Sophomore at Westborough High School. I design mechanical components in Fusion 360, lay out printed circuit boards, and write the embedded software that drives them. I also lead the Westborough Rocketry Club, a program I rebuilt from inactive into a fifteen-member team. Objective: aerospace engineering at MIT. Scroll to run the launch sequence.
I'm a sophomore at Westborough High School working across the full engineering stack: CAD models that become 3D-printed hardware, circuit and PCB designs that become working electronics, and the embedded software that integrates them. Rocketry demands all three at once, which is why it sits at the center of my work.
I completed the full prerequisite sequence for MIT Beaver Works' autonomous drone racing program: flight control, quadrotor dynamics, Python, and linear algebra. That foundation carries through everything I build. I also lead the Westborough Rocketry Club, which was inactive when I took it over; today it is a fifteen-member team that designs, builds, and flies together.
A Raspberry Pi 3B+ driving an OLED display as an animated character: blink cycles, idle expressions, and RFID-triggered responses with per-tag messaging. The majority of the effort was systems debugging — display timing, rendering artifacts, and tuning the animation until expressions read clearly.
A Python simulator developed alongside the MIT Beaver Works coursework. It models a quadrotor stabilized by PID control loops, introduces configurable wind disturbance, and plots the controller's corrective response. Hand-tuning the gains proved the fastest way to internalize the theory.
A Raspberry Pi tool that parses OpenRocket .ork simulation files and flags stability and recovery issues before launch, presented through a pixel-art interface. It began as an XML parsing exercise and is becoming the club's standard pre-flight check.
A library of parametric Fusion 360 models for nose cones, fin cans, and centering rings. Entering a body-tube diameter produces a print-ready part. The design goal: a new club member moves from concept to printed component within a single meeting.
A drone payload that logs GPS position against RF signal strength in flight, then renders the data as a coverage heatmap identifying where control signal degrades — practical reconnaissance for flying unfamiliar sites.
An ignition controller for club launch operations: key-switch arming, igniter continuity verification, and a committed fire control. Modeled on standard range-safety practice and scaled to a school club's requirements.
When I assumed leadership of the Westborough Rocketry Club, it was inactive: no meetings, no launches, no members. Rebuilding it took sustained effort. Today we are an active fifteen-member team. I run our meetings and teach CAD to new members, and we plan builds and launch days as a group.
We have flown in the American Rocketry Challenge, and every flight has directly informed the next build. Next season's plan centers on preparation: altimeter data from every launch and OpenRocket simulation before every flight, so problems are caught in review rather than on the pad.
This past June we hosted Rocket Day, a full-day outreach program introducing middle-school students to rocketry. I led the planning, and the club delivered the event as a team: a presentation, a CAD lesson, a supervised build, and a live launch to close the day.
A full-day program for rising 7th–9th grade students: an introductory presentation, a hands-on CAD lesson, supervised rocket assembly, and a live launch to close the event.
Completed the full prerequisite sequence for the autonomous drone racing course: flight control, quadrotor dynamics, Python, linear algebra, and probability.
Assumed leadership of an inactive club and rebuilt it into a fifteen-member team that designs, builds, and flies together.
Completed our first competition season. Each flight produced lessons applied directly to the next build.
A full-day outreach program for approximately twenty rising 7th–9th grade students. I led the planning; the club delivered the presentation, CAD instruction, builds, and launch.
Instrumenting every club rocket with an altimeter and running OpenRocket simulation before each launch, replacing guesswork with data.
Returning to the American Rocketry Challenge with a full season of flight experience behind us.
Where this trajectory is aimed.