Starship Flight 13 Deploys 20 Starlink V3 Satellites, Nails In-Space Engine Relight

For the space industry, Starship Flight 13 represents a critical convergence of operational revenue generation and deep-space capability testing. The deployment of 20 advanced Starlink V3 satellites—each significantly more capable than previous generations—demonstrates Starship’s unmatched payload capacity, while the successful in-space engine relight is a direct enabler for future lunar lander missions and in-orbit propellant transfer. This flight moves SpaceX beyond experimental hops and toward a cadence that will reshape launch economics.

SpaceX’s Starship system completed its 13th integrated flight test on July 24, 2026, marking the second mission of the upgraded Version 3 vehicles and the first to carry an operational payload—20 next-generation Starlink V3 satellites. The launch from Starbase, Texas at 5:52 p.m. Central Time demonstrated several critical capabilities that bring the massive rocket closer to its intended role as a fully reusable, high-cadence transporter for the Starlink mega-constellation and deep-space missions.

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SpaceX’s Starship system completed its 13th integrated flight test on July 24, 2026, marking the second mission of the upgraded Version 3 vehicles and the first to carry an operational payload—20 next-generation Starlink V3 satellites.

The Super Heavy booster performed nominally, separating from the Starship upper stage and executing a controlled descent to a splashdown in the Gulf of Mexico. While SpaceX’s ultimate goal is to catch both the booster and the upper stage with the launch tower’s mechanical arms, the ocean landing provided recovery data for Version 3 hardware. The Starship itself continued through an ascent burn, then entered a coast phase during which it deployed the 20 Starlink V3 satellites—the first time the world’s largest rocket has delivered operational spacecraft to orbit. This payload deployment validates Starship’s fairing-less ‘pez dispenser’ mechanism and its ability to release multiple large satellites in a single launch, a game-changer for the economics of the Starlink constellation, which already numbers over 5,000 satellites but has been limited to 22–23 V2 Minis per Falcon 9 launch. The V3 satellites are heavier and more capable, and a full Starship payload could eventually deliver dozens per mission, dramatically accelerating network expansion.

Perhaps the most technically significant milestone came later in the flight when Starship successfully reignited one of its Raptor engines while in space. Relighting in microgravity is notoriously difficult and is a prerequisite for any orbital maneuvering, station-keeping, or deorbit burn. More importantly, it is a fundamental requirement for future orbital refueling operations—where a tanker Starship must rendezvous with a crew or cargo Starship, transfer propellant, and then relight for return—and for insertion into lunar or Martian trajectories. This test moves SpaceX closer to achieving the cadence needed for NASA’s Artemis program, which relies on Starship’s lunar lander variant, and for Elon Musk’s vision of Mars colonization.

As part of the return sequence, Starship executed a banking maneuver to simulate the final approach geometry for a future catch attempt at Starbase. This test evaluated aerodynamic control surfaces and guidance during a high-angle-of-attack descent, generating data that will inform the design of catch hardware and flight procedures. The vehicle then splashed down in the Indian Ocean about one hour and five minutes after liftoff, completing the full mission profile.