Tissue Modeling and Simulation for Low-Intensity Vibration Devices

Identifier:  TFM:2534

Handle: https://hdl.handle.net/20.500.11797/TFM2534

Authors:  Nieves Solana, Miguel

Abstract:
Low-intensity vibrations (LIV) are a promising technology in biomedical engineering, known for their potential to stimulate biological responses in soft tissues safely and non-invasively. This thesis focuses on developing computational and physical models to simulate the interaction of LIV with several tissues, aiming to understand their biomechanical effects. The study integrates finite element analysis (FEA) using ANSYS to evaluate tissue deformation, stress distribution, and potential resonance phenomena under different vibration parameters. Special attention is given to identifying safe frequency ranges that promote regenerative and therapeutic effects without risking mechanical damage. The outcomes of this work contribute to optimizing LIV-based therapies, providing a framework for future applications in physiology.