JBAS/ARMSTRONG

Amateur Rocketry Program

ARMSTRONG

ARMSTRONG is where engineering meets ignition. Members design, build, and fly progressively more capable rockets — mastering propulsion, aerodynamics, and recovery while working toward high-power certification through real flight testing.

0Certification Levels
Mach 0+Design Envelope
0%Student-Built
IterateBuild · Fly · Refine

Mission Overview

Build a rocket. Fly it. Make the next one better.

ARMSTRONG runs on iteration. Every vehicle is a complete engineering problem — from propulsion and stability to recovery and structures — and every flight produces data that drives the next design.

Members progress from foundational model rockets toward high-power vehicles, building the analysis, fabrication, and flight-operations skills that define real aerospace work.

Program Progression

A clear pathway to high-power certification.

Members advance through defined tiers — each one unlocking larger motors, more complex vehicles, and greater design responsibility.

Tier 0 · Foundations

Model

Low-power model rockets to learn stability, construction, and safe launch procedures.

Tier 1 · Level 1

L1

First high-power certification flight on H–I class motors with single-deploy recovery.

Tier 2 · Level 2

L2

Larger J–L motors, dual-deploy electronics, and a written aerospace knowledge exam.

Tier 3 · Advanced

L3

Full high-power vehicles with redundant avionics, documented design, and review.

Rocket Systems

Anatomy of an ARMSTRONG vehicle.

Nose & Recovery
Aerodynamic nose cone housing the parachute, shock cord, and dual-deploy altimeter electronics.
Airframe
Lightweight composite or phenolic body tube engineered for stiffness and predictable stability.
Propulsion
Solid-motor propulsion sized to the certification tier, retained in a machined motor mount.
Fins & Aerodynamics
CFD- and simulation-informed fin geometry tuned for stable, straight boost.

Engineering Process

Disciplined design, every flight.

Simulate

Model thrust, stability margin, and predicted apogee before any hardware is cut.

Fabricate

Machine, laminate, and assemble the airframe, fins, and recovery bay to spec.

Bench Test

Validate altimeters, ejection charges, and recovery deployment on the ground.

Fly

Launch under a formal flight card with recovery and tracking in place.

Recover

Retrieve the vehicle, inspect for damage, and download flight data.

Iterate

Compare predicted vs. actual performance and feed lessons into the next build.

Flight Testing

Data over assumptions.

Onboard avionics turn every launch into a dataset. Altitude, velocity, and acceleration traces are reviewed against simulation to verify the vehicle behaved as designed.

Launch Operations

Safety-first range procedures.

Pre-flight

Readiness Review

Stability check, motor selection, recovery packing, and a documented flight card.

Setup

Pad & Range Setup

Rail alignment, igniter installation, and range-safety clearance before arming.

Launch

Countdown & Boost

Controlled countdown, ignition, and tracking through boost and coast.

Post-flight

Recovery & Debrief

Locate, recover, and debrief — closing the loop on the engineering cycle.

Light the candle.

ARMSTRONG welcomes all students ready to design, build, and fly real rockets.

Join the program