A Mobile Gait Analysis System for Optimization of Prosthetic Alignments

Articles in the same Issue

1. Biomechanical Properties of the Human Ventricular Myocardium
2. Determination of Mechanical and Microstructural Tissue Quantities for Modeling Damage in Arterial Tissues
3. Material Modeling of the Damage Behavior of Arterial Tissues
4. Finite Element Analysis of Compliance of Stent-Vesselsystems
5. The Impact of Design Modifications on the Mechanical Properties of a Polymeric Slotted Tube Coronary Stent
6. Biomechanics of Optimum Stent Implantation Strategy Considering Vessel Wall Contact and Vessel Trauma
7. Image-guided failure assessment of human trabecular bone – Inverse finite element modelling for characterization of elastic properties
8. The Q-Angle and its Effect on Active Knee Joint Kinematics – a Simulation Study
9. Evaluation of Biomechanical Models for the Planning of Total Hip Arthroplasty
10. Posturographic Assessment of Increased Fall Risk
11. The shape of intratidal resistance-volume and compliance-volume curves in mechanical ventilation – an animal study
12. Dynamic Hysteresis Behaviour of Respiratory System Mechanics
13. Outcome of 23h Bracing for Tip-toe-walking Children with Cerebral Palsy
14. Biomechanical Characterisation of Scaffold-Free Cartilage Constructs with Hyperelastic Material Models
15. The Analysis of Lung Mechanics of Ventilated Patients During Elective Surgical Procedure Indicated Intratidal Recruitment
16. A Mobile Gait Analysis System for Optimization of Prosthetic Alignments