For years, Starship has been pushing toward a destination that sounds simple but is brutally difficult to achieve: orbit. On September 28, 2026, SpaceX finally took its enormous spacecraft into that territory, turning Flight 14 into a milestone that changes what the vehicle has demonstrated in space.

But the achievement did not come with a perfectly smooth flight. An engine shut down earlier than planned, the mission profile changed, and Starship ultimately returned to the Pacific sooner than originally intended. Along the way, however, it accomplished something previous Starship flights had not—and carried a useful payload with it.

Starship Flight 14 marks a new chapter for SpaceX

Flight 14 lifted off from SpaceX’s Starbase facility in South Texas at 8:49 a.m. EDT on September 28.

It was the 14th integrated Starship-Super Heavy test flight, but this mission represented a major shift from the vehicle’s earlier testing. Previous Starship flights had reached space before returning to Earth on suborbital trajectories.

This time, the objective was orbital flight.

The enormous vehicle consists of two stages: the Super Heavy booster and the Starship upper stage. Together, they stand roughly 400 feet tall and are powered by dozens of methane-fueled Raptor engines.

SpaceX has designed the system to eventually be fully reusable, with both stages intended to return and fly again.

That long-term goal is what makes an orbital flight so important. Reaching space is only one part of the challenge. A spacecraft must survive ascent, separate from its booster, perform the necessary manoeuvres, deploy its payload and then withstand the punishing conditions of atmospheric reentry.

Flight 14 would put all of those pieces to the test.

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A quick look at the mission timeline

Time / Stage	What happened
8:49 a.m. EDT	Starship Flight 14 launched from Starbase, Texas
About 2 minutes, 20 seconds	Super Heavy engines began shutting down as Starship’s six Raptor engines took over
After separation	Super Heavy flipped and restarted engines for its boost-back manoeuvre
Orbital climb	One Starship Raptor engine shut down prematurely
Orbital insertion	Starship completed the burn using a single Raptor engine
After reaching orbit	26 next-generation Starlink satellites were deployed
About three hours into mission	Starship began its early return
Approximately 11:57 a.m. EDT	Controlled Pacific splashdown north of Hawaii

Super Heavy loses engines but completes its return

The first major part of the flight involved separating the two stages.

About two minutes and 20 seconds after liftoff, the Super Heavy’s engines began shutting down as Starship’s six Raptor engines took over. The two stages used hot staging, a manoeuvre in which the upper-stage engines ignite shortly before the booster separates.

The booster itself had already encountered an engine issue during ascent. One of its 33 engines shut down, but Super Heavy was designed to remain capable of completing its flight after losing one or two engines.

After separation, Super Heavy flipped around and restarted its engines to perform a boost-back manoeuvre. That allowed it to reverse course toward the Texas coast.

Another engine apparently shut down during the manoeuvre.

Even so, the booster completed a controlled return and splashdown in the Gulf of Mexico.

SpaceX did not attempt to catch Super Heavy using the giant mechanical arms installed at its launch tower. The company has demonstrated successful booster catches during previous testing, but ocean splashdowns are being used while additional upgrades and flight hardware are evaluated.

That meant the first orbital mission was already testing more than one new capability at once.

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The critical Starship engine shutdown came next

The more consequential moment occurred after Starship separated from Super Heavy.

One of the spacecraft’s six Raptor engines shut down prematurely while Starship was climbing toward its planned trajectory.

At that point, the mission could have become a very different story.

Instead, mission controllers assessed the spacecraft’s telemetry and determined that Starship remained healthy enough to continue.

Starship then performed a second engine firing, using a single Raptor, to complete its climb into orbit.

The spacecraft eventually reached an orbit approximately 180 miles above Earth.

That was the breakthrough.

For the first time, the complete Super Heavy-Starship system had demonstrated that it could send the Starship upper stage into Earth orbit.

The significance goes beyond a single altitude figure. Earlier flights had shown that Starship could reach space on suborbital trajectories. Flight 14 demonstrated the additional orbital-insertion capability required to actually place the upper stage around Earth.

And the spacecraft was not travelling empty.

26 next-generation Starlink satellites become part of the milestone

Shortly after reaching orbit, Starship deployed 26 third-generation Starlink satellites.

The deployment created another first for the spacecraft: Starship had now demonstrated that it could perform useful payload-delivery work rather than serving solely as a test vehicle.

The satellites belong to SpaceX’s expanding Starlink constellation and were released from a dispenser inside Starship’s payload section in a sequence resembling a Pez dispenser.

These new Starlink V3 satellites are designed to provide substantially greater capacity than earlier generations.

CBS reported that each satellite has about 10 times the capacity of the previous generation.

That detail gives the orbital achievement another dimension. Starship was not simply proving that it could reach orbit; it was also demonstrating the beginnings of its role as a vehicle capable of carrying operational payloads.

For SpaceX, that distinction matters.

Why did Starship return before completing six orbits?

There was still another twist.

The original plan called for Starship to complete six orbits around Earth before splashing down in the Pacific Ocean near the coast of Chile.

Instead, mission controllers chose to bring the spacecraft home after the successful Starlink deployment and completion of the mission’s primary new objectives.

The decision allowed SpaceX to gather valuable information from the orbital flight and reentry without continuing for the full planned duration.

After roughly three hours, Starship began its return.

The spacecraft reentered Earth’s atmosphere and carried out the controlled descent that the flight was designed to demonstrate. During reentry, its heat shield faced the extreme temperatures generated by atmospheric flight.

