SpaceX launched Starship Flight 14 from Starbase, Texas on September 28, 2026, using Super Heavy Booster 21 and Ship 41, both from the new Block 3 generation. It was the first Starship to enter sustained orbit and the first to deploy working payloads.

What happened on Flight 14

  • The ship deployed 26 Starlink V3 satellites, three of them carrying cameras to photograph the ship’s heat shield.
  • One of the ship’s three vacuum Raptor engines shut down during ascent, so orbital insertion was done on a single engine.
  • SpaceX shortened the mission from a planned run of about ten hours to roughly three, then splashed the ship down in the Pacific north of Hawaii. As expected, the ship fell onto its side and blew up when it hit the water. SpaceX never intended to recover it.
  • The booster lost one engine on ascent and had some engines fail to relight, but still made a controlled splashdown in the Gulf of Mexico. No tower catch was attempted.

Flight 15: catching both stages

The next flight will use Booster 22 and Ship 42. SpaceX plans to catch both the Super Heavy booster and the Starship upper stage with the launch tower, which would be the first ship catch ever. Musk put the odds of catching the ship on the first try at “at least 50 or 60 percent”.

Both stages completed static fire tests in late October, and Musk said on SpaceX’s quarterly call that the flight was expected in November. As of late October, SpaceX had not announced a firm launch date.

Why it matters

Catching the ship is the last major step toward a fully reusable rocket. If both stages can be caught and reflown, the cost of putting mass into orbit could drop sharply, which is central to Starlink’s expansion and to NASA’s Artemis lunar lander plans.

How Starship got here

Starship is the largest rocket ever flown. The first full test flight, in April 2023, ended when the vehicle tumbled and was destroyed a few minutes after launch. Each flight since has pushed further: reaching space, surviving reentry and, in October 2024, the first catch of a Super Heavy booster by the launch tower’s mechanical arms, nicknamed chopsticks. Several later flights ended early because of engine or ship failures, which is part of SpaceX’s approach of flying hardware often and learning from what breaks.

Block 3 is the latest generation of the design, with upgraded Raptor engines and a larger, more capable ship. Flight 14 was its debut, so engine problems on a first flight are not unusual, even if they cut the mission short.

Why catching the ship is harder

The booster only flies up and comes back down a few minutes later, without facing the full heat of reentry from orbit. The ship travels much faster, and returning from orbit means surviving temperatures of well over a thousand degrees Celsius on its heat shield, then flipping from a belly-first fall to an upright position and firing its engines to slow down precisely next to the tower. Any damage to the heat shield or a missed engine relight can end the attempt.

That is why the heat shield cameras on three of the Starlink satellites matter. Seeing how the tiles look after launch and in orbit helps SpaceX understand damage before a ship ever tries to come home intact.

The NASA connection

NASA chose a version of Starship as the lander that is planned to carry astronauts to the lunar surface on its Artemis missions. To get there, a Starship will need to be refueled in orbit by other Starships, which requires many launches in a short time. Cheap, quick reuse of both stages is the foundation of that plan, so every step toward catching and reflying ships feeds directly into the Moon program’s schedule.

What we think

Reaching orbit and deploying real satellites is the moment Starship starts doing useful work rather than only testing itself. The engine-outs show the new hardware still has rough edges. The milestone that matters most is still ahead: a ship that returns intact and flies again. Flight 15’s catch attempt is the first real shot at it, and even a near miss would tell SpaceX a great deal.