Prediction of Ventricular Mechanics After Pulmonary Valve Replacement in Tetralogy of Fallot by Biomechanical Modeling: A Step Towards Precision Healthcare

Keyphrases

• Tetralogy of Fallot 100%
• Ventricular Mechanics 100%
• Biomechanical Modeling 100%
• Pulmonary Valve Replacement 100%
• Precision Health 100%
• Contractility 75%
• In Silico 37%
• Right Ventricular Outflow Tract Obstruction 25%
• Clinical Indicators 25%
• Repaired Tetralogy of Fallot 25%
• Patient-specific Model 25%
• Pathophysiology 12%
• Myocardium 12%
• Predictive Value 12%
• Patient-specific 12%
• Dimensional Relationships 12%
• Operative 12%
• Same Patient 12%
• Ventricle 12%
• Afterload 12%
• Mechanical Response 12%
• Active Stress 12%
• Heart Function 12%
• Mechanical State 12%
• Residual Rights 12%
• Pulmonary Regurgitation 12%

Medicine and Dentistry

• Tetralogy of Fallot 100%
• Pulmonary Valve Replacement 100%
• Muscle Contractility 75%
• In Silico 37%
• Ventricular Outflow Tract Obstruction 25%
• Pathophysiology 12%
• Myocardium 12%
• Heart Function 12%
• Clinician 12%
• Ventricle of Heart 12%
• Afterload 12%
• Pulmonary Valve Insufficiency 12%