My work focuses on the fracture mechanics of highly filled polymer composites, with a particular emphasis on understanding how surface functionalization of glass beads influences cavitation behavior when embedded in a polymer matrix under tensile loading. By modifying bead surfaces, such as through silane coatings, we can improve chemical bonding with the surrounding polymer and systematically study how interfacial interactions govern damage initiation.
Using polydimethylsiloxane (PDMS) as a model polymer system, I primarily rely on pure shear tearing mechanical testing, leveraging force-displacement data to quantify how different surface treatments alter the force required to trigger cavitation events at the bead-matrix interface. This work aims to provide deeper insight into interface-driven failure mechanisms in particle-filled composites.
Before starting my PhD, I completed a BS in Engineering (Biomedical Engineering) from Drexel University an MS in Biomedical Engineering from the University of Delaware where my research focused on gold nanoparticle-based diagnostics and therapeutic strategies for endometriosis. I also bring several years of industry experience, including roles in analytical R&D and quality control at pharmaceutical companies, as well as undergraduate co-ops spanning clinical research, product reformulation, and business development.
I’m looking forward to sharing more about this work during my CCM Connects talk on April 8, 2026.
Grateful to my advisor, Dr. Chelsea Davis and the CCM community for their mentorship and support.