulation under Wall Shear Stress.Oleksii S RukhlenkoOlga A DudchenkoKsenia E ZlobinaGeorgy Th GuriaIncreased shear stress such as observed at local stenosis may cause drastic changes in the permeability of the vessel wall to procoagulants and thus initiate intravascular blood coagulation. In this paper we suggest a mathematical model to investigate how shear stress-induced permeability influences the thrombogenic potential of atherosclerotic plaques. Numerical analysis of the model reveals the existence of two hydrodynamic thresholds for activation of blood coagulation in the system and unveils typical scenarios of thrombus formation. The dependence of blood coagulation development on the intensity of blood flow, as well as on geometrical parameters of atherosclerotic plaque is described. Relevant parametric diagrams are drawn. The results suggest a previously unrecognized role of relatively small plaques (resulting in less than 50% of the lumen area reduction) in atherothrombosis and have important implications for the existing stenting guidelines.https://doi.org/10.1371/journal.pone.0134028
collection DOAJ
language English
format Article
sources DOAJ
author Oleksii S Rukhlenko
Olga A Dudchenko
Ksenia E Zlobina
Georgy Th Guria
spellingShingle Oleksii S Rukhlenko
Olga A Dudchenko
Ksenia E Zlobina
Georgy Th Guria
Mathematical Modeling of Intravascular Blood Coagulation under Wall Shear Stress.
PLoS ONE
author_facet Oleksii S Rukhlenko
Olga A Dudchenko
Ksenia E Zlobina
Georgy Th Guria
author_sort Oleksii S Rukhlenko
title Mathematical Modeling of Intravascular Blood Coagulation under Wall Shear Stress.
title_short Mathematical Modeling of Intravascular Blood Coagulation under Wall Shear Stress.
title_full Mathematical Modeling of Intravascular Blood Coagulation under Wall Shear Stress.
title_fullStr Mathematical Modeling of Intravascular Blood Coagulation under Wall Shear Stress.
title_full_unstemmed Mathematical Modeling of Intravascular Blood Coagulation under Wall Shear Stress.
title_sort mathematical modeling of intravascular blood coagulation under wall shear stress.
publisher Public Library of Science (PLoS)
series PLoS ONE
issn 1932-6203
publishDate 2015-01-01
description Increased shear stress such as observed at local stenosis may cause drastic changes in the permeability of the vessel wall to procoagulants and thus initiate intravascular blood coagulation. In this paper we suggest a mathematical model to investigate how shear stress-induced permeability influences the thrombogenic potential of atherosclerotic plaques. Numerical analysis of the model reveals the existence of two hydrodynamic thresholds for activation of blood coagulation in the system and unveils typical scenarios of thrombus formation. The dependence of blood coagulation development on the intensity of blood flow, as well as on geometrical parameters of atherosclerotic plaque is described. Relevant parametric diagrams are drawn. The results suggest a previously unrecognized role of relatively small plaques (resulting in less than 50% of the lumen area reduction) in atherothrombosis and have important implications for the existing stenting guidelines.
url https://doi.org/10.1371/journal.pone.0134028
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