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Found 7 papers, 4 papers with code
Simulation-Based Design of Bicuspidization of the Aortic Valve
The models were evaluated for primary targets of stenosis and regurgitation.
Modeling the Mitral Valve
We incorporate information from the dissections to specify the fiber topology of this model.
Comparison of Immersed Boundary Simulations of Heart Valve Hemodynamics against In Vitro 4D Flow MRI Data
In this work, we performed physical experiments of flow through a pulmonary valve in an in vitro pulse duplicator, and measured the corresponding velocity field using 4D flow MRI (4-dimensional flow magnetic resonance imaging).
Controlled Comparison of Simulated Hemodynamics across Tricuspid and Bicuspid Aortic Valves
The aortic geometry is based on a healthy patient with no known aortic or valvular disease, which allows us to isolate the hemodynamic consequences of changes to the valve alone.
A Design-Based Model of the Aortic Valve for Fluid-Structure Interaction
The solution to these differential equations is referred to as the predicted loaded configuration; it includes the loaded leaflet geometry, fiber orientations and tensions needed to support the prescribed load.
Modeling the Mitral Valve
These display the gross anatomy and information on fiber structure of the mitral valve.
Gaussian-Like Immersed Boundary Kernels with Three Continuous Derivatives and Improved Translational Invariance
The immersed boundary (IB) method is a general mathematical framework for studying problems involving fluid-structure interactions in which an elastic structure is immersed in a viscous incompressible fluid.
Numerical Analysis Numerical Analysis Fluid Dynamics 74F10, 76D05
