Influence of material parameter variability on the predicted coronary artery biomechanical environment via uncertainty quantification

Mathematics

• Coronary Artery 100%
• Uncertainty Quantification 78%
• Influence 45%
• Uncertainty 32%
• Arteries 18%
• Material Properties 16%
• Ensemble 12%
• Simulation Framework 11%
• Biomechanics 9%
• Mechanical Behavior 8%
• Parameter Uncertainty 8%
• Model Uncertainty 8%
• Polynomial Chaos 8%
• Strain Energy 8%
• Vessel 7%
• Energy Function 7%
• Unary 7%
• Stiffness 7%
• Confidence 6%
• Model 6%
• Predict 6%
• Software 5%
• Human 5%
• Univariate 5%
• Fiber 5%
• Probability Distribution 5%
• Binary 4%
• Interaction 4%
• Testing 4%
• Strategy 4%
• Statistics 4%
• Modeling 4%
• Simulation 4%
• Framework 3%

Medicine & Life Sciences

• Uncertainty 54%
• Coronary Vessels 48%
• Adventitia 17%
• Patient-Specific Modeling 12%
• Arteries 10%
• Biomechanical Phenomena 7%
• Statistics 5%
• Software 5%
• Blood Vessels 4%

Engineering & Materials Science

• Uncertainty 36%
• Tissue 11%
• Materials properties 10%
• Dispersions 8%
• Biomechanics 7%
• Strain energy 6%
• Chaos theory 6%
• Probability distributions 6%
• Polynomials 5%
• Pipelines 4%
• Statistics 4%
• Sampling 4%
• Stiffness 4%
• Fibers 4%
• Geometry 3%
• Testing 3%