Literature DB >> 23699723

Considerations for numerical modeling of the pulmonary circulation--a review with a focus on pulmonary hypertension.

V O Kheyfets1, W O'Dell, T Smith, J J Reilly, E A Finol.   

Abstract

Both in academic research and in clinical settings, virtual simulation of the cardiovascular system can be used to rapidly assess complex multivariable interactions between blood vessels, blood flow, and the heart. Moreover, metrics that can only be predicted with computational simulations (e.g., mechanical wall stress, oscillatory shear index, etc.) can be used to assess disease progression, for presurgical planning, and for interventional outcomes. Because the pulmonary vasculature is susceptible to a wide range of pathologies that directly impact and are affected by the hemodynamics (e.g., pulmonary hypertension), the ability to develop numerical models of pulmonary blood flow can be invaluable to the clinical scientist. Pulmonary hypertension is a devastating disease that can directly benefit from computational hemodynamics when used for diagnosis and basic research. In the present work, we provide a clinical overview of pulmonary hypertension with a focus on the hemodynamics, current treatments, and their limitations. Even with a rich history in computational modeling of the human circulation, hemodynamics in the pulmonary vasculature remains largely unexplored. Thus, we review the tasks involved in developing a computational model of pulmonary blood flow, namely vasculature reconstruction, meshing, and boundary conditions. We also address how inconsistencies between models can result in drastically different flow solutions and suggest avenues for future research opportunities. In its current state, the interpretation of this modeling technology can be subjective in a research environment and impractical for clinical practice. Therefore, considerations must be taken into account to make modeling reliable and reproducible in a laboratory setting and amenable to the vascular clinic. Finally, we discuss relevant existing models and how they have been used to gain insight into cardiopulmonary physiology and pathology.

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Year:  2013        PMID: 23699723      PMCID: PMC3705788          DOI: 10.1115/1.4024141

Source DB:  PubMed          Journal:  J Biomech Eng        ISSN: 0148-0731            Impact factor:   2.097


  106 in total

1.  Numerical simulation and experimental validation of blood flow in arteries with structured-tree outflow conditions.

Authors:  M S Olufsen; C S Peskin; W Y Kim; E M Pedersen; A Nadim; J Larsen
Journal:  Ann Biomed Eng       Date:  2000 Nov-Dec       Impact factor: 3.934

2.  Therapy of pulmonary hypertension: the evolution from vasodilators to antiproliferative agents.

Authors:  Lewis J Rubin
Journal:  Am J Respir Crit Care Med       Date:  2002-11-15       Impact factor: 21.405

3.  A new flow co-culture system for studying mechanobiology effects of pulse flow waves.

Authors:  Devon Scott-Drechsel; Zhenbi Su; Kendall Hunter; Min Li; Robin Shandas; Wei Tan
Journal:  Cytotechnology       Date:  2012-04-18       Impact factor: 2.058

4.  Three-dimensional hemodynamics in the human pulmonary arteries under resting and exercise conditions.

Authors:  Beverly T Tang; Tim A Fonte; Frandics P Chan; Philip S Tsao; Jeffrey A Feinstein; Charles A Taylor
Journal:  Ann Biomed Eng       Date:  2010-07-17       Impact factor: 3.934

5.  Accuracy of Doppler echocardiography in the hemodynamic assessment of pulmonary hypertension.

Authors:  Micah R Fisher; Paul R Forfia; Elzbieta Chamera; Traci Housten-Harris; Hunter C Champion; Reda E Girgis; Mary C Corretti; Paul M Hassoun
Journal:  Am J Respir Crit Care Med       Date:  2009-01-22       Impact factor: 21.405

Review 6.  Imaging in the evaluation of pulmonary artery hemodynamics and right ventricular structure and function.

Authors:  Asghar A Fakhri; Rachel A Hughes-Doichev; Robert W W Biederman; Srinivas Murali
Journal:  Heart Fail Clin       Date:  2012-05-17       Impact factor: 3.179

7.  Differential effects of stable prostacyclin analogs on smooth muscle proliferation and cyclic AMP generation in human pulmonary artery.

