Launching a balloon to Document eclipse scenes and collect flight statistics, was a complex endeavor that demanded a multidisciplinary approach. We embarked on this mission by bringing together a diverse array of partners, including organizations, universities, and individuals from various backgrounds. Our collective goal was clear: design and construct a versatile payload train capable of collecting flight data and capturing the Eclipse footage from various angles. This collaborative effort allowed us to harness the combined expertise and resources of our team, aligning ourselves towards the successful launch of the balloon and the achievement of our mission to acquire eclipse imagery and gather flight data.
worked on various Payload Systems like:
Vent - A 3D printed module to control the flow of helium using a servomotor to open the flap and a cutdown mechanism to separate the balloon from the vent.
Parachute - to carry the payload train back on the ground safely.
Radar reflector - to signal the position of the payload train
Pterodactyl (flight controller) - to record the altitude, IMU, GPS, Temperature readings when the balloon is attaining different altitudes.
IRIDIUM System - to communicate with the vent, RFD 900 and the video system.
Spot Tracer - to know the GPS Position
Insta360 - for a regular 4K and 360 degree footage
APRS - to send and receive radio signals
Video System - a raspberry pi camera system to stream the video footage during flight on YouTube.
Ground Station - to track and communicate with the iridium system from the surface.
All the payloads connected together, make a 60 feet payload train weighing 12 pounds
RFD 900 System & IRIDIUM System
APRS System
Flight Controller
3D Printed vent with cutdown system and servomotor
Ground Station
Insta360 Camera
Parachute
Radar Reflector
We reaped our rewards of the hardwork by successfully building the payload system and launching the balloon to reach here.
University Of Bridgeport - NEBP Team