SpaceX Targets Sept. 28 for Starship's First Orbital Flight

SpaceX has set Sept. 28, 2026, as the target date for its next Starship launch. It will be the company’s first orbital flight and the first mission to operationally deploy next-generation Starlink V3 satellites. According to reporting by Engadget’s staff@engadget.com (Mariella Moon), the launch window runs for 75 minutes starting at 8:15 a.m. Eastern Time.

This flight will be the 14th test flight for Starship. The previous 13 flights were all limited to suborbital trajectories. It marks a shift from a phase focused on maximizing learning while ensuring safety to a phase oriented toward operational use.

SpaceX announced the new target date on X on Sept. 17. It had initially planned Sept. 22, but the launch was delayed without an explanation. The launch is conditional on regulatory approval, which is still pending.

Now targeting to launch Starship Flight 14 as early as Monday, September 28, pending regulatory approval

The company’s announcement was limited to the above statement and the release of related materials. The launch is scheduled to be streamed on SpaceX’s X account.

Sept. 28 Launch Target and Background of

the Change

The launch target is a 75-minute window starting at 8:15 a.m. on Sept. 28. It is set in Eastern Time, which corresponds to the evening of the same day in Japan time. Final judgment will depend on the readiness of the test vehicle, weather, and airspace and maritime coordination.

No technical details have been disclosed about the six-day delay from the original Sept. 22 date. Only that regulatory approval remains pending was made explicit. Flight licensing and safety reviews by the Federal Aviation Administration are a constant constraint for heavy-lift rocket tests.

Starship exceeds existing launch vehicles in overall length and thrust. Environmental assessments, debris management, and impacts on air routes are therefore subject to review. The delay itself is within the scope of the development plan and does not indicate an anomaly.

Last-minute schedule changes have been repeated in past tests. The approach of pursuing permits and approvals in parallel with vehicle preparations is well established. It is reasonable to view this case as part of the same process.

Flight Plan: Six Orbits of Earth in 10 Hours

The flight plan calls for orbital flight at an altitude of about 274 kilometers. Starship’s upper stage will orbit Earth six times, remaining in space for about 10 hours. That duration is an order of magnitude longer than previous suborbital flights lasting tens of minutes to about an hour.

The long orbital stay will directly test thermal control, power management, and attitude control. Maintaining communications and deorbit procedures will also be tested under near-operational conditions. The data will help determine its viability as a reusable spacecraft.

After the flight, the upper stage is planned to splash down in the Pacific Ocean off the coast of Chile. A controlled atmospheric reentry will avoid risks to densely populated areas. It will be disposed of in the ocean rather than recovered, and reuse of the vehicle is not included in this mission’s objectives.

Meanwhile, the Super Heavy booster will splash down in the Gulf of Mexico minutes after liftoff. There will be no mid-air catch by the launch tower’s arms. After confirming propellant consumption and post-separation behavior, it will attempt a soft splashdown at sea.

The Gulf of Mexico is the body of water renamed Gulf of America by a U.S. presidential executive order in 2025. The source material notes that history while designating the area as the splashdown zone. Splashdown zones are set in coordination with notices to ships and aircraft.

Performance of the 26 V3 Satellites for

Operational Deployment

This mission will deploy 26 Starlink V3 satellites into orbit. They will be released from the upper stage’s payload bay to join SpaceX’s communications constellation. It will be the first operational deployment of V3 satellites by Starship, demonstrating its transport capability.

V3 satellites were also carried on the previous test flight. However, the objective was limited to verifying loading and deployment procedures. After deploying solar arrays and antennas and communicating with the existing constellation, they were disposed of by burning up in the atmosphere.

This time, they will be deployed as operational vehicles providing communications to customers. It is a shift from testing to practical use, testing reliability as launch transportation. The number — 26 satellites — highlights bulk transport leveraging Starship’s large payload bay.

