I am interested in how nanophotonic systems can be used to control light-matter interaction between many coupled emitters. By exploring collective effects such as super- and sub-radiance, I aim to generate complex entangled states for practical applications. I am particularly fascinated by how these novel light sources can be used in imaging applications to drive improvements in resolution and sensitivity beyond the diffraction limit and shot-noise limit.

Favourite Animal: Mantis shrimp 🦐

I’m a fourth-year Computer Engineering student with physics experience, and working to create a computer vision solution to characterizing fabrication noise/errors on nanophotonic structures. On my own time, I love to play basketball, travel, and watch Toronto sports.

Favourite animal: White Tiger 🐯

My thesis develops Poisson–Schrödinger simulations of semiconductor quantum-dot heterostructures to guide single-photon-source and integrated-photonics design. I’m excited about post-Moore computing and engineering light for information processing.

Favourite Animal: Sea Otter 🦦

Mary is a fifth-year Engineering Physics student specializing in electrical engineering, working on a thesis to develop simulation software for bias-tunable quantum dot p–i–n diodes that operate at cryogenic temperatures. In her free time, she enjoys being outdoors, going on hikes, and playing video games.

Favourite Animal: Elephant🐘

I'm a fifth-year Engineering Physics student, working to develop a QPNN-based Cluster State Generation Algorithm. I like to spend my free time outside, playing volleyball and enjoying nature.

Favourite Animal: Squirrel 🐿️

I am researching how to experimentally control nonlinear quantum-light interactions using lasers of different frequencies. In general I am interested in quantum technology, its implementation, and quantum optical experiments. I also enjoy building and working with optical setups.

B.Sc. in Physics, Purdue University Northwest, 2021
M.Sc. in Physics, Queen's University, 2025

Favorite Animal: Pigeon! 🕊️