Starship: what a double catch would really demonstrate

Catching the Starship spacecraft after its return from orbit would be a distinct milestone from recovering the booster. And even a double catch would not yet prove that both vehicles can be inspected, refurbished and relaunched quickly.

Recovering a launch vehicle is not just a matter of bringing it back to Earth: it also has to be brought to a precise point and caught without being damaged. SpaceX intends to attempt to catch both parts of Starship at the launch tower: the Super Heavy booster and the spacecraft. As of 7 November 2026, this double catch is an announced goal for a future test, not an achieved result; the schedule and flight authorisation remain to be confirmed.

Two vehicles, two returns

Starship is a two-stage system. Super Heavy, the first-stage booster, provides the thrust at launch. The Starship spacecraft is the upper stage: it continues on its trajectory after separation, can reach orbit, and must then return to Earth. In SpaceX’s plan, both vehicles return to the launch tower, where mechanical arms — nicknamed ‘chopsticks’ — are supposed to catch them.

Futura Sciences notes that the booster has already been recovered on previous flights. But the return of the upper stage adds a sequence of its own. After its orbital phase, the spacecraft has to begin its atmospheric re-entry, pass through an area of intense heating, and then correct its trajectory towards the tower. Each step must put a vehicle still in flight in the right position for a catch.

A controlled return and a recovery must therefore be distinguished. According to information reported by Futura Sciences, the spacecraft has already completed flights with controlled splashdowns. That does not mean it has already returned to the tower to be caught by its arms. A splashdown and a catch at the launch site do not involve the same phase of the mission or the same degree of final precision.

What the ‘chopsticks’ have to do

The tower’s arms are not simply pincers placed in the path of a vehicle that descends passively. For a catch to work, the vehicle has to arrive in a configuration and at a position that allow the arms to grip it. This requires the preceding stages to have been mastered: re-entry, thermal behaviour, orientation control and guidance towards the tower.

There is also an operational aspect at stake. An attempt to catch Super Heavy is not enough to validate a Starship catch: the spacecraft arrives after an orbital mission and atmospheric re-entry. Catching it successfully would show that this sequence can end with a return to the intended site. It would be an important step towards recovering the complete system, but would not yet demonstrate a cycle of repeated flights.

The schedule information available as of 7 November should be treated with caution. Futura Sciences mentions a target around 12 or 13 November, while noting that other schedules show 30 November. These dates do not amount to confirmation of a launch. The Federal Aviation Administration (FAA), which oversees launch and re-entry operations in the United States, says SpaceX must obtain an experimental permit and/or an operating licence to fly Starship/Super Heavy. The material consulted does not confirm that the authorisation required for this flight profile has been granted.

A catch is not a return to service

Even if the arms caught both vehicles, it would remain to be established what happens after the spectacular moment of the catch. In particular, it would be necessary to know what condition the vehicles return in, how long their inspections and any repairs take, and when they can fly again. A successful recovery does not, by itself, provide these answers.

This distinction matters when assessing reusability claims. Recovering a vehicle may make it possible to inspect it and, potentially, prepare it for another flight. But launch cadence also depends on the time and operations required between missions. Without data on inspections, refurbishment and subsequent flights, it is premature to infer from a catch that the vehicle can be reused quickly or that it will deliver measurable savings.

The FAA also notes that a permit or licence review covers several aspects, including public safety, insurance requirements and environmental impacts. Its role is therefore not limited to approving a technical manoeuvre; the authorisation governs the operations the company may carry out. The agency’s page consulted sets out this general framework, but does not prove that the planned flight has been given the go-ahead.

The link with the Moon involves other steps

Full recovery is also relevant to lunar projects, but it does not make them possible straight away. For the version of Starship intended to serve as a lander for Artemis, NASA describes an architecture in which several vehicles must deliver cryogenic propellant — propellant stored at very low temperatures — to low Earth orbit. They must refuel a depot, which will then supply the lunar lander.

This proposed arrangement involves orbital operations distinct from a catch on the ground. A vehicle capable of returning to its tower has not, by that fact alone, demonstrated that it can transfer fuel in space, nor has it completed a journey to the Moon. NASA presents the aggregation of propellant as a step to be demonstrated as part of the uncrewed mission planned for its architecture. It is a plan, not an operation that has already been carried out.

A double catch would therefore be specific evidence: evidence that the upper stage had returned to its launch site and been caught, in addition to the recovery of the booster. Further evidence would be needed on the condition of the vehicles, their return to service and the orbital operations required for lunar missions. In spaceflight, achieving one step matters; it does not sum up all the steps still to come.