Where the Starship program stands now
SpaceX’s Starship-Super Heavy vehicle has flown 13 integrated test missions from Starbase, Texas, and the next step is no longer just another suborbital data-gathering run. The current Flight 14 campaign is being prepared at Pad 2 in Starbase, with Booster 21 rolled to the pad and a target date no earlier than September 28, 2026, pending Federal Aviation Administration approval . The FAA’s air-traffic planning advisory also lists SpaceX Starship Flight 14 from Starbase, Texas, for September 28, 2026, with a backup opportunity on September 29 .
That timing matters because the first 13 flights were deliberately developmental. SpaceX has said the earlier tests used passively safe suborbital trajectories to maximize public safety while allowing the company to learn from full-scale flight . Flight 14 is planned as the program’s first orbital attempt: roughly six orbits, a nearly 10-hour flight, deployment of 26 Starlink V3 satellites, a deorbit burn, and splashdown in the Pacific west of Chile .
Why the first 13 flights matter
The 13 Texas launches were not repetitions of the same test. They were a ladder. SpaceX first needed to prove that the full stack could clear the pad. Then it had to master stage separation, hot-staging, booster return, ship reentry, Raptor relight, heat-shield endurance, satellite deployment and eventually recovery-quality data from hardware that had actually flown through reentry.
The latest pre-Flight 14 reporting shows how directly the earlier tests feed the next one. SpaceX is applying modifications to Super Heavy hardware and software after Flight 13’s landing-burn issues, while heat-shield changes for Ship 41 draw on data from Flight 13’s Ship 40 after it survived in the Indian Ocean . In other words, Starship’s first 13 Texas flights are best understood as a single rolling engineering review.
Flight 1: April 20, 2023 — clearing the tower
The first integrated Starship flight was a dramatic proof that the full vehicle could lift off, but not yet a controlled mission. Super Heavy and Ship cleared the Boca Chica launch site, but engine failures and control problems prevented a clean ascent. The stack tumbled before stage separation and was destroyed by its flight termination system.
Its importance was still enormous. Flight 1 exposed pad, engine-start, debris and vehicle-control issues at full scale. The test forced major changes to the launch mount, including better water-deluge and flame-management systems, and set the tone for the program: fly, fail visibly, rebuild quickly.
Flight 2: November 18, 2023 — hot-staging arrives
Flight 2 was the first Starship mission to demonstrate hot-staging, the maneuver in which the upper stage ignites while still close to the booster. The vehicle again failed to complete the full plan, but it passed a critical milestone: the ship separated and continued climbing after booster separation.
The booster was lost after separation, and the ship later failed before completing its intended coast. Still, Flight 2 showed that the architecture could work. The program moved from “can the stack launch?” to “can the stages separate and fly distinct profiles?”
Flight 3: March 14, 2024 — space, payload-door tests and reentry lessons
Flight 3 carried Starship into space and expanded the test menu. SpaceX evaluated upper-stage behavior in coast, attempted payload-door operations and gathered reentry data. The ship did not survive reentry, and the booster also failed to complete a controlled landing.
The point was not simply endurance. Flight 3 helped SpaceX learn how the vehicle behaved as a spacecraft rather than only as a launch vehicle. That distinction remains central to Flight 14, whose ship must not merely reach space but enter orbit, deploy satellites, perform a deorbit burn and reenter under control .
Flight 4: June 6, 2024 — controlled splashdowns
Flight 4 was the first Starship test that looked like a complete end-to-end mission. Super Heavy achieved a controlled splashdown in the Gulf, and the upper stage survived reentry well enough to perform its own landing burn and splash down in the Indian Ocean.
A damaged flap became one of the defining images of the flight, but the damaged ship kept flying. That made Flight 4 a major validation of Starship’s basic aerodynamic control and thermal-protection approach.
Flight 5: October 13, 2024 — the first booster catch
Flight 5 delivered the program’s most theatrical breakthrough: the Super Heavy booster returned to the launch site and was caught by the tower arms. That transformed Starship reusability from a concept into a demonstrated booster-side maneuver.
The ship continued to the Indian Ocean for a controlled splashdown. The dual result mattered: the booster showed tower-catch feasibility, while the upper stage confirmed that controlled long-range flight and reentry were becoming repeatable.
Flight 6: November 19, 2024 — refining the profile
Flight 6 continued the push from spectacular firsts toward repeatable procedures. SpaceX did not catch the booster, instead sending it to an offshore splashdown, but the mission tested operational decision-making and upper-stage performance. The ship completed another long coast and controlled descent.
