Georgia Tech Students Established Satellite Contact
The student team successfully connected with their custom spacecraft now orbiting in low Earth orbit.
Updated on Oct. 6, 2026 in Space
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Georgia Tech students have established communication with a student-built satellite currently orbiting 500 kilometers above Earth. This mission, supported by the NASA Marshall Space Flight Center, marks the successful start of a propulsion testing operation.
Why it matters
The mission tests a unique dual-mode propulsion system that uses a single propellant for both chemical and electric thrust. This technology is designed to replace toxic hydrazine fuel with a safer, high-performance alternative for small spacecraft.
The spacecraft maintains an orbit at an altitude of 500 kilometers while executing maneuvers within a 5-kilometer range. The mission utilizes the ASCENT dual-mode system, which alternates between high-thrust and high-efficiency flight modes.
The players
Georgia Tech
This is a public research university that maintains a specialized Space Systems Design Laboratory for student-led aerospace projects.
NASA Marshall Space Flight Center
This facility is one of the agency's largest field centers and specializes in propulsion research and space transportation technology.
The details
Operating from the Space Systems Design Laboratory in Atlanta, students are managing daily shifts to track and command the satellite. The spacecraft was delivered to space aboard a SpaceX Falcon 9 rocket following three years of design and development.
Timeline
2021: Students previously contributed to the Lunar Flashlight CubeSat Mission.
October 1, 2026: The student operators established initial contact with the satellite.
Next nine months: Students will conduct continuous propulsion testing and spacecraft operations.
The Big Picture
This mission aligns with the ongoing shift toward sustainable space transportation by testing non-toxic propellant alternatives. The success of the ASCENT system could permanently replace traditional hydrazine, which has been the industry standard for chemical propulsion for decades.
The successful validation of the ASCENT system promises to lower costs and improve safety for future small-satellite deployments. This breakthrough provides a practical template for universities to develop viable aerospace hardware that can be launched into commercial or scientific orbits.
The takeaway
This project highlights how academic teams are increasingly bridging the gap between theoretical research and operational spacecraft management. Students looking to enter the industry should prioritize gaining hands-on experience with flight hardware and mission control procedures.
Further reading
For more on developments in orbital research, visit the Space section.
Source note: This article includes information reported by FOX 5 Atlanta.
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