For a few minutes on Friday evening, the largest flying machine ever built did the most ordinary-sounding thing imaginable - it dropped off some satellites - and in doing so crossed a line SpaceX had been reaching for since Starship first flew. On July 24, 2026, Starship Flight 13 lifted off from Starbase in South Texas, deployed 20 real next-generation Starlink satellites, restarted an engine in space, and came home to what the company called the softest splashdown it has ever managed. Analysts and reporters quickly labeled it the most successful Starship test flight to date.
Here is exactly what happened, what was genuinely new, and why a routine-looking satellite release is actually the whole point of this enormous rocket.
- When & where: Friday, July 24, 2026, from SpaceX Starbase, Boca Chica, Texas
- Vehicle: Starship V3 (third generation) - the biggest and most powerful rocket ever flown, ~122 m (400 ft) tall, with 33 Raptor engines on the Super Heavy booster
- The first: deployed 20 next-generation Starlink V3 satellites - the first time Starship has released real, operational-class satellites (earlier flights carried dummy mass simulators)
- In space: successfully relit a Raptor engine on orbit
- Coming home: the ship made the softest splashdown in the program’s history, in the Indian Ocean, ~1 h 5 min after liftoff - intact and floating
- The rough edge: the Super Heavy booster splashed down in the Gulf harder than planned after several landing-burn engines failed to relight
1. A clean climb and a first-of-its-kind deployment
Flight 13 began the way SpaceX wants every Starship flight to begin: undramatically. All 33 Raptor engines on the Super Heavy booster ignited, and the fully stacked vehicle - taller than a 36-story building - thundered off the pad and arced downrange under a mostly clear Texas sky. The six Raptors on the upper stage carried it the rest of the way to its planned coast.
Then came the moment that made this flight different. A hatch on the ship’s nose opened, and one by one, 20 next-generation Starlink V3 satellites slid out into space. It sounds mundane. It was not. Every previous Starship test that got this far had carried only mass simulators - inert dummy payloads shaped like satellites, used to rehearse the motions. Flight 13 was the first time Starship deployed genuine, operational-class satellites, validating the entire release mechanism with real hardware. Several of the satellites even carried cameras to photograph the ship’s heat-shield tiles.
2. Why 20 satellites is the whole point
It is easy to fixate on the spectacle of a giant rocket. But Starship exists to do a job, and that job starts with deploying satellites cheaply and often. The V3 Starlinks it carried are not incremental upgrades - they are a generational leap, and they are far too large for SpaceX’s current Falcon 9 rockets to launch efficiently. Starship is the vehicle built to loft them.
| Capability | Starlink V3 (per satellite) | vs current V2 |
|---|---|---|
| Downlink | up to ~1 terabit per second | ~10x |
| Uplink | ~160 gigabits per second | ~22x |
| Design | large flat satellites with laser inter-satellite links and expansive solar arrays | far larger & higher-capacity |
Multiply that per-satellite jump across a fleet of thousands, and you begin to see why SpaceX treats Starship and Starlink as two halves of one machine: the rocket lowers the cost of getting capacity to orbit, and that capacity pays for the rocket.
3. The softest splashdown yet
Getting to space is only half of Starship’s promise; the other half is coming back in one piece, so the vehicle can be reused. After deployment, the ship began its descent, plunging into the atmosphere belly-first so its heat shield could take the brunt of the searing reentry. It then executed the maneuver that still looks like science fiction: a flip to vertical, a relight of its engines, and a controlled, gentle descent to the sea.
“That is the softest splashdown we have ever had with Starship in the Indian Ocean.”
— Dan Huot, SpaceX communications manager, on the live broadcast
Roughly 1 hour and 5 minutes after leaving Texas, the ship settled into the Indian Ocean off the coast of Australia - and, remarkably, stayed intact and floating, with its onboard cameras still rolling. One SpaceX engineer on the stream described the team as being “over the moon.” For a program whose earlier ships have broken apart on the way down, a whole, buoyant vehicle bobbing in the water was a milestone all its own.
4. The booster: a flawless ascent, a hard landing
Good news is only worth telling if it is honest, so here is the part that did not go to plan. The Super Heavy booster - the largest, most powerful rocket stage ever built - performed beautifully on the way up, then peeled away to attempt its own return over the Gulf of Mexico. During the landing burn, several of its planned engines failed to relight, so the booster descended faster than intended and hit the water harder than SpaceX wanted, rather than slowing for the delicate, tower-catch-style approach the company is perfecting.
It is a real limitation, and SpaceX will chase down the cause. But it is worth keeping in perspective: the booster still made a controlled splashdown, this flight was not attempting a tower catch, and the mission’s headline objectives - a clean ascent, the first real satellite deployment, an in-space engine relight, and a soft ship recovery - were all met. SpaceX’s whole philosophy is to fly, learn, and iterate quickly; by that measure Flight 13 delivered an unusually rich haul.
5. Why this flight matters
Every so often a test flight stops being a demonstration and starts looking like a service. Flight 13 was that kind of turn. Deploying real satellites, relighting an engine in space, and recovering the ship softly are exactly the capabilities that separate an experimental rocket from an operational one. Starship is inching from spectacle toward workhorse - the fully reusable, heavy-lift vehicle meant to slash the cost of reaching orbit for satellites, science missions, and eventually crews.
Lower launch costs ripple outward into everything humanity does in space: bigger and cheaper communications constellations, more ambitious telescopes and probes, and a more accessible orbit for universities, startups and national space agencies alike. A rocket that flies, drops off its cargo, and comes home to be flown again is the quiet engine under all of it.
What to watch next
- The booster fix. Whether SpaceX can pinpoint why several landing-burn engines did not relight, and return to attempting tower catches of the Super Heavy.
- An orbital deployment. Flight 13 released its satellites on a suborbital test path, so those 20 were expected to reenter; the next step is deploying V3 Starlinks into working orbits.
- Reuse for real. Recovering a ship intact is the precondition for flying the same one again - the true test of Starship’s reusability promise.
- Cadence. How quickly SpaceX can turn these milestones into a routine, high-frequency launch rhythm.
Sources
- Space.com: Starship makes the ‘softest splashdown ever’ after launching next-gen Starlink satellites in Flight 13
- Spaceflight Now: Super Heavy-Starship rocket chalks up mostly successful test flight
- CNN: SpaceX Starship hits key milestones in Flight 13 · Interesting Engineering: Starship launches next-gen Starlink and improves re-entry
Curated by Jerry Cards - jerrycards.com. We research the week’s most consequential tech, science and space news so you do not have to. More at jerrycards.com/news.