Rocket Flight Computer & Telemetry Lab
Build a barometric + IMU flight logger for a model rocket, predict apogee from thrust and drag, then compare the prediction with the logged flight.
High School · Grades 9–12
Eighteen high school packs in development. In each one, students build real hardware, predict its behavior from the math and physics, measure it, and revise the design. Every pack includes data logging, at least two design-and-test iterations, a rubric, and documentation templates.
Each pack goes on sale only after it passes an independent technical review. Until then it shows as In review or Coming soon, with no checkout.
Build a barometric + IMU flight logger for a model rocket, predict apogee from thrust and drag, then compare the prediction with the logged flight.
Send us your rocket’s dimensions and weight. We run it in OpenRocket and send back a report: stability margin at liftoff and burnout, predicted altitude on certified motors (thrustcurve.org data), landing speed, wind drift, and a launch-rod pass/fail for today’s wind. Every input shown.
Reviewed by Dr. Haney. Grades 9–12, ages 10+ with adult supervision. Estimates, not guarantees.
Hold a motor-and-prop arm level on a single-axis pivot, tune a PID controller by experiment, and log step responses to measure overshoot and settling time.
Build a 3-joint servo arm, derive its forward and inverse kinematics, and measure how far the gripper lands from commanded targets.
Design and test small turbine blades in front of a fan, measure electrical power across loads, and plot power coefficient against tip-speed ratio.
Build a ground-test sensor payload in the 1U CubeSat form factor, write its power and data budgets, and verify it against requirements with bench tests.
Use a low-resolution thermal sensor array to image heat flow, then measure conduction and cooling curves and compare them with simple models.
Build a 137 MHz antenna and SDR receiver, predict passes from orbital elements, and decode images from weather satellites still transmitting in that band.
Build a camera-guided servo sorter, classify objects by color or shape, and measure accuracy with a confusion matrix.
Build a diffraction-grating spectrometer with a camera, calibrate it against known emission lines, and measure the spectra of lamps and filters.
Build a two-axis light-seeking tracker, sweep a small solar panel's I–V curve to find its maximum power point, and compare fixed versus tracked energy.
Sweep a time-of-flight laser distance sensor on a pan-tilt mount to build a room point cloud, and log ranging accuracy against distance, surface color, and angle.
Plan a high-altitude balloon flight: build a sensor payload that logs its own flight path, predict ascent rate and burst altitude, and compare the predictions with recovered data.
Build a two-wheeled inverted-pendulum robot, fuse gyro and accelerometer data, and tune a controller that keeps it upright.
Build a small 1420 MHz receiver with a horn antenna and SDR, try to detect 21-cm hydrogen emission from the Milky Way, and turn its Doppler shift into a velocity.
Point a reaction-wheel turntable using a camera that matches star patterns on a printed star field, close the pointing loop, and measure pointing accuracy and jitter.
Run a hot-water Stirling engine, log temperatures, pressure, and RPM, reconstruct its P–V cycle, and compare its efficiency with the Carnot limit.
Build a battery-powered single-channel EEG recorder, compare FFT alpha band power with eyes open and closed, and train a simple classifier to switch an LED, tested against chance. Educational and non-medical.
Build a plastic-scintillator and SiPM muon detector, then measure how the cosmic-ray count rate changes with zenith angle, shielding, and altitude. No radioactive sources.
No packs match those filters yet.
Digital files only; hardware is bought separately. License questions: lance.haney@gmail.com.