SpaceX launched its upgraded Starship V3 rocket from the Starbase facility in Boca Chica, Texas, on Friday, 23 May 2026, in the latest test of the world’s largest and most powerful launch system. The roughly hour-long flight achieved most of its key mission objectives, including the first-ever deployment of mock Starlink satellites from the Starship’s payload bay, before the spacecraft exploded in the Indian Ocean shortly after completing a planned splashdown. SpaceX said the explosion was an anticipated outcome consistent with the test parameters.

The launch, which was delayed by one day due to a hydraulic issue at the launch tower, attracted widespread attention from space enthusiasts and industry observers. Crowds gathered at viewing sites near Starbase cheered as the 121-metre-tall rocket lifted off with a thunderous roar, its 33 Raptor engines generating approximately 74 meganewtons of thrust at full throttle, making it the most powerful rocket ever flown by a significant margin.

What Is Starship V3?

Starship V3 represents a significant upgrade over the previous Starship variants that SpaceX has tested over the past three years. The vehicle features a redesigned payload fairing with an enlarged cargo bay capable of accommodating the next generation of Starlink internet satellites, which are substantially larger and more capable than the current generation launched on Falcon 9 rockets. The Super Heavy booster has been upgraded with improved engine gimballing systems and a new thermal protection scheme designed to enable booster catch-and-reuse operations.

The complete Starship system, comprising the Super Heavy first-stage booster and the Starship upper stage, stands 121 metres tall when fully stacked, making it taller than the Statue of Liberty. When fully fuelled, it weighs approximately 5,000 metric tonnes and is designed to place up to 150 tonnes of payload into low Earth orbit, a capacity that dwarfs every other launch vehicle currently in operation or development worldwide.

SpaceX has positioned Starship as the cornerstone of its long-term ambitions, including the deployment of the next-generation Starlink constellation, the launch of NASA’s Human Landing System for the Artemis lunar programme, and ultimately, the transportation of humans and cargo to Mars. Each test flight incrementally advances the vehicle towards operational readiness, with SpaceX founder Elon Musk maintaining that Starship will achieve fully reusable operational status by 2027.

Mission Timeline and Key Achievements

Friday’s test flight followed a carefully choreographed sequence designed to validate multiple new capabilities. At T plus 2 minutes and 40 seconds, the Super Heavy booster separated from the Starship upper stage and began its return trajectory towards the launch site. However, one of the booster’s 33 Raptor engines experienced an anomaly during the boostback burn, prompting an automatic abort of the booster catch attempt. The booster was instead directed to a soft landing in the Gulf of Mexico, which it completed successfully despite the engine issue.

The Starship upper stage continued its ascent into a low Earth orbit insertion trajectory, reaching an altitude of approximately 250 kilometres. The deployment of ten mock Starlink V3 satellites from the payload bay was executed flawlessly at T plus 15 minutes, marking the first time any Starship variant has demonstrated satellite deployment capability. While the mock satellites were inert and not designed for orbital operations, the successful release validated the mechanical systems that will be used for operational Starlink launches.

During the orbital phase, two of the six vacuum-optimised Raptor engines on the upper stage failed to reignite for the deorbit burn, necessitating an extended coast phase while mission controllers recalculated the trajectory using the remaining four engines. The deorbit burn was eventually completed successfully, albeit with reduced precision that affected the planned splashdown coordinates in the Indian Ocean.

The Indian Ocean Splashdown and Explosion

Video footage from cameras mounted on the Starship showed the spacecraft descending through the atmosphere over the Indian Ocean, its heat shield tiles glowing orange as the vehicle decelerated from orbital velocity. The spacecraft performed a belly-flop manoeuvre followed by a flip to vertical orientation in the final seconds before splashdown, a technique that SpaceX has refined over multiple test flights.

The vehicle touched down in the designated splashdown zone in the Indian Ocean and briefly floated upright before exploding several seconds later. SpaceX’s webcast commentary team described the explosion as a planned outcome, noting that the vehicle was not equipped with the full set of systems required for post-splashdown structural integrity. The primary objective of the descent phase was to validate the thermal protection system and the flip-and-land manoeuvre, both of which were achieved successfully before the explosion occurred.

Implications for NASA’s Artemis Programme

Each Starship test flight has direct implications for NASA’s Artemis programme, which has selected a modified version of the Starship upper stage as the Human Landing System for returning astronauts to the lunar surface. NASA Administrator Bill Nelson issued a statement following Friday’s test, praising the progress while noting that significant additional testing would be required before the vehicle could be certified for crewed missions.

The successful satellite deployment demonstration was viewed as particularly significant because it validates Starship’s utility as a commercial launch vehicle, not just a technology demonstrator. SpaceX has hundreds of Starlink satellites awaiting launch and has indicated that transitioning Starlink launches from Falcon 9 to Starship would dramatically reduce per-satellite launch costs while enabling the deployment of much larger, more capable satellites.

