The importance of blood rheology in patient-specific computational fluid dynamics simulation of stenotic carotid arteries

Keyphrases

• Computational Fluid Dynamics Simulation 100%
• Carotid Artery 100%
• Stenotic Lesion 100%
• Patient-specific Computational Fluid Dynamics 100%
• Blood Rheology 100%
• Non-Newtonian Model 100%
• Carreau 75%
• Power Law 50%
• Pressure Gradient 50%
• Wall Shear Stress Descriptors 50%
• Hemodynamic Parameters 50%
• Cross Law 50%
• Computational Fluid Dynamics 25%
• Computational Fluid Dynamics Modeling 25%
• Medical Imaging 25%
• Numerical Simulation 25%
• Patient-specific 25%
• Blood Flow 25%
• Flow Pattern 25%
• Cardiovascular Disease 25%
• Atherosclerosis Progression 25%
• Healthy Volunteers 25%
• Oscillatory Shear Index 25%
• Wall Shear Stress 25%
• Time-averaged Wall Shear Stress 25%
• Carotid Stenosis 25%
• Luminal Stenosis 25%
• Local Hemodynamics 25%
• Dynamic Base 25%
• Severe Stenosis 25%
• Carotid Geometry 25%
• 3D Reconstructed 25%
• Carotid Magnetic Resonance Imaging 25%
• Power-law Model 25%
• Rheological Model 25%
• Newtonian Model 25%

Engineering

• Computational Fluid Dynamics 100%
• Patient Specific 100%
• Rheology 100%
• Newtonian Model 100%
• Wall Shear Stress 80%
• Pressure Gradient 40%
• Progression 20%
• Dynamic Models 20%
• Mean Value 20%
• Flow Pattern 20%
• Oscillatory 20%
• Power Law Model 20%
• Computer Simulation 20%
• Boundary Condition 20%

Material Science

• Computational Fluid Dynamics 100%
• Rheology 100%
• Magnetic Resonance Imaging 25%