· x report · 7 min read
Starship V3 Reaches Space on Flight 12 Despite Engine-Out | KeepTrack X Report
SpaceX's Starship V3 completed its first test flight May 22, reaching space despite one Raptor vacuum engine shutting down early on Flight 12.

Latest Developments
SpaceX’s newly redesigned Starship V3 made its debut on May 22 during Flight 12, reaching space and surviving reentry in what Elon Musk called an “epic” milestone — despite one of three vacuum-optimized Raptor engines shutting down early during ascent. The flight computer compensated by burning the remaining five upper-stage engines longer than planned, placing the vehicle on an acceptable suborbital trajectory and demonstrating robust fault tolerance in the next-generation design. While SpaceX still has key objectives to achieve before Starship reaches full orbital velocity, the flight validated core V3 architecture changes and proved the vehicle can handle engine-out scenarios. Meanwhile, on the program management front, NASA is moving to expand SpaceX’s Commercial Crew contract to cover additional ISS missions — a direct hedge against continued uncertainty surrounding Boeing’s Starliner certification, with Starlink’s operational constellation now standing at 10,354 working satellites across 10,370 in orbit out of 11,979 launched.
Space Safety
Current Starlink conjunction and reentry monitoring indicates a moderate threat environment with no HIGH-risk events in the immediate forecast window. The April 2026 conjunction analysis reveals four MODERATE-risk events dominated by debris encounters, particularly STARLINK-33563 with COSMOS 2251 debris (39.7% collision probability) and STARLINK-5601 with DELTA 1 debris (34.8% probability), though both retain manageable miss distances above 12 km. Reentry predictions show 11 Starlink satellites with predicted decay events clustered in late May 2026, with the earliest occurring May 24–26, distributed across operational and non-operational inclination families.
| Risk | Starlink Sat | Other Object | Status | Min Range (km) | Rel Speed (km/s) | Max Prob | Time of Closest Approach |
|---|---|---|---|---|---|---|---|
| MODERATE | STARLINK-33563 | COSMOS 2251 DEB | Non-operational | 0.012 | 11.318 | 0.3973 | Apr 13, 21:44 UTC |
| MODERATE | STARLINK-5601 | DELTA 1 DEB | Non-operational | 0.014 | 8.499 | 0.3479 | Apr 11, 06:26 UTC |
| MODERATE | STARLINK-33680 | FLOCK 4G-17 | Operational | 0.024 | 12.627 | 0.1287 | Apr 9, 13:55 UTC |
| MODERATE | STARLINK-35339 | THEA | Operational | 0.022 | 14.110 | 0.1272 | Apr 11, 01:33 UTC |
| LOW | STARLINK-32841 | YAOGAN-43 01D | Operational | 0.038 | 9.497 | 0.0672 | Apr 11, 14:30 UTC |
| LOW | STARLINK-36431 | WT 1B | Unknown | 0.052 | 1.153 | 0.0450 | Apr 14, 13:45 UTC |
| LOW | STARLINK-32376 | OBJECT AD | Operational | 0.046 | 11.243 | 0.0441 | Apr 12, 08:38 UTC |
| LOW | STARLINK-30245 | SL-19 R/B | Non-operational | 0.037 | 14.371 | 0.0441 | Apr 7, 16:55 UTC |
| LOW | STARLINK-35657 | ION SCV-008 | Operational | 0.041 | 13.969 | 0.0390 | Apr 12, 19:09 UTC |
| LOW | STARLINK-31383 | TEVEL2-7 | Operational | 0.038 | 14.746 | 0.0384 | Apr 8, 19:55 UTC |
| Satellite | NORAD ID | Predicted Decay | Window (min) | Inclination | Lat | Lon |
|---|---|---|---|---|---|---|
| STARLINK-2249 | 48592 | May 24, 06:14 UTC | 1440 | 53° | 21.1° | 326.6° |
| STARLINK-1627 | 46168 | May 24, 20:34 UTC | 1020 | 53° | −18.2° | 353.2° |
| STARLINK-11664 | 63666 | May 24, 22:51 UTC | 1440 | 43° | 29.1° | 343.2° |
| STARLINK-31725 | 59538 | May 25, 00:00 UTC | 1440 | 43° | 9.7° | 146.8° |
| STARLINK-1911 | 46749 | May 25, 02:34 UTC | 1440 | 53° | −43.5° | 195.2° |
| STARLINK-3325 | 50843 | May 25, 02:48 UTC | 1440 | 53.2° | 1° | 225.4° |
| STARLINK-5369 | 54837 | May 25, 20:22 UTC | 1440 | 43° | 5.8° | 214.8° |
| STARLINK-1624 | 46130 | May 26, 10:25 UTC | 1440 | 53° | −24.5° | 0.2° |
| STARLINK-3870 | 52451 | May 26, 11:45 UTC | 1440 | 53.2° | −18.7° | 184.8° |
| STARLINK-6063 | 56811 | May 26, 11:58 UTC | 1440 | 70° | −34.6° | 206.1° |
| STARLINK-11462 [DTC] | 62412 | May 26, 13:00 UTC | 2880 | 43° | 20.9° | 128° |
Detailed Coverage
One Raptor Vacuum Engine Cuts Out Early — Flight Computer Saves Starship V3’s First Mission
The headline anomaly of Starship Flight 12 was a premature shutdown of one of three vacuum-optimized Raptor engines on the upper stage during the climb to space. Rather than triggering a mission abort, Starship’s flight computer autonomously extended the burn duration of the five remaining engines to compensate for the lost thrust, successfully delivering the vehicle to a planned suborbital trajectory. The engine-out survival is a significant engineering validation: SpaceX designed redundancy into Starship V3 specifically for scenarios like this, and Flight 12 proved the system works under real flight conditions. Engineers will now scrutinize telemetry to determine whether the shutdown stemmed from a hardware fault in the new third-generation Raptor vacuum variant or a software-commanded protective action.