Authors:  Lucie H Clapp; Paul Finney; Sally Turcato; Sandy Tran; Lewis J Rubin; Andrew Tinker
Journal:  Am J Respir Cell Mol Biol       Date:  2002-02       Impact factor: 6.914

8.  Flow velocity profile of the pulmonary artery measured by the continuous cardiac output monitoring catheter.

Authors:  K Miyasaka; M Takata; K Miyasaka
Journal:  Can J Anaesth       Date:  1993-02       Impact factor: 5.063

9.  Right ventricular systolic function is not the sole determinant of tricuspid annular motion.

Authors:  Angel López-Candales; Navin Rajagopalan; Neil Saxena; Beth Gulyasy; Kathy Edelman; Raveen Bazaz
Journal:  Am J Cardiol       Date:  2006-08-17       Impact factor: 2.778

10.  Pulmonary vascular wall stiffness: An important contributor to the increased right ventricular afterload with pulmonary hypertension.

Authors:  Zhijie Wang; Naomi C Chesler
Journal:  Pulm Circ       Date:  2011 Apr-Jun       Impact factor: 3.017

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  13 in total

1.  Numerical simulation of particle transport and deposition in the pulmonary vasculature.

Authors:  Salman Sohrabi; Junda Zheng; Ender A Finol; Yaling Liu
Journal:  J Biomech Eng       Date:  2014-12       Impact factor: 2.097

2.  Patient-specific computational modeling of blood flow in the pulmonary arterial circulation.

Authors:  Vitaly O Kheyfets; Lourdes Rios; Triston Smith; Theodore Schroeder; Jeffrey Mueller; Srinivas Murali; David Lasorda; Anthony Zikos; Jennifer Spotti; John J Reilly; Ender A Finol
Journal:  Comput Methods Programs Biomed       Date:  2015-04-28       Impact factor: 5.428

3.  The role of wall shear stress in the assessment of right ventricle hydraulic workload.

Authors:  Vitaly Kheyfets; Mirunalini Thirugnanasambandam; Lourdes Rios; Daniel Evans; Triston Smith; Theodore Schroeder; Jeffrey Mueller; Srinivas Murali; David Lasorda; Jennifer Spotti; Ender Finol
Journal:  Pulm Circ       Date:  2015-03       Impact factor: 3.017

4.  Computational Fluid Dynamics Modeling of the Human Pulmonary Arteries with Experimental Validation.

Authors:  Alifer D Bordones; Matthew Leroux; Vitaly O Kheyfets; Yu-An Wu; Chia-Yuan Chen; Ender A Finol
Journal:  Ann Biomed Eng       Date:  2018-05-21       Impact factor: 3.934

5.  4D Flow MRI Estimation of Boundary Conditions for Patient Specific Cardiovascular Simulation.

Authors:  Ryan Pewowaruk; Alejandro Roldán-Alzate
Journal:  Ann Biomed Eng       Date:  2019-05-08       Impact factor: 3.934

6.  A Fluid-Structure Interaction Analysis of Blood Clot Motion in a Branch of Pulmonary Arteries.

Authors:  Fateme Mirakhorli; Bahman Vahidi; Marzieh Pazouki; Pouria Talebi Barmi
Journal:  Cardiovasc Eng Technol       Date:  2022-07-05       Impact factor: 2.495

7.  Patient-Specific Computational Analysis of Hemodynamics in Adult Pulmonary Hypertension.

Authors:  Narasimha R Pillalamarri; Senol Piskin; Sourav S Patnaik; Srinivas Murali; Ender A Finol
Journal:  Ann Biomed Eng       Date:  2021-11-19       Impact factor: 3.934

8.  Cell Inertia: Predicting Cell Distributions in Lung Vasculature to Optimize Re-endothelialization.

Authors:  Jason K D Chan; Eric A Chadwick; Daisuke Taniguchi; Mohammadali Ahmadipour; Takaya Suzuki; David Romero; Cristina Amon; Thomas K Waddell; Golnaz Karoubi; Aimy Bazylak
Journal:  Front Bioeng Biotechnol       Date:  2022-04-27

9.  Image-based computational assessment of vascular wall mechanics and hemodynamics in pulmonary arterial hypertension patients.

Authors:  Byron A Zambrano; Nathan A McLean; Xiaodan Zhao; Ju-Le Tan; Liang Zhong; C Alberto Figueroa; Lik Chuan Lee; Seungik Baek
Journal:  J Biomech       Date:  2017-12-27       Impact factor: 2.712

10.  Fluid-structure interaction in a fully coupled three-dimensional mitral-atrium-pulmonary model.

Authors:  Liuyang Feng; Hao Gao; Nan Qi; Mark Danton; Nicholas A Hill; Xiaoyu Luo
Journal:  Biomech Model Mechanobiol       Date:  2021-03-26
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