Literature DB >> 28269039

Does the degree of coarctation of the aorta influence wall shear stress focal heterogeneity?

John Gounley, Rafeed Chaudhury, Madhurima Vardhan, Michael Driscoll, Girish Pathangey, Kevin Winarta, Justin Ryan, David Frakes, Amanda Randles.   

Abstract

The development of atherosclerosis in the aorta is associated with low and oscillatory wall shear stress for normal patients. Moreover, localized differences in wall shear stress heterogeneity have been correlated with the presence of complex plaques in the descending aorta. While it is known that coarctation of the aorta can influence indices of wall shear stress, it is unclear how the degree of narrowing influences resulting patterns. We hypothesized that the degree of coarctation would have a strong influence on focal heterogeneity of wall shear stress. To test this hypothesis, we modeled the fluid dynamics in a patient-specific aorta with varied degrees of coarctation. We first validated a massively parallel computational model against experimental results for the patient geometry and then evaluated local shear stress patterns for a range of degrees of coarctation. Wall shear stress patterns at two cross sectional slices prone to develop atherosclerotic plaques were evaluated. Levels at different focal regions were compared to the conventional measure of average circumferential shear stress to enable localized quantification of coarctation-induced shear stress alteration. We find that the coarctation degree causes highly heterogeneous changes in wall shear stress.

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Year:  2016        PMID: 28269039      PMCID: PMC5905411          DOI: 10.1109/EMBC.2016.7591465

Source DB:  PubMed          Journal:  Conf Proc IEEE Eng Med Biol Soc        ISSN: 1557-170X


  9 in total

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2.  Co-registration of the distribution of wall shear stress and 140 complex plaques of the aorta.

Authors:  Michael Markl; Stefanie M Brendecke; Jan Simon; Alex J Barker; Cornelius Weiller; Andreas Harloff
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4.  Focal association between wall shear stress and clinical coronary artery disease progression.

Authors:  Lucas H Timmins; David S Molony; Parham Eshtehardi; Michael C McDaniel; John N Oshinski; Habib Samady; Don P Giddens
Journal:  Ann Biomed Eng       Date:  2014-10-15       Impact factor: 3.934

5.  A High Performance Pulsatile Pump for Aortic Flow Experiments in 3-Dimensional Models.

Authors:  Rafeed A Chaudhury; Victor Atlasman; Girish Pathangey; Nicholas Pracht; Ronald J Adrian; David H Frakes
Journal:  Cardiovasc Eng Technol       Date:  2016-03-16       Impact factor: 2.495

6.  Computational simulations demonstrate altered wall shear stress in aortic coarctation patients treated by resection with end-to-end anastomosis.

Authors:  John F LaDisa; Ronak J Dholakia; C Alberto Figueroa; Irene E Vignon-Clementel; Frandics P Chan; Margaret M Samyn; Joseph R Cava; Charles A Taylor; Jeffrey A Feinstein
Journal:  Congenit Heart Dis       Date:  2011-07-31       Impact factor: 2.007

7.  Quantification of local hemodynamic alterations caused by virtual implantation of three commercially available stents for the treatment of aortic coarctation.

Authors:  Sung Kwon; Jeffrey A Feinstein; Ronak J Dholakia; John F Ladisa
Journal:  Pediatr Cardiol       Date:  2013-11-21       Impact factor: 1.655

8.  AORTIC COARCTATION: RECENT DEVELOPMENTS IN EXPERIMENTAL AND COMPUTATIONAL METHODS TO ASSESS TREATMENTS FOR THIS SIMPLE CONDITION.

Authors:  John F Ladisa; Charles A Taylor; Jeffrey A Feinstein
Journal:  Prog Pediatr Cardiol       Date:  2010-12-01

9.  Massively parallel simulations of hemodynamics in the primary large arteries of the human vasculature.

Authors:  Amanda Randles; Erik W Draeger; Peter E Bailey
Journal:  J Comput Sci       Date:  2015-04-17
  9 in total
  7 in total

1.  A Framework for Comparing Vascular Hemodynamics at Different Points in Time.

Authors:  J Gounley; M Vardhan; A Randles
Journal:  Comput Phys Commun       Date:  2018-06-02       Impact factor: 4.390

2.  Suitability of lattice Boltzmann inlet and outlet boundary conditions for simulating flow in image-derived vasculature.

Authors:  Bradley Feiger; Madhurima Vardhan; John Gounley; Matthew Mortensen; Priya Nair; Rafeed Chaudhury; David Frakes; Amanda Randles
Journal:  Int J Numer Method Biomed Eng       Date:  2019-04-01       Impact factor: 2.747

Review 3.  Computational Fluid Dynamics and Additive Manufacturing to Diagnose and Treat Cardiovascular Disease.

Authors:  Amanda Randles; David H Frakes; Jane A Leopold
Journal:  Trends Biotechnol       Date:  2017-09-21       Impact factor: 19.536

4.  Tissue engineered in-vitro vascular patch fabrication using hybrid 3D printing and electrospinning.

Authors:  Isabel Mayoral; Elisa Bevilacqua; Gorka Gómez; Abdelkrim Hmadcha; Ignacio González-Loscertales; Esther Reina; Julio Sotelo; Antonia Domínguez; Pedro Pérez-Alcántara; Younes Smani; Patricia González-Puertas; Ana Mendez; Sergio Uribe; Tarik Smani; Antonio Ordoñez; Israel Valverde
Journal:  Mater Today Bio       Date:  2022-04-14

5.  Propagation pattern for moment representation of the lattice Boltzmann method.

Authors:  John Gounley; Madhurima Vardhan; Erik W Draeger; Pedro Valero-Lara; Shirley V Moore; Amanda Randles
Journal:  IEEE Trans Parallel Distrib Syst       Date:  2021-07-21       Impact factor: 3.757

6.  The importance of side branches in modeling 3D hemodynamics from angiograms for patients with coronary artery disease.

Authors:  Madhurima Vardhan; John Gounley; S James Chen; Andrew M Kahn; Jane A Leopold; Amanda Randles
Journal:  Sci Rep       Date:  2019-06-20       Impact factor: 4.379

7.  Non-invasive characterization of complex coronary lesions.

Authors:  Madhurima Vardhan; John Gounley; S James Chen; Eric C Chi; Andrew M Kahn; Jane A Leopold; Amanda Randles
Journal:  Sci Rep       Date:  2021-04-14       Impact factor: 4.379

  7 in total

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