Read the full story: Spaceflightnow
Starship V3’s First Flight: “Mostly Successful” but More to Prove Before Orbital Flight
Ars Technica’s detailed post-flight analysis characterizes Starship V3’s debut as “mostly successful” while cautioning that SpaceX still has a meaningful technical gap to close before the vehicle can achieve full low-Earth orbit insertion. The new V3 configuration represents a thorough redesign from previous iterations, incorporating updated Raptor 3 engines, structural mass reductions, and revised propellant systems — all of which performed largely as intended on Flight 12. However, the suborbital trajectory flown on this mission means key orbital-insertion and reentry-at-orbital-velocity milestones remain undemonstrated. SpaceX is expected to press toward a full orbital attempt in a subsequent flight, with the pace of hardware production at Starbase making another launch attempt possible within weeks.
Read the full story: Ars Technica
Musk Calls It “Epic”: The Full Flight 12 Story From Liftoff to Splashdown
Teslarati’s comprehensive Flight 12 recap details how Starship V3 not only reached space but successfully endured atmospheric reentry — a combination that Elon Musk publicly praised as “epic” and characterized as scoring “a goal for humanity.” The upper stage demonstrated controlled descent behavior through peak heating, validating the updated thermal protection system on the V3 airframe. Super Heavy booster performance during the boost-back and landing sequences also contributed to what SpaceX considered a strong overall result for a first-flight test article. The mission’s success builds direct momentum toward Starship’s role in NASA’s Artemis lunar lander program, where the vehicle must reliably perform far more demanding mission profiles.
Read the full story: Teslarati
SpaceX Completes Most Flight 12 Test Objectives in Starship V3 Debut
SpaceNews reports that SpaceX formally declared most of the pre-planned test objectives for Flight 12 as completed, marking a clean programmatic win even accounting for the engine anomaly. The launch lifted off from Starbase, Texas, on May 22 and executed the full planned flight profile short of full orbital insertion, which was never a stated objective for this particular test. SpaceX’s iterative test philosophy — fly, gather data, fix, fly again — means even partial successes are treated as productive data points rather than failures. With 11,979 Starlink satellites launched to date and pressure mounting from commercial and government customers to expand Starship’s payload capacity, the cadence of V3 test flights is expected to accelerate through the second half of 2026.
Read the full story: SpaceNews
NASA Moves to Expand SpaceX Commercial Crew Contract Amid Ongoing Boeing Starliner Uncertainty
NASA is taking concrete steps to add additional crewed missions to SpaceX’s existing Commercial Crew Transportation Capability contract, a move driven by sustained uncertainty over whether Boeing’s Starliner spacecraft will ever achieve full certification for ISS crew rotation flights. The contract expansion would provide NASA with a guaranteed manifest of Dragon crew missions independent of Starliner’s fate, ensuring uninterrupted U.S. access to the International Space Station. This decision cements SpaceX’s position as the sole operationally certified American crew vehicle for the foreseeable future, a status the company has held since Boeing’s technical difficulties began compounding in 2024. From a tracking perspective, each additional Dragon mission adds another spacecraft to the catalog of active crewed vehicles in low-Earth orbit — objects that operators of the 10,354-satellite Starlink working constellation must account for in conjunction screening.
Read the full story: SpaceNews
Flight 12 in Photos: Starship V3 Produces Most Dramatic Launch Imagery Yet
Space.com’s photography coverage of Starship Flight 12 captures the sheer visual scale of the V3 configuration, described as the most powerful rocket ever built, lifting off from Starbase in a display that drew widespread attention beyond the spaceflight community. The imagery documents the full Super Heavy booster ignition sequence, liftoff, and early ascent phase, showcasing the increased thrust output of the updated Raptor engine suite compared to earlier Starship variants. Launch photography from the South Texas site has become a reliable barometer of SpaceX’s operational tempo, and the Flight 12 images reflect a vehicle that has matured significantly from the early test articles that exploded on the pad or shortly after liftoff. The visual record also serves a practical purpose: independent analysts and satellite trackers use publicly available launch footage to cross-reference debris dispersion patterns and initial trajectory data for objects that may eventually populate the orbital environment.
Read the full story: Space.com
Cosmic Log: V3 “Passes” Its First Test — What the Snags Actually Mean for the Program
Alan Boyle’s Cosmic Log analysis frames Flight 12 as a genuine programmatic pass while drilling into what the acknowledged snags mean for SpaceX’s near-term Starship roadmap. The piece notes that Musk’s framing of the mission as scoring “a goal for humanity” is consistent with SpaceX’s long-standing communication approach of celebrating incremental progress publicly while quietly working technical problems internally. The engine shutdown and the sub-orbital rather than orbital profile are the two data points competitors and NASA program managers will watch most closely as they assess Starship’s readiness timeline. For KeepTrack analysts monitoring the broader orbital environment, the pace at which Starship achieves full orbital capability directly determines when SpaceX can begin launching next-generation Starlink V3 satellites in the large batch sizes the megarocket is designed to enable, potentially accelerating growth beyond the current 10,370 satellites in orbit figure.
Read the full story: Cosmic Log
Constellation Status
No changes have occurred in the Starlink constellation since the last check. The constellation remains stable with 11,979 total satellites launched, 10,370 currently in orbit, 10,354 operational, and 1,609 decayed satellites.
- Total Launched: 11979
- Total On Orbit: 10370
- Total Working: 10354
Track Starlink satellites in real-time: Track Starlink
B1049