Theoretical design of a space mission to establish communication, data relay, and object-tracking architectures in the
cislunar domain within a $400 million budget to support NASA's Artemis program. Led a 24-person team over 12 weeks
to develop a four-satellite mission satisfying the request for proposal and presented the design to space systems experts
at NASA Goddard Space Flight Center.
Princeton University, January–May 2024. Project led by Professor Ryne Beeson. Project lead.
Designed, manufactured, and programmed an autonomous 10 kg search-and-rescue robot within a $750 budget to manoeuvre
through a winding chute, climb over a 12-inch wall, navigate toward a light source, and deposit a medical kit beside a
simulated trapped victim.
Princeton University, August–December 2023. Project led by Professor Dan Nosenchuck and Al Gaillard. Project lead. First team in course history to achieve full autonomous operation.
Developed a MATLAB free-flight simulator using a finite-element approach. Successive models introduced complexities such
as vortex shedding before the final model was validated against existing data and used to optimize aerodynamic parameters
from reference flight trajectories.
University of Oxford, October 2022–January 2023. Project led by Professor Luca Di Mare. First-class honours.