SpaceX Starship Flight 14: The Plan to Catch Both Halves of the World's Most Powerful Rocket From the Sky — Window Opens September 22

A rocket taller than a 40-story building is scheduled to launch from the Texas coast, travel to space, return, and be caught mid-air by giant mechanical arms. Then — and this is the part nobody has ever tried — the top half comes back from orbital speed and gets caught too. The whole sequence takes roughly 7 minutes. SpaceX calls it Flight 14. The window opens September 22, 2026.

Ship 42, an unflown Starship upper stage, just finished multi-day catch-arm compatibility tests at Pad 2. That's why this launch is different from every other one before it.

What exactly is SpaceX Starship?

Starship is a fully reusable two-stage rocket system. The bottom stage is called Super Heavy. The top stage — confusingly — is also called Starship, or simply "the Ship." Stack them together and you get a vehicle 122 metres tall: higher than Big Ben, higher than the Statue of Liberty on its pedestal, taller even than the Saturn V that carried humans to the Moon.

Super Heavy alone runs on 33 Raptor engines burning liquid methane and liquid oxygen. At full throttle it produces roughly 7,600 tonnes of thrust — approximately twice the power of the Saturn V at liftoff. The most famous rocket in history had about half the thrust. SpaceX chose methane deliberately: in theory, you can synthesise it on Mars from CO₂ and water. The whole system was designed, from day one, for a civilisation that doesn't just visit other planets.

How does the chopstick catch actually work?

The launch tower at Starbase, Texas has two massive arms extending from its upper section. They're nicknamed the "chopsticks." When the Super Heavy booster returns after its stage separation, it descends engine-first, firing its Raptors to slow down. At the last moment — instead of extending landing legs — it simply stops. In mid-air. And the arms close around it.

The booster weighs roughly 200 tonnes when empty. It descends at over 300 km/h before the final braking burn. The arms have to be in exactly the right position at the right millisecond. SpaceX attempted this for the first time on Flight 5 in October 2024. The internet did not know what to do with itself.

Catching the Ship is considerably harder. The upper stage returns from orbital velocity — around 28,000 km/h — and has to survive re-entry before any catch attempt is possible. Previous flights tested controlled splashdowns and rough landings. Flight 14 is the first attempt to bring both stages back to the tower.

Why does full reusability change everything?

Every current rocket either destroys hardware or needs months of refurbishment. The Space Shuttle was nominally reusable but required thousands of technician-hours between flights. A vehicle that can be re-flown within hours rewrites every number in the economics of reaching orbit.

A tenfold reduction in cost per kilogram to orbit doesn't just make spaceflight cheaper — it makes things possible that currently aren't. Permanent Moon bases. Orbital manufacturing. A Mars colony that isn't a one-generation political gamble requiring national will and a century of treasure to sustain.

SpaceX founder Elon Musk has described a goal of 1,000 Starships launching toward Mars in a single synodic window — the roughly 26-month alignment period between the two planets. That number sounds unhinged until you do the maths on what $10 million per launch and same-day turnaround actually enables. Understand why orbital mechanics create those narrow 26-month windows.

What does NASA have to do with this?

More than most people know. In 2021, NASA selected a modified Starship as the Human Landing System for the Artemis program — the series of missions designed to return humans to the Moon. The contract is worth up to $4 billion. The Artemis III crew will use a Starship variant to descend from lunar orbit to the surface.

That means the rocket SpaceX is testing over the Gulf of Mexico right now — the one with Flight 14 on the manifest for September 22 — is the same architecture that will carry the next humans to walk on the Moon. Every catch test, every re-entry data point, every anomaly feeds directly into the vehicle that Artemis depends on.

What could go wrong?

SpaceX's own culture treats explosions as data. Five of the first six integrated Starship flights ended in either an explosion or a controlled splashdown rather than a clean arm recovery. The company has never pretended the development road is smooth.

The FAA complicates things further. The Federal Aviation Administration must approve every Starship launch, and the regulator has repeatedly delayed flights over environmental reviews and licensing conditions. SpaceX and the FAA have had a publicly tense relationship over cadence. The NET date of September 22 is contingent on that approval.

The Ship catch in particular has zero margin for error. The vehicle has to survive temperatures above 1,400°C during re-entry, decelerate from Mach 23 to near-zero, and arrive at exactly the right position for the arms to close. To be fair: SpaceX's iteration pace is faster than any other organisation in aerospace history, and the booster catch has now worked repeatedly. Betting against them has consistently been wrong. But "tested in dry runs" and "executed on launch day" are different things.

What happens if it works?

If both stages return and get caught — booster and Ship, in a single flight — it becomes a proof of concept for the most consequential shift in spaceflight economics since the Saturn V era. The full launch stack, ready to fly again, potentially within a day. That's not just impressive engineering. That's a structural change to what humanity can afford to do in space. Read more space exploration stories on the SkyLens blog.