TL;DR
SpaceX is preparing to attempt catching the Starship upper stage with the orbital launch tower’s “chopstick” arms on the next Integrated Flight Test, following the successful conclusion of Flight 13 on July 25, 2026. If successful, this would mark the first time SpaceX recovers both the Super Heavy booster and the Starship ship at the pad, a key milestone toward rapid reusability and lower cost per launch.
What Happened
Flight 13 of the Starship/Super Heavy system ended with a controlled splashdown of the upper stage in the Pacific Ocean, but the mission itself was far from routine. Landing burns performed nominally, and the vehicle demonstrated all the steering and throttle control necessary for a return to the launch site. According to the report from Ars Technica, SpaceX engineers are already reviewing data from the flight and have signaled that the following mission—likely designated Integrated Flight Test 14—will attempt a tower catch of Starship at the company’s Starbase facility in Boca Chica, Texas.
Key Facts
- SpaceX completed its 13th Starship integrated flight on July 25, 2026, with the Super Heavy booster executing a successful ocean landing and the Starship upper stage descending precisely through the atmosphere before a soft water touchdown.
- The orbital launch tower at Starbase has already been used to catch the Super Heavy booster on three previous flights, but has never attempted to catch the Starship ship itself due to its different aerodynamic profile and landing dynamics.
- Ars Technica reports that SpaceX is targeting the next flight (IFT-14) for the tower-catch attempt, with a launch window possibly opening in late August or early September 2026 pending regulatory approvals from the FAA.
- The Starship upper stage is equipped with four forward flaps and two aft flaps that provide active aerodynamic control during reentry and landing, a design that SpaceX has steadily refined since the first high-altitude flights of the SN15 prototype in 2021.
- Flight 13 carried a payload of 10 Starlink V3 satellites — the first commercial deployment from Starship — and delivered them to low-Earth orbit before proceeding to the ocean landing test.
- The “chopstick” arms on the launch tower can lift and position the full stack, but catching the ship requires the arms to close around the vehicle’s body rather than the grid fins used for booster capture, adding complexity to the timing and precision.
- SpaceX founder Elon Musk stated in a post-flight social media update that the ship’s “header tank and landing burn performance were essentially perfect,” giving the team confidence to move straight to the catch attempt.
Breaking It Down
The shift from ocean landings to tower catches represents a fundamental change in SpaceX’s reuse strategy. For the booster, catching at the pad eliminates the need for ocean recovery vessels, shortens turnaround time, and reduces wear from saltwater exposure. Applying the same logic to the Starship upper stage is the next logical step, but the engineering challenges are notably different. The ship comes in faster and with a lower ballistic coefficient than the booster, meaning it decelerates more gradually and is more susceptible to crosswinds near the ground.
The Starship ship’s dry mass is roughly 100–120 tonnes depending on configuration, compared to the Super Heavy booster’s ~200 tonnes — but the ship has a much larger surface area and less thrust-to-weight ratio at landing, making the final seconds of descent the hardest to control.
To catch the ship, SpaceX must fly it back over the launch site after a fully orbital trajectory, then hover precisely within the capture zone of the chopsticks. The vehicle’s flaps have been tested extensively on previous flights, including the belly-flop turn and the vertical flip just meters above the ocean. On Flight 13, telemetry showed the ship held its final hover altitude within 2 meters for over 10 seconds before splashdown—within the margin the chopstick arms can tolerate. The company has also upgraded the transpiration-cooled stainless steel tiles on the ship’s windward side to withstand the extra heat load from reentering after a full orbital mission, rather than the suborbital arcs used on earlier tests.
Another critical factor is the booster interaction. On a typical launch, the Super Heavy booster returns to the launch site within about 7 minutes and is caught by the tower. The ship then returns roughly 45–90 minutes later, depending on mission profile. That means the tower must be cleared of the booster and ready to catch the ship in a single launch window. SpaceX has already demonstrated rapid repositioning of the chopsticks between catches, but catching two different vehicles of different sizes and masses on the same tower in the same day has never been attempted. If Flight 14 succeeds, it will be the first time a single mechanical structure captures both stages of a reusable launch vehicle during a single mission.
What Comes Next
If IFT-14 proceeds as planned, SpaceX will face a series of tightly interconnected milestones. The company will need to finalize its reentry guidance software, secure an updated FAA launch license that covers the ship-catch profile, and resolve any hardware issues that emerged during Flight 13 (such as the minor flap actuator anomaly noted in internal briefings).
- Regulatory approval: The FAA’s modified launch license for the ship-catch attempt is expected by mid-August. SpaceX has already submitted a flight-safety analysis showing the ship’s landing footprint is entirely within the existing Starbase hazard area.
- Pad modifications: Engineers will install additional crush-core material on the chopstick arms to absorb the ship’s impact energy, and upgrade the landing-pad camera network to provide real-time feedback to the landing controller.
- Flight 14 launch timeline: The earliest possible launch date is August 28, 2026, with backup dates in early September. The launch window will be instantaneous to align with the station-keeping requirements of the Starlink payload (believed to be another batch of 20 V3 satellites).
- Post-catch inspection: If the catch is successful, SpaceX will immediately ground the vehicle for a thorough structural inspection, with a target of reflying the same ship within 30 days on Flight 15—a pace that would set a new record for orbital-class vehicle turnaround.
The Bigger Picture
This story is part of two larger industry trends. Rapid Reusability is the driving philosophy behind SpaceX’s design choices: landing the booster and ship back at the launch pad slashes the per-launch cost from tens of millions to potentially under $10 million, enabling high-cadence operations for megaconstellations and future human missions. The success of the ship catch would also validate the integrated tower approach that SpaceX has championed over traditional landing legs, which add dead weight and complicate refurbishment.
Second, the evolution of Starship from a test article into a revenue-generating vehicle—Flight 13 already deployed commercial satellites—signals the beginning of operational heavy-lift capability that will compete directly with traditional launch providers such as ULA and Arianespace. If SpaceX can catch and refly Starship quickly, it will have a cost advantage that could reshape the commercial launch market by the end of the decade, particularly for large government payloads like the Artemis Human Landing System and NASA’s Gateway modules.
Key Takeaways
- Tower-Catch Milestone: SpaceX will attempt to catch the Starship upper stage with the launch tower’s chopstick arms on its next flight, a first for the program and a major step toward fully reusable orbital flight.
- Flight 13 Success: The July 25, 2026 flight demonstrated near-perfect landing performance for the ship, giving engineers the confidence to skip further ocean tests and go directly to a pad catch.
- Timeline Pressure: The attempt could come as early as late August 2026, contingent on FAA approval and final pad modifications, with a potential for rapid reuse if the catch succeeds.
- Market Impact: A successful ship catch would accelerate SpaceX’s ability to lower launch costs and scale Starship operations, putting pressure on legacy launch providers and enabling ambitious new payload architectures.
