In Simple Terms
SpaceX is preparing to launch Starship again and hopes to bring both parts of the rocket back to Earth. The company has caught the lower part before, but has never tried to catch the upper spacecraft. If both attempts work, the result could help SpaceX reuse its rockets more quickly, though success is far from guaranteed.
A New Booster Reaches the Launchpad
In South Texas, Super Heavy Booster 22 has arrived at the launchpad as preparations get underway for Starship’s 15th test flight. This time, the test is about more than sending a spacecraft into space: SpaceX wants to bring back both major parts of the rocket and catch each one with the launch tower’s arms. It would be a two-part recovery attempt the company has never made before.
On November 10, 2026, SpaceX announced that the first stage of the Starship system, Super Heavy Booster 22, had been moved from an assembly building to the launchpad at Starbase in Texas. The company is targeting Friday, November 13, for the 15th flight, subject to weather and readiness. Moving the booster to the pad signals that it has entered final preparations, but it does not guarantee that launch will go ahead.
Before the move, the booster was inside one of SpaceX’s large assembly buildings at Starbase. Once it reached the pad, the company carried out tests related to the planned catch. These included a pressurization test while the booster was suspended at the height where the tower arms are expected to grab it. The test lets engineers examine how the vehicle and the arms interact in a position similar to the planned catch before attempting it during an actual flight.
The booster is powered by 33 Raptor engines developed by SpaceX. It forms the lower part of the rocket, providing thrust during the initial climb before separating from the upper vehicle, which the company calls the Ship. The two sections follow different paths after separation, so recovering both on one mission is not simply a matter of repeating the same catch twice.
Why a Double Catch Is Different
SpaceX has used the launch tower’s two giant chopstick-like arms to catch a Super Heavy booster on three previous occasions. The company has never tried to catch the upper spacecraft. The Ship travels farther and follows a longer route than the booster, making its recovery a challenge in its own right. Its return also has to be coordinated with the first stage’s return.
Previous booster catches showed that, under certain conditions, the tower can catch that part of the vehicle. But success with the booster does not automatically mean the Ship can be caught. Each vehicle follows a different trajectory and schedule. Flight 15 therefore includes two major tests: an attempt to catch the booster shortly after liftoff, followed by an attempt to catch the Ship after it completes its mission in orbit and returns to Earth.
Starship first reached orbit on Flight 14, which launched on September 28. That achievement sets the stage for the next attempt: the program has moved from demonstrating that it can reach orbit to testing more ambitious aspects of operating the system, including recovery of the upper spacecraft. Even so, Flight 15 remains a test. The announced plan is a goal the company hopes to meet, not an outcome that has already happened.
Two Returns, Nearly a Day Apart
Under the planned schedule, the launch window opens on Friday and lasts 75 minutes, beginning at 5:45 p.m. Eastern Time in the United States. That is 22:45 GMT and 4:45 p.m. local time in Texas. A window lasting more than an hour gives the team a period in which it can attempt a launch; it does not mean the rocket will necessarily leave the pad right when the window opens.
If the rocket launches as planned, Super Heavy is expected to return to Starbase about 6.5 minutes after liftoff for an attempted catch near the launch tower. The Ship will not come back at the same time. The plan calls for its journey to last about 22 hours before the company attempts to recover it. The difference in timing reflects the fact that the upper stage will continue its mission after separating from the booster, then return later.
During its flight, the Ship is expected to deploy 26 third-generation Starlink satellites into low Earth orbit and complete 14 circuits around Earth before returning. The mission therefore combines satellite delivery with a test of spacecraft recovery; it is not simply a short up-and-down flight for the entire system. Trying to catch the Ship after this longer journey is the part of the plan SpaceX has not previously tested in this way.
Why SpaceX Wants Both Vehicles Back
SpaceX is counting on recovery of both sections to help it increase Starship launch frequency in the future. Its stated operational goal is not just to develop a rocket that can reach orbit, but to use recoverable vehicles and return them to service rather than treating every flight as a one-time use. If the company can recover them reliably, it may be able to prepare the vehicles for their next flights more quickly, supporting a higher launch rate.
But moving from catching a booster in specific test flights to recovering both stages on operational missions will require repeated testing. Flight 15 alone cannot show that the process has become routine, even if both catch attempts succeed. The results will help clarify whether the recovery approach SpaceX is pursuing can be used on future missions, as well as what still needs to be changed.
SpaceX links an increase in Starship flights to broader plans, including expanding the Starlink constellation with third-generation satellites and deploying a network of artificial-intelligence data centers known as Starmind. Elon Musk has discussed an ambition of reaching 10,000 Starship flights per year by 2030. That figure is a future target he has announced, not the current launch rate, and reaching it would depend on successful rocket development and a very high operating tempo.
An Ambitious Test, Not a Guaranteed Success
The movement of Booster 22 and the tests carried out after it reached the pad show that preparations involve more than getting its engines ready for liftoff. The plan depends on each stage returning in a way that matches the system designed to catch it at Starbase, with the tower ready to attempt two catches at different times. Images released by the company offer a glimpse of the booster inside the assembly building and later suspended between the tower’s arms, but they do not, by themselves, show that the upcoming flight will succeed.
The test matters because it explores a new step in reusability: not only recovering the first stage, which the company has caught three times before, but adding the upper spacecraft to the recovery effort. It is important to distinguish the goal from the result. SpaceX intends to attempt a double catch, but readers should not treat that as though the catches have already happened. Liftoff, satellite deployment, and the return of the two sections are separate stages; some could succeed even if others run into trouble.
The value of the flight should not be reduced to the spectacle of catching both vehicles. Information from the tests, including the pressurization test while the booster was suspended at the planned catch height, can help engineers assess the approach before turning it into a repeated operating procedure. In the launch industry, a design does not become dependable just because it works once; it takes results that can be repeated across different flight conditions.
The Bottom Line
SpaceX is preparing for Starship’s 15th flight after moving Super Heavy Booster 22 to the Starbase launchpad in Texas and conducting tests related to its recovery. The company plans to try to catch the booster about 6.5 minutes after liftoff, then recover the Ship about 22 hours later, after it deploys 26 Starlink V3 satellites and completes 14 circuits around Earth. If both attempts work, it will be the first time SpaceX has tried to catch both sections in a single flight, an important step toward greater reuse. The actual outcome will depend on what happens during the test scheduled for November 13, 2026.