Development and validation of a computational fluid dynamics methodology for simulation of pulsatile left ventricular assist devices

Keyphrases

• Pulsatile 100%
• Computational Fluid Dynamics 100%
• Dynamic Methodology 100%
• Left Ventricular Assist Device 100%
• Positive Displacement 50%
• Pulsatile Flow 50%
• Particle Image Velocimetry 50%
• Wall Shear Rate 50%
• Penn State 25%
• Computational Analysis 25%
• Velocity Field 25%
• Steady Flow 25%
• Flow Velocity 25%
• Physiologic 25%
• Strain Rate 25%
• Mock Circulatory Loop 25%
• Scalar 25%
• Computational Results 25%
• Flow Condition 25%
• In Vitro Data 25%
• Design Analysis 25%
• Flow Simulation 25%
• Particle Image Velocimetry Technique 25%
• Mitral 25%
• Mechanical Heart Valve 25%
• Velocity Gradient 25%
• Wall Strain 25%
• Fluid Viscosity 25%
• Device Operation 25%
• Computational Geometry 25%
• Mitral Valve 25%
• Valve Closure 25%
• Flow Waveform 25%
• Piston Motion 25%
• Velocity Magnitude 25%

Engineering

• Computational Fluid Dynamics 100%
• Particle Image Velocimetry 100%
• Positive Displacement 66%
• Shear Rate 66%
• Simulation Result 33%
• Velocity Field 33%
• Steady Flow 33%
• Fluid Viscosity 33%
• Strain Rate 33%
• Unsteady Flow 33%
• Flow Condition 33%
• Computational Analysis 33%
• Flow Simulation 33%
• Flow Phenomenon 33%
• Velocity Gradient 33%
• Design Analysis 33%