Days after SpaceX’s Flight 13, the company is actively recovering Ship 40, the upper stage of its Starship vehicle, from the Indian Ocean.
SpaceX completed the test flight of its Starship megarocket on July 24, 2026, following an aborted launch attempt the previous week in which several Super Heavy engines failed to ignite. The test flight—Flight 13—achieved several key milestones before concluding with a controlled splashdown of the upper Starship spacecraft in the Indian Ocean.
After splashdown, Ship 40 has remained afloat for days, as confirmed through satellite imagery, including Synthetic Aperture Radar (SAR).
Notably, SpaceX has been working to bring the upper spaceship back for a controlled landing after flight, eventually recovering and quickly reusing the vehicles, which may significantly reduce launch costs. However, for it to be reused, the ship must survive high-speed atmospheric reentry, flip from a belly-first attitude to a vertical landing orientation, and then perform a precise, powered landing burn. Reliable performance of these steps is essential for catching the vehicle with the launch tower’s mechanical arms, which is the planned path to rapid reuse and dramatically lower costs.
Interestingly, SpaceX had no plans to recover Ship 40. The vehicle, however, successfully completed all of the above steps and achieved an unusually soft splashdown.
SpaceX spokesperson Dan Huot stated that Ship 40 demonstrated significant improvement over its predecessors by keeping its engines operating, maintaining control during aggressive reentry, and achieving its softest splashdown to date at the target landing site. Huot described the outcome as a “dream scenario” during the flight livestream.
The landing was soft enough that, unlike earlier prototypes, Ship 40 remained largely intact and afloat rather than sinking or breaking apart. In fact, the post-flight review conducted by SpaceX apparently indicated the landing position and control were precise enough that the tower arms could have theoretically caught it.
New satellite images of Ship 40 just dropped
Story with w/ @ThomasBordeaux7 https://t.co/XvVZz85NLp pic.twitter.com/lcXdgxRJms
— Jackie Wattles (@jackiewattles) August 3, 2026
Initially, a SpaceX recovery ship, named Go Australis, was stationed near the vehicle. However, the effort was joined by two Norwegian tugboats, Normand Ranger and Skimmer Tide, after Musk announced that the company would attempt recovery.
The recovery effort was seen in satellite images from the Colorado-based geospatial intelligence firm Vantor, which showed a small boat positioned near the Starship with a line fastened to its nose, as reported by CNN. MarineTraffic data on August 3 indicated Skimmer Tide and Normand Ranger moving at roughly one knot while broadcasting restricted maneuverability, while Go Australis was en route to Australia on its own.
More recent AIS data as of August 4 confirm that Normand Ranger has Ship 40 under tow (stern-to-aft) with flotation aids fitted near the base to keep the engines clearer of the water, at the time of writing this report.
SpaceX Wants Reusable Upper Spacecraft
SpaceX’s primary ambition for a reusable upper stage is embodied in Starship, the second stage of the Starship/Super Heavy system.
Unlike Falcon 9, where only the first-stage booster is routinely reused and the second stage is expendable, Starship is designed from the outset as a fully reusable orbital vehicle that can serve as a spacecraft for crew, cargo, tanker, and planetary landing roles.
The company’s declared objective is airline-like operations, which should ideally be measured in hours rather than days or weeks. These operations include launch, land, or catch, minimal inspection, refuel, and refly. In fact, Musk has described a long-term vision of flights more than once per hour, with costs potentially falling to a few million dollars, or lower, per flight once rapid full reusability and local propellant production are achieved.
Some of the challenges in achieving this center around a fully reusable orbital heat shield that survives multiple flights with little or no tile replacement, high-cycle engine reliability without significant refurbishment, and precise, reliable Ship catches after orbital reentry.
The company has indicated that solving these problems would enable massive Starlink deployments, large space telescopes, a lunar base, and Mars cargo or crew missions via orbital refueling with tanker Ships. A full reusability of the upper stage or spacecraft is presented as the critical breakthrough for making life multiplanetary.
It is pertinent to note that SpaceX has deliberately flown largely the same suborbital trajectory on successive tests that essentially includes launch from Starbase, hot-stage separation, booster return (initially soft splashdown, later tower-catch attempts), Ship continuing on a high-energy arc, payload or deployment tests, in-space engine relight(s), controlled reentry over the Indian Ocean, and targeted soft splashdown.
This consistent profile allows rapid iteration on the same failure modes and performance envelopes while collecting comparable data.
An important milestone in SpaceX’s efforts to recover and refly every component of the rocket was reached in 2024 when the company successfully guided the Super Heavy rocket booster to a safe landing in the enormous metal arms of its launch tower. However, two Starship spacecraft exploded near islands off the coast of Florida in 2025.
The campaign’s deliberate repetition of the same suborbital path has allowed SpaceX to treat each flight as a focused engineering experiment rather than a one-off demonstration.
In line with the comprehensive effort, SpaceX has worked hard to examine Ship 40 at every stage of its journey to and from space.
In fact, it went so far as to postpone liftoff to ensure the weather was clear enough to capture high-resolution images of the spacecraft during launch.
SpaceX has been focusing on the vehicle’s heat shield, a layer of hexagon-shaped ceramic tiles intended to protect Starship from the intense heat spacecraft encounter as they reenter Earth’s atmosphere after reaching orbital velocities exceeding 17,500 miles per hour. For now, while Musk has acknowledged that the heat shield’s performance has improved, SpaceX still faces significant engineering challenges in determining how to preserve the vehicle undamaged and ready for launch quickly.
No rocket currently in service has an upper stage that can be quickly reused. Following Flight 13’s success, Musk indicated that SpaceX may attempt to return a Starship to dry land or catch it with the tower on a future flight, contingent on data review. The date of the next flight has not been announced.
Even after SpaceX masters the recovery of the upper ship, additional challenges lie ahead, including figuring out how to refuel the vehicle while it sits in orbit. But, for now, things seem to be working out for Elon Musk and his reusable launch system program.
- Contact the author at sakshi.tiwari13 (at) outlook.com
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