A Combined Experimental and Computational Approach to Subject-Specific Analysis of Knee Joint Laxity

Keyphrases

• Ligament 100%
• Computational Approach 100%
• Knee Laxity 100%
• Subject-specific Analysis 100%
• Ligament Strain 60%
• Subject-specific 40%
• Pathologic 20%
• Quality Level 20%
• Population-based 20%
• Anterior-posterior 20%
• Kinematics 20%
• Valgus 20%
• Model Complex 20%
• Knee Flexion 20%
• Meniscectomy 20%
• Subject-specific Model 20%
• Posterior Displacement 20%
• Knee Mechanics 20%
• Varus 20%
• Finite Element Model 20%
• Healthy Knee 20%
• Model Calibration 20%
• Internal-external Rotation 20%
• Knee Instability 20%
• Knee Biomechanics 20%
• Knee Loading 20%
• Constraint-based Modeling 20%
• Cartilage Contact 20%
• Biomechanical Investigation 20%
• Experimental Kinematics 20%
• Complex Knee 20%
• Cruciate Ligament Rupture 20%
• Experimental Reports 20%
• Test Elements 20%
• In Vivo Kinematics 20%
• Knee Joint Biomechanics 20%

Engineering

• Biomechanics 100%
• Predicted Model 100%
• Knee Joint Laxity 100%
• Joints (Structural Components) 50%
• Experimental Model 50%
• Collected Data 50%
• Finite Element Modeling 50%
• Model Calibration 50%
• Knee Mechanics 50%
• Initial Stiffness 50%
• Phase Modeling 50%
• Experimental Report 50%

Pharmacology, Toxicology and Pharmaceutical Science

• Knee Instability 100%
• Joint Laxity 100%