Multi-rotor autonomous drone for locating avalanche burial victims using a 457 kHz beacon transceiver. Implements lawnmower grid search, gradient ascent signal following, and 4-point bracketing via MAVSDK-Python on PX4 + Raspberry Pi 4.
Sparse Laplacian matrix solver with mixed Dirichlet/Neumann boundary conditions. Crank-Nicolson time stepping implemented in MATLAB. Full LaTeX report writeup in Overleaf.
Co-authored research publication stemming from undergraduate coursework. [Paper title and findings to be filled in.]
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Graduate researcher at the University of Nevada, Reno focused on tribology, solid mechanics, and computational fluid dynamics. I work at the intersection of theory and hardware — from wear modeling to autonomous systems.
Previously built an autonomous drone system for avalanche search and rescue, co-authored a publication in the Fibers Journal, and developed numerical solvers for heat transfer problems.
Open to research, design, and engineering opportunities — with driven teams solving meaningful problems.
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