This study sought to evaluate a brace prototype designed with an anterior-sloped joint, in terms of its efficacy in attenuating anterior tibial translation and axial tibial rotation during landing, using a motion analysis approach.
Motion analysis has already been the main approach to analyze human motion in sports science and biometrics, but it is still unfamiliar for human factors analysts.
In this context, the paper presents an efficient approach to human motion analysis and modeling with respect to the anthropometric parameters, based on real motion data.
Using the kinetic and kinematic data captured using a 3D motion analysis and force plates, an inverse approach with a quasi-static solution was used to calculate the sagittal moments and angles in the knee, hip and the trunk.
This study shows an approach to time and motion analysis of real workplaces combining a virtual environment and a motion capture system.
A new approach for the enforced motion analysis of large-scale vehicle structures with the large mass technique is presented.
Based on this approach, a time and motion analysis is carried out from a developed algorithm which shows the interaction in recorded motion data and the virtual environment as a simulation.
In this work, a novel, motion-based nonparametric approach to the problem of human motion analysis is presented.
Perspectives of the clinical use of motion analysis within the rehabilitation process were explored and proved to be relevant for personalized approach of motor learning.
