Biomechanical and Physiological Comparison Between a Conventional Cyclist and a Paralympic Cyclist with an Optimized Transtibial Prosthesis Design

Keyphrases

• Cyclists 100%
• Prosthesis Design 100%
• Paralympics 100%
• Transtibial Prosthesis 100%
• VO2max 28%
• Lactate Threshold 28%
• Prosthesis 14%
• Structural Integrity 14%
• Computational Fluid Dynamics 14%
• Performance Optimization 14%
• Finite Element Analysis 14%
• Final Design 14%
• Computer-aided Design 14%
• Maximal Oxygen Uptake 14%
• User-centered 14%
• Quality Function Deployment 14%
• Aerobic Capacity 14%
• Competitive Performance 14%
• Cycling Test 14%
• Physiological Adaptation 14%
• Engineering Process 14%
• Mechanical Adaptation 14%
• Topology Optimization 14%
• Functional Adaptation 14%
• Anaerobic Threshold 14%
• Dynamic Optimization 14%
• Aerodynamic Efficiency 14%
• Anatomical Fit 14%
• Joint Kinematics 14%
• Joint Range of Motion 14%
• Respiratory Exchange Ratio 14%
• Lower Trunk 14%
• Prosthetic Design 14%
• Adaptive Cycling 14%

INIS

• design 100%
• comparative evaluations 100%
• prostheses 100%
• performance 75%
• optimization 50%
• lactates 50%
• range 25%
• evaluation 25%
• engineering 25%
• efficiency 25%
• topology 25%
• capacity 25%
• motion 25%
• oxygen 25%
• metrics 25%
• finite element method 25%
• uptake 25%
• computational fluid dynamics 25%
• computer-aided design 25%
• aerodynamics 25%

Nursing and Health Professions

• Prosthesis 100%
• Athletes 100%
• Lactic Acid 100%
• Prosthesis Design 100%
• Aerobic Capacity 50%
• Computer Aided Design 50%
• Cardiorespiratory 50%
• Anaerobic Threshold 50%
• Finite Element Analysis 50%
• Maximal Oxygen Uptake 50%