SpaceX is preparing to push rocket reusability to unprecedented heights during its upcoming flight test. The aerospace company will attempt to catch both stages of its Starship megarocket for the first time, marking a critical step in its long-term strategy to build a fully reusable orbital launch system. Starship's flight 15 is scheduled for launch on Friday, November 13, utilizing a 75-minute launch window that officially opens at 5:45 p.m. ET. While SpaceX has previously managed to catch the massive Super Heavy booster three times, this mission will introduce the first-ever attempt to catch the upper stage of the spacecraft.
Achieving a double catch would represent a massive engineering breakthrough for the company. SpaceX noted that a successful execution will mark the first full recovery of an orbital launch system, bringing the rocket closer to becoming a reliable and rapidly reusable vehicle. The ambitious maneuver will rely on two separate 480-foot-tall or 146-meter-tall Mechazilla launch and catch tower systems located at Starbase in South Texas. These massive structures feature specialized chopstick arms built to safely intercept the booster and upper stage as they make their controlled descents back toward Earth.
Key takeaways
- SpaceX is attempting its first double catch of Starship and its booster during flight 15 on Friday, November 13.
- The mission features a 75-minute launch window opening at 5:45 p.m. ET from Starbase in South Texas.
- The upper stage is expected to deploy 26 next-generation Starlink V3 satellites while orbiting at an altitude of around 171 miles.
- Two 480-foot-tall Mechazilla tower systems equipped with chopstick arms will be used for the catch attempts.
Engineering challenges of the double catch
Catching the Super Heavy booster and Starship's upper stage involves two entirely distinct sets of technical hurdles. The booster returns shortly after liftoff, utilizing carefully timed engine burns to slow its descent and align with the mechanical arms of the Mechazilla tower. In contrast, Starship's upper stage travels significantly farther and faster, achieving orbital velocity before executing a perilous journey back through Earth's atmosphere. This return demands surviving intense reentry heat, precise maneuvering, and a controlled slowdown to allow the tower arms to secure the vehicle.
The upcoming mission follows Starship's milestone test flight on September 28, where the vehicle reached orbit for the first time. Although that previous mission suffered lingering engine reliability issues that prompted engineers to shorten a planned 10-hour flight to a three-hour Pacific Ocean splashdown, it provided critical data. Founder and CEO Elon Musk emphasized the significance of these tests during an October earnings call, describing a fully reusable orbital launch vehicle as a profound technology milestone for the history of civilization and consciousness by enabling sustained space exploration.
Payload deployment and mission profile
Beyond the headline-grabbing catch attempt, the flight plan includes concrete operational objectives. Starship is slated to re-enter orbit and deploy 26 of SpaceX's next-generation Starlink V3 satellites. The spacecraft is expected to maintain an orbital altitude of approximately 171 miles or 275 kilometers. According to SpaceX schedules, the complete mission profile maps out roughly 14 orbits around the planet, stretching across a flight duration of more than 22 hours.
Engineers have also built safety contingencies directly into the flight profile. Similar to the initial orbital mission, the trajectory allows for safe insertion into a passively safe suborbital path or controlled deorbiting over pre-determined ocean regions if an engine anomaly occurs. Should any technical issues arise mid-flight, the operations team remains fully prepared to abort the extended mission early and execute a standard ocean splashdown for the upper stage. Ultimately, mastering the dual recovery of both the booster and the spacecraft is designed to drastically lower operational costs and drastically increase flight frequency for future missions.
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