The primary objective of Flight 15 was to achieve the first “double catch” of an orbital launch system, involving the recovery of both the booster and the upper stage. While SpaceX has successfully captured the Super Heavy booster on three previous test flights, the upper stage had never been recovered from orbit. The booster, identified as Super Heavy v3 Booster 22, was scheduled to return to the launch tower six and a half minutes after liftoff. Instead, an automatic abort was triggered, sending the 72-meter (236-foot) vehicle into the ocean. A SpaceX spokesperson stated during the livestream that safety remains the top priority and that the company is still testing unproven maneuvers.
SpaceX launch commentator Kate Tice noted that the abort was consistent with rigorous safety checks designed to protect the launch pad. No specific technical explanation for the malfunction was provided in the immediate aftermath. This was the first attempt to capture the upgraded production model of the booster intended for future lunar and Mars expeditions. The loss of the booster means the full recovery goal for this flight has been missed, though the upper stage continues its journey.
The Starship upper stage, which spans 52 meters (171 feet), is currently in orbit at an altitude of approximately 275 kilometers (170 miles). It has deployed 26 Starlink V3 satellites, each adding one terabit of capacity to the constellation. SpaceX stated that these satellites will significantly expand network capacity and user speeds. The spacecraft is expected to complete 14 to 15 orbits around Earth before attempting to return to the launch site. The total flight duration is projected to be 22.5 hours, with the second catch attempt scheduled for approximately 15:15 local time on Saturday.
This mission is a critical milestone for SpaceX, which aims to make Starship fully reusable to reduce launch costs and increase flight frequency. The company plans to eventually phase out its Falcon 9 rocket in favor of Starship for heavier payloads, including payloads for orbital data centers and crewed missions to the Moon and Mars. The successful deployment of satellites and the continued operation of the Starship in orbit demonstrate the vehicle’s capability, even as the booster recovery issue remains unresolved.
The next critical step is the attempt to catch the Starship upper stage using the mechanical arms, nicknamed “chopsticks,” on the launch tower. SpaceX has indicated that it will assess the vehicle’s condition in space before making a final decision on the recovery maneuver. If problems are detected, the stage may be diverted to the ocean rather than risk the launch site. This flight represents a significant test of the hardware and procedures required for rapid reusability, a capability that has not yet been achieved for any orbital launch system.
