Solving complex problems in satellite technology, fluid dynamics, particle physics, and computational biology. Passionate about the intersection of physics, mathematics, and engineering.
I'm an engineering physics student with a passion for tackling some of the most challenging problems in science and technology. My work spans multiple disciplines, from developing a CubeSAT for NASA to studying the evolutionary patterns of butterfly species through phylogenetics.
My research interests include complex fluid dynamics, magnetohydrodynamics (MHD), and computational modeling. I believe in the power of interdisciplinary approaches to solve real-world problems and am always excited to explore new frontiers in physics and engineering.
When I'm not solving equations or writing code, you can find me teaching and mentoring other students, sharing the excitement of discovery that drives my work.
Designing, building, integrating, and testing 3UCubed, a 3U CubeSAT with student-build instruments. This project is part of the IMAP Student Collaboration with NASA. I worked on the instrument calibration and physical assembly ahead of our Q4 launch date.
Designing Ergonomic Mechanical Keyboards from the ground up using KiCAD, Fusion 360, and QMK Firmware. Through this project, I grew as a full-stack product engineer.
Using a neural network that incorporates physical laws to solve and predict fluid dynamics problems.
Channelflow is a storied C++ library that has contributed to many research papers in plane geometry fluid dynamics problems. However, the C++ structure has grown old. Channelflow.jl is my attempt to rebuild it in Julia.
As part of the University of New Hampshire's Innovation Scholars program, I explored the intersection of art and mathematics through generative art.