My work explores the development of multi-physics topology optimization frameworks that account for electromagnetic, thermal, and structural behavior simultaneously. The work involves looking at design strategies aimed at improving performance in photonic components like mode converters, splitters, and multiplexers.
At its core, this work looks at whether photonic components can be designed to not only be theoretically optimal, but also thermally stable, structurally sound, and ready for manufacturing.
Tools I work with: MATLAB, Python, topology optimization, adjoint method, FDFD/FDTD, thermo-mechanical analysis.
This project focuses on modeling the behavior of dielectric nanolaminate coatings under extreme conditions. Working with experimental collaborators, it involves simulating the thermal-mechanical failure of HfO₂/SiO₂ coatings under femtosecond laser pulses.
This work aims to contribute to a better understanding of how high-intensity light absorption transitions into physical damage, particularly fracture and interfacial delamination occurring at very short time scales.
Tools I work with: Abaqus, COMSOL Multiphysics, MATLAB, fracture mechanics.
Cranial implants need to be more than just biocompatible. They also have to be mechanically stable under physiological loads. One of the key challenges is identifying appropriate fixation: the implant should be secure enough to prevent micro-movements or gaps with the surrounding bone, while avoiding excessive stress concentrations.
This work explores how design choices, such as screw placement and orientation, influence the overall structural behavior of 3D-printed reconstructions.
Tools I work with: ANSYS, Spaceclaim, Cubit, finite element analysis.