Enhancing Prosthetic and Orthopedic Support Devices Through Advanced Composite Material Assembly and Design Optimization
Résumé
The landscape of medical technology, particularly in prosthetics and orthopedic supports, is on the cusp of a transformation driven by integrating advanced composite materials such as carbon fiber. This paper presents a novel approach to the assembly of these materials, focusing on the development and optimization of smooth inserts tailored to medical applications. To overcome the limitations of conventional assembly methods, this study investigates the geometric optimization of inserts to improve the mechanical performance and durability of composite medical devices. Through a combination of theoretical modeling, simulation, and empirical testing, we demonstrate the potential of our approach to significantly improve device reliability, leak-tightness, and patient comfort. The work highlights the importance of advanced assembly techniques to fully exploit the capabilities of composite materials. It offers a route to medical devices that are not only functionally superior but also better suited to the needs of the user. Our results promise a new generation of prostheses and orthopedic supports that better integrate with human physiology and represent a significant step forward in patient-centered care.