The V3 satellites are said to offer 1 Tbps in the downlink direction. That is 10 times the capacity of V2 satellites. Uplink capacity is 160 Gbps, described as 22 times that of V2.

The higher capacity will help maintain quality in areas with high user density on the ground. It will improve support for video streaming, enterprise use, and emergency temporary links during disasters. It will also have a significant effect in boosting total capacity across the constellation.

Starlink already operates a constellation on the scale of thousands of satellites. As the transition to V3 progresses, increased capacity per satellite will improve overall efficiency. It could also help limit the number of launches and lower operating costs.

Booster Catch Skipped and Reuse Strategy

This flight will not include a booster catch by the launch tower. Super Heavy will end its test with a splashdown at sea. Completing orbital insertion and satellite deployment takes priority over verifying recovery hardware.

Starship’s development goal is full reusability. The concept is to recover both the booster and the spacecraft and refly them in a short time. Achieving that requires orbital flight, long-duration stays, and precise reentry.

Past tests have incrementally tried mid-air catches and sea recoveries. There have been reported cases where refurbishing successfully recovered vehicles took time. As Why SpaceX Starship 40 Recovery Takes Months to Return shows, transporting and inspecting large vehicles is not easy.

This time, skipping the recovery process allows focus on verifying the flight itself. The main focus is collecting data on power, thermal, and communications behavior in orbit. Establishing procedures for reuse remains a task for future tests.

Combining operational satellite deployment with orbital flight is also significant. It marks a shift from test-only flights to parallel revenue-generating transport missions. This strengthens a framework for advancing technical verification while recouping development costs.

Pending Regulatory Approval and a Turning

Point for Space Transport

Regulatory approval is required to carry out the launch. SpaceX announced the target date while explicitly stating that approval is pending. A final decision will be made once safety reviews and environmental checks are complete.

Ensuring public safety is the top priority for heavy-lift rocket tests. Setting debris zones and coordinating with air traffic control are essential. Because orbital flights have longer durations, the monitoring area also expands.

Starship is also positioned as a means of transport to the Moon and Mars. It is set to serve as the lander in NASA’s lunar program. Long-duration flight in Earth orbit will help verify the underlying technologies.

The expansion of the communications constellation should not be overlooked. If mass deployment of V3 satellites becomes routine, the impact on the terrestrial communications market will be significant. High-speed, high-capacity satellite communications will increasingly complement areas beyond the reach of fiber-optic networks.

Competition for leadership in launch transport is also intensifying. Lower prices through reuse directly affect other companies’ business plans. The success or failure of the first orbital flight will influence the future order environment.

Editorial Opinion

On short-term impact. If the Sept. 28 flight succeeds, we see it solidifying the order base for mass satellite transport by Starship. The bulk deployment of 26 V3 satellites would demonstrate lower transport costs per unit and affect communications operators’ procurement plans. Even in case of failure, data from the 10-hour orbital stay would be highly valuable, and we assess that conditions for a reflight would be in place within three months.

On the long-term perspective. We see routine orbital flight becoming the prerequisite for lunar transport and heavy cargo transport. Increased satellite communications capacity will intensify competition with terrestrial lines, and we assess that use in remote areas, at sea, and for disaster response will expand. Full realization of reuse will require more than a year of verification, and we see the shift from ocean disposal to recovery as the focal point.

Questions from the editors. We see transparency at issue over whether delayed regulatory approval stems from technical review or procedures. We assess that disclosure of on-orbit verification data is needed on whether V3 satellites perform as specified. We see explanation of the development strategy at issue over whether the use of reusability versus expendability is based on economic rationality.

References

• “SpaceX targets September 28 for Starship’s first orbital flight”, by staff@engadget.com (Mariella Moon) — Engadget, 2026-09-19T19:45:00.000Z (ARR)
• Source URL: https://www.engadget.com/2263238/spacex-targets-september-28-for-the-starships-first-orbital-flight/