BOCA CHICA, Texas — In a major milestone clearing the final critical ground gate for its next mega-lift mission, SpaceX successfully conducted a full-duration static fire of its massive Super Heavy booster on Friday.
The test, which occurred at approximately 11:00 AM EDT, saw Super Heavy Booster 20—the massive, 233-foot-tall (71 meters) first stage—undergo a roughly 25-second hold-down firing on the orbital launch mount.
Clearing the Path for Flight 13
Static fires are standard pre-flight operations designed to test the rocket’s internal plumbing, pressure systems, and engine turbopumps under flight-like conditions without letting the vehicle leave the ground.
With both halves of the rocket now having cleared their independent hot-fire checks—following the upper-stage Starship (Ship 40) completing its own multi-engine static fire on July 2—SpaceX is moving swiftly toward full integration.
Introducing the "Version 3" Architecture
Flight 13 will mark only the second launch of SpaceX's heavily upgraded "Version 3" (V3) Starship hardware.
Compared to its predecessors, the Raptor 3 boasts:
Higher Thrust: Delivers optimized power settings designed to maximize payload margins.
Simplified Design: Eliminates external plumbing to reduce risk profiles and build weight.
Improved Thermal Shielding: Better mitigates the extreme engine-to-engine environment experienced during liftoff and stage separation.
The debut of the V3 architecture during Flight 12 in May yielded mixed results.
Flight 13 Objectives: Satellites, Camera Arrays, and Heat Shield Stress
According to SpaceX's published mission profile, Flight 13 will feature several ambitious targets aimed at moving the program from an experimental test phase into active commercial operations.
Key Mission Milestone: For the first time, Starship will carry a functional payload to space, intending to deploy 20 next-generation Starlink V3 satellites into low Earth orbit.
To expand on this mission's engineering goals, the flight will test critical adjustments across both stages:
Booster Upgrades: Booster 20 features modified startup sequences to handle timing variability and hardware adjustments aimed at preventing the relight issues that plagued Flight 12.
In-Space Engine Relight: Once in orbit, Ship 40 will attempt to relight a single vacuum-optimized Raptor engine—a crucial capability required for future de-orbit burns and payload deliveries.
Thermal Protection Experiments: The upper stage will face intense reentry forces with deliberately modified heat-shield configurations.
Several tiles have been painted white to act as visual markers, while six of the onboard Starlink satellites are equipped with specialized camera suites to scan the ship's underbelly during flight. High Dynamic Pressure Testing: Load-sensing tiles have been installed to measure structural stress during ascent, as SpaceX pushes the vehicle's aerodynamic boundaries to maximize future payload limits.
If all goes according to plan, the Super Heavy booster will attempt an offshore landing burn in the Gulf of Mexico, while Ship 40 will head toward a controlled reentry and atmospheric descent, culminating in a soft splashdown in the Indian Ocean.
With Booster 20 now rolling back briefly to the production hangar for final hardware checks and Flight Termination System (FTS) installation, the space community turns its attention to Boca Chica for what promises to be Starship's most operationally complex flight to date.