Recent research:
The research focuses on the integration of additive manufacturing, computational modeling, and finite element analysis (FEA) to advance personalized medicine and surgical planning. A core objective is the development of patient-specific workflows for the design and fabrication of customized bone implants, cranial prostheses, and surgical cutting guides. By utilizing medical imaging and reverse engineering, these methodologies facilitate precise anatomical reconstruction, which has been shown to reduce surgical time, improve aesthetic and functional outcomes, and enhance patient recovery. Significant attention is given to the biomechanical evaluation of these devices, including the simulation of stress distributions and the impact of material properties—such as PMMA, PEEK, and PLA—on implant performance and safety. Furthermore, the research explores the biomechanics of spinal instrumentation, specifically investigating screw fixation, torque-induced pre-tension, and the risk of loosening in vertebral body tethering (VBT) procedures. Beyond biomedical applications, the work also encompasses structural engineering, specifically the finite element analysis of seismic behavior in moment-resisting frame connections, validating structural integrity against international building codes. Collectively, these studies emphasize the synergy between engineering precision and clinical requirements to provide accessible, high-performance medical solutions.

Key Topics:

• Personalized surgical planning and anatomical modeling
• Additive manufacturing for biomedical devices
• Finite element analysis (FEA) in biomechanics
• Biomaterials and implant performance
• Spinal instrumentation and screw fixation
• Structural engineering and seismic analysis