Recent research:
Across a cohesive program of work in biomedical engineering and additive manufacturing, the researcher develops and applies patient-specific 3D modeling, planning, and manufacturing pipelines for craniofacial and skeletal reconstruction. The work integrates image-based segmentation, STL-based printing, and biocompatible materials (notably PEEK and PMMA) to create custom implants, cutting guides, and anatomical test models that reduce operative time, improve precision and aesthetics, and expand access via low-cost workflows and open-source tools. Complementary biomechanical analyses (finite element modeling and ex vivo validation) quantify stresses, pre-tension, and failure mechanisms to guide safe screw tightening, implant design, and fixation strategies. A steady emphasis on materials science—combining additive manufacturing with biocompatible composites and varying infill densities—pairs mechanical characterization with clinical planning, enabling tailored solutions for oncology, trauma, and reconstructive indications. The collective impact is a practical, cost-conscious framework for personalized bone implants and surgical planning that enhances outcomes while considering patient-specific anatomy and economic contexts.