Starship used its aerodynamic surfaces to maintain its orientation before firing three Raptor engines near the end of the descent.

The spacecraft then flipped upright and completed a controlled, tail-first splashdown in the Pacific Ocean north of Hawaii at approximately 11:57 a.m. EDT.

Starship tipped onto its side after reaching the water and subsequently broke apart as residual propellants ignited.

That outcome is consistent with the fact that Starship was performing an ocean splashdown, rather than attempting a controlled landing on a prepared pad.

So Flight 14 was not a complete demonstration of Starship’s eventual reusable landing system.

But it had already crossed a major technological threshold.

NASA’s Artemis plans make Starship’s progress even more significant

Starship’s orbital milestone also reaches beyond SpaceX’s commercial ambitions.

NASA is relying on a version of Starship for its Artemis lunar programme.

NASA is currently targeting early 2028 for Artemis IV, which it describes as the first planned crewed lunar landing under the updated Artemis architecture.

Before that, NASA plans an Artemis III mission in 2027 that will test rendezvous and docking operations with commercial lunar lander systems in Earth orbit before the lunar landing attempt.

SpaceX’s Starship Human Landing System (HLS) is being developed to carry astronauts between lunar orbit and the Moon’s surface.

NASA says it is working with SpaceX on Starship HLS for both Artemis III and Artemis IV.

For Artemis III, NASA plans to test one or both commercial lunar landers in low Earth orbit, including rendezvous and docking operations with Orion. 

For Artemis IV, Starship HLS is being developed to meet additional requirements, including docking with NASA’s Gateway lunar station.

That makes the orbital progress of the larger Starship transportation system particularly important.

A lunar mission will require Starship-related vehicles to demonstrate reliable orbital operations, propellant transfer and long-duration missions before astronauts can depend on the architecture.

NASA’s current planning also involves numerous tanker flights to place propellant in orbit for the lunar lander. A NASA Office of Inspector General review said SpaceX’s architecture calls for more than 10 tanker flights to deliver propellant to an orbital storage depot before the lunar landing mission.

Jared Isaacman congratulates SpaceX

NASA Administrator Jared Isaacman praised SpaceX after Starship reached orbit.

“Congrats @SpaceX! Gorgeous launch, getting Ship to orbit and managing every step in a safe, responsible, and especially inspirational way. @NASA, along with the rest of the interested public, is excited to help where we can and for Starship missions to become routine!”

His statement reflects NASA’s continuing interest in Starship’s development as the agency prepares for its next phase of lunar exploration.

NASA has continued working with SpaceX on Starship HLS, including testing and engineering work intended to mature the vehicle for future crewed missions.

In July 2026, NASA said work was continuing on upgraded Super Heavy hardware expected to form part of the Starship HLS architecture for Artemis III and the later lunar landing mission.

Starship has reached orbit—but the hardest work continues

Flight 14 is a major milestone, but it did not demonstrate the entire operational Starship system.

The Super Heavy booster was not caught at the launch tower. The Starship upper stage did not complete the planned six orbits. And the spacecraft did not return to a landing pad.

There is also substantial work ahead before Starship can perform the increasingly complex operations required for NASA’s lunar missions, including reliable long-duration orbital operations, propellant transfer and the capabilities required for Starship HLS.

NASA’s current architecture gives SpaceX additional time to mature those systems before the planned 2028 Artemis lunar landing.

Still, Flight 14 has established something the previous Starship test flights could not.

Starship can reach orbit and deliver an operational payload.

The engine shutdowns, altered mission profile and ocean splashdown show that the journey toward a fully reusable and dependable system is still underway. But the flight also demonstrated the scientific and engineering progress behind that journey.

For SpaceX, the next challenge is no longer simply proving that Starship can reach orbit.

It is turning that breakthrough into a repeatable capability.

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Conclusion

Starship Flight 14 has opened a new chapter in SpaceX’s development of its massive reusable spacecraft. The vehicle reached an orbit roughly 180 miles above Earth, deployed 26 next-generation Starlink satellites and returned through the atmosphere for a controlled Pacific splashdown.

The mission did not complete its original six-orbit plan, and several parts of the eventual reusable system remain to be demonstrated. Yet the central achievement is clear: Starship has moved from suborbital testing to orbital flight and operational payload deployment.

For a vehicle being developed for both commercial work and future lunar missions, that transition represents a significant step toward the much larger goal ahead.

Source & Research Disclaimer

This article has been prepared based on thorough research of the sources provided with the original material, including SpaceX, NASA, NASA’s Office of Inspector General, the Federal Aviation Administration, CBS News and Reuters. It reflects information available as of September 28, 2026 and does not imply independent verification beyond what those provided sources and the supplied verified material support. Spaceflight schedules, mission objectives and NASA’s Artemis architecture can change as testing and development continue.

Sources

• SpaceX: Starship Flight 14
• NASA: Artemis IV
• NASA: Artemis III crew and 2027 mission details
• NASA: Human Landing System
• NASA: How Artemis III’s lander test will pave the way for Moon landings
• NASA Office of Inspector General: Management of the Human Landing System Contracts
• Federal Aviation Administration: SpaceX Starship licensing and permitting process
• CBS News: SpaceX launches Starship on giant rocket’s first flight to orbit
• Reuters: Starship reaches orbit and deploys Starlink satellites

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