USC satellite heading to orbit on SpaceX mission

A nanosatellite designed by University of Southern California (USC) students is scheduled to launch this July aboard a SpaceX Falcon 9 rideshare mission. Known as MAVERIC, the 3U CubeSat will test a suite of next-generation technologies including 3D imaging for satellite servicing and AI-enabled navigation systems. This mission is significant for the Space Technology sector as it validates how autonomous systems and low-cost sensors can improve the safety and efficiency of complex on-orbit operations.

Developed by more than 60 students and faculty at the USC Space Engineering Research Center, the MAVERIC mission focuses on advancing the emerging field of on-orbit servicing. The shoebox-sized 3U CubeSat is equipped with dual cameras to generate 2D and 3D imagery, providing operators with the necessary perspective for close-proximity operations such as inspecting, repairing, or refueling other spacecraft. David Barnhart, a research professor at the USC Viterbi School of Engineering and director of the USC Space Engineering Research Center, emphasized that these intelligent systems are designed to build trust in autonomous operations by allowing human intervention based on high-quality situational data.

The mission also serves as a commercial demonstration platform for Planetary Systems AI, which is deploying its first on-orbit AI-powered software. According to CEO Cindy Chin, the company will use MAVERIC’s imagery to train machine learning models directly in space, a process intended to reduce the bandwidth requirements of transmitting raw data back to Earth. Additionally, the satellite will test a novel navigation approach that utilizes Earth’s magnetic field for orientation rather than traditional reaction wheels. Researchers plan to use AI-based reinforcement learning to refine these navigation algorithms on the ground before uploading them back to the orbiting hardware.

Beyond its technical objectives, MAVERIC represents a collaborative model between academia and industry, supported by a gift from Positron Capital Management. The project involves students ranging from high school summer researchers to doctoral candidates, providing them with hands-on experience in designing, building, and operating flight hardware within Southern California’s aerospace corridor. The mission’s low-cost magnetic field sensing experiments also aim to prove that inexpensive CubeSats can collect the high-fidelity global measurements required to support the safety and navigation of all future satellite constellations.