This flight reinforced a key Starship lesson: not every mission needed a catch to be useful. SpaceX was learning when to preserve hardware, when to divert, and how to keep adding data without forcing every objective at once.
Flight 7: January 16, 2025 — new generation, new problems
Flight 7 introduced upgraded Starship hardware and showed the risk of iteration. The booster side performed strongly, including a return profile that demonstrated continued progress, but the upper stage was lost after ascent problems.
The failure was a reminder that new vehicle blocks can reset parts of the learning curve. Hardware upgrades are not linear improvements unless plumbing, thermal loads, propellant management and software all mature together.
Flight 8: March 6, 2025 — another ship loss
Flight 8 again showed how hard upper-stage reliability would be. The booster performed well enough to support the early mission, but the ship was lost before completing its full test profile.
Together, Flights 7 and 8 made clear that the booster was advancing faster than the ship. That imbalance shaped later tests: SpaceX needed more focus on upper-stage propulsion, thermal protection and attitude control before orbital operations could be attempted responsibly.
Flight 9: May 27, 2025 — reuse enters the campaign
Flight 9 was significant because SpaceX began folding reuse into integrated Starship testing. Flying previously used booster hardware moved the program closer to its central promise: a fully reusable heavy-lift system.
The mission did not complete every objective, but its value was in testing refurbished hardware under flight conditions. Reusability cannot be proven by landing once; it must be proven by turning hardware around and flying it again.
Flight 10: August 26, 2025 — recovery after setbacks
Flight 10 marked a return to cleaner execution after the difficult early-2025 campaign. The mission tested payload deployment procedures, in-space engine work and controlled descents. It helped restore confidence that the upper stage could again complete a full flight profile.
The program’s cadence also mattered. Starship was no longer a once-a-year experiment. SpaceX was learning how to absorb failures, modify vehicles and return to flight while keeping the long-term roadmap intact.
Flight 11: October 13, 2025 — the final Block 2 success
Flight 11 served as a capstone for the Block 2 era. It demonstrated a mature suborbital test profile, with controlled stage behavior and a ship that could execute the sequence SpaceX needed before moving to the next architecture.
Its role was transitional. By proving the old block had largely delivered its lessons, SpaceX could justify moving to the V3/Block 3 generation, where Starlink V3 deployment and orbital operations became central goals.
Flight 12: May 22, 2026 — V3 begins
Flight 12 debuted the next-generation Starship V3 configuration and the newer Pad 2 campaign. It was a step change in vehicle design and mission ambition. The ship completed a suborbital flight and payload-related testing, while the booster was lost during its return sequence.
That outcome fits Starship’s pattern: a new block often brings both progress and fresh failure modes. Flight 12 gave SpaceX the first full-scale data from V3, which was essential before attempting more operational payload work.
Flight 13: July 24, 2026 — Starlink V3 and Ship 40’s surprise
Flight 13 was the most important bridge between testing and operations. The mission deployed Starlink V3 satellites on a suborbital path, and those satellites deployed solar arrays, imaged Starship’s heat shield and briefly connected with the broader constellation before their planned reentry . SpaceX reported that after stage separation and flip, Super Heavy used all 33 engines on its boostback burn for the first time, but ice-clogging signs affected the terminal phase; only 8 of 13 planned landing-burn engines reignited before a hard Gulf splashdown .
The ship side produced an unexpected bonus. Ship 40 survived splashdown and floated, giving SpaceX unusually valuable post-flight heat-shield data. SpaceX says Flight 14 will reuse lessons from that inspection, including tile-retention changes, plasma-flow-path fixes, curved tile tests and even the planned reflighting of two tiles recovered from Ship 40 .
The pattern after 13 flights
Across 13 Texas launches, Starship has moved from pad-clearing survival to a vehicle capable of booster catches, controlled splashdowns, upper-stage reentry data and Starlink V3 pathfinder work. The remaining gap is orbit. Flight 14 is designed to close that gap with orbital insertion, operational satellite deployment and a planned deorbit sequence .
That is why the first 13 flights should not be judged only as wins and losses. Each one narrowed the unknowns. If Flight 14 succeeds, it will stand on the full stack of lessons from Texas: the explosions, the catches, the hard splashdowns, the intact floating ship and the gradual conversion of Starship from test article into transportation system.