Propulsion sub-team member since September 2024, elected as a Propulsion Team Lead in December 2024
The Orbital Launch Vehicle Team is a rocketry team at Virginia Tech that is aiming to be the first collegiate design team to send a 5kg payload into Low Earth Orbit.
As of fall 2025, we are currently working on our 2-stage spaceshot rocket to shoot above the Karman Line.
As a propulsion lead, I co-lead a 9-member team in designing and developing our propulsion and ignition systems. In my role, I've worked on several projects from start to finish, including creating custom low-power BKN03 ignitor pellets, and co-leading the development of head-end ignition for the sustainer stage of our rocket.
Commercial electric match ignitors typically require ~12 Volts to fire, which exceeded the power budget of our 98 mm sustainer stage's flight computer. To address this, I co-led a project to design and manufacture custom low-power ignitors. We formulated a composition of boron (fuel), potassium nitrate (oxidizer), and a resin-isocyanate binder, which successfully ignited after our second batch of making them, and was used to ignite the sustainer of our 2-stage rocket.
In February 2025, we launched our first 2-stage rocket, which had a sustainer ignition failure due to its ignitor falling out of the aft end of the motor. This resulted in the rocket only hitting a flight apogee of 1700 feet. To combat this, I co-led the development of head-end ignition. This involved designing for the ignitor to feed in through forward end of the sustainer motor by sealing it with Red RTV Silicone and epoxy, and testing the system through 2 nominal static fire tests. We then used the head-end ignition system for our re-launch of the rocket in March 2025, resulting in a sustainer ignition success and a flight apogee of 4800 feet.
With our team now converting our sub-scale 2-stage rocket design into a larger-scale spaceshot rocket, the low atmospheric pressure at sustainer ignition is now much more significant, and therefore, extending the sea-level-optimized nozzle of our commercial sustainer motor is optimal to maximize the motor's efficiency.
This project will likely conclude by the end of November. We are currently planning to use linen phenolic as the extension material due to its ablative properties which insulate the motor casing from the high heat gases, and Red RTV to connect it with the stock nozzle. We will be analyzing the internal stresses at each interfacing material using ANSYS Finite Element Analysis (FEA).