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

被引:0
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作者
Ryan Pewowaruk
Alejandro Roldán-Alzate
机构
[1] University of Wisconsin – Madison,Biomedical Engineering
[2] University of Wisconsin – Madison,Mechanical Engineering
[3] University of Wisconsin – Madison,Department of Radiology
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关键词
Fluid structure interaction; 4D flow MRI; Patient specific; Pulmonary artery stenosis;
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摘要
Accurate image based cardiovascular simulations require patient specific boundary conditions (BCs) for inlets, outlets and vessel wall mechanical properties. While inlet BCs are typically determined non-invasively, invasive pressure catheterization is often used to determine patient specific outlet BCs and vessel wall mechanical properties. A method using 4D Flow MRI to non-invasively determine both patient specific outlet BCs and vessel wall mechanical properties is presented and results for both in vitro validation with a latex tube and an in vivo pulmonary artery stenosis (PAS) stent intervention are presented. For in vitro validation, acceptable agreement is found between simulation using BCs from 4D Flow MRI and benchtop measurements. For the PAS virtual intervention, simulation correctly predicts flow distribution with 9% error compared to MRI. Using 4D Flow MRI to noninvasively determine patient specific BCs increases the ability to use image based simulations as pressure catheterization is not always performed.
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页码:1786 / 1798
页数:12
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