The engine failures experienced during the mission, while not mission-critical, highlighted the ongoing reliability challenges that SpaceX must address before Starship can be considered operationally mature. The Raptor engine programme has been one of the most ambitious engine development efforts in spaceflight history, pushing the boundaries of full-flow staged-combustion cycle technology, and achieving the extreme reliability needed for crewed missions remains a work in progress.

For the global space industry, Starship’s continued progress represents both an opportunity and a disruption. If SpaceX achieves its goal of full reusability at the scale Starship enables, launch costs could fall by an order of magnitude, opening entirely new possibilities for space-based infrastructure, science and commerce. Friday’s test, despite its imperfections, moved that vision measurably closer to reality.

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The United States space agency NASA has announced a comprehensive strategy for establishing a permanent Moon Base at the lunar South Pole, marking the most ambitious step yet in the Artemis program that aims to return humans to the Moon and eventually send them to Mars. The announcement, made through the agency’s official channels, sets the stage for a major news conference scheduled for 26 May 2026 at NASA Headquarters in Washington, where agency leaders will discuss progress on the Moon Base program, reveal new industry partners and outline detailed mission plans.

The Moon Base program represents a significant escalation of NASA’s lunar ambitions. While the Artemis program has always included plans for sustained human presence on the Moon, the specific infrastructure and timeline details announced this week go far beyond the initial scope of short-duration surface visits that characterised earlier Artemis mission profiles. NASA Administrator Jared Isaacman, who was confirmed in the role earlier this year, has made the Moon Base a centrepiece of his vision for the agency.

What the Moon Base Will Look Like

According to preliminary details released ahead of the news conference, the Moon Base is envisioned as a lunar exploration and infrastructure initiative designed to enable sustained human presence and expanded scientific and commercial activity at the lunar South Pole. The South Pole was chosen for its unique advantages, including permanently shadowed craters that contain water ice, which can be converted into drinking water, breathable oxygen and rocket propellant.

The base will be constructed in phases, beginning with robotic precursor missions that will survey the landing site, test construction techniques and deploy initial infrastructure. These robotic missions will work alongside astronauts during subsequent crewed visits to build habitation modules, power systems and communication arrays. The modular design allows the base to grow incrementally, with each mission adding new capabilities.

Key participants in the upcoming news conference include NASA Administrator Jared Isaacman, Lori Glaze, the acting associate administrator for the Exploration Systems Development Mission Directorate, and Carlos García-Galán, the program executive for Moon Base. The involvement of senior leadership signals the priority that NASA places on this initiative within its broader exploration portfolio.

Industry Partners and Commercial Involvement

One of the most anticipated aspects of the 26 May news conference is the announcement of new industry partners who will contribute to the Moon Base program. NASA has increasingly relied on public-private partnerships to achieve its exploration goals, a model that has proven enormously successful with SpaceX’s role in crew and cargo transportation to the International Space Station.

The recent SpaceX IPO filing revealed the depth of the company’s involvement with NASA, including the Starship lunar lander that is central to Artemis crewed missions. Other companies expected to play significant roles in the Moon Base include Blue Origin, which has its own lunar lander programme; Northrop Grumman, which is building habitation elements; and several smaller companies specialising in lunar surface operations, power systems and communications technology.

The commercial dimension of the Moon Base is particularly noteworthy. NASA’s strategy explicitly includes provisions for commercial activity on the lunar surface, recognising that sustained presence will require economic justification beyond pure scientific research. Potential commercial activities include lunar resource extraction, manufacturing in the lunar environment, tourism and the provision of services to other space agencies and private entities.

Scientific Objectives and Mars Preparation

The Moon Base’s scientific agenda is extensive. Researchers plan to study the lunar geology and regolith in unprecedented detail, investigate the water ice deposits at the South Pole, conduct astronomical observations that benefit from the Moon’s lack of atmosphere and radio interference, and perform biological experiments to understand how organisms respond to the lunar environment over extended periods.

Perhaps most importantly, the Moon Base will serve as a testing ground for technologies and operational procedures needed for future Mars missions. Living and working on the Moon for extended periods will provide invaluable data on life support systems, habitat maintenance, radiation protection and the psychological effects of long-duration stays in isolated, confined environments. NASA has explicitly stated that the Moon Base is a stepping stone to Mars, not an end in itself.

This connection to Mars exploration aligns with the broader strategic direction set by President Trump’s National Space Policy, which prioritises American leadership in space and calls for a return to the Moon before the end of the president’s term, the establishment of a Moon Base and the laying of groundwork for eventual human missions to Mars. The ongoing ISS operations continue to provide a foundation of experience in long-duration spaceflight.

International Cooperation and the Artemis Accords

The Moon Base program is being developed within the framework of the Artemis Accords, a set of bilateral agreements between the United States and partner nations that establish principles for the peaceful and responsible exploration of the Moon. Over 50 countries have now signed the Accords, creating a broad international coalition that supports the legal and operational framework for lunar activities.

India, through the Indian Space Research Organisation, has expressed interest in contributing to Artemis program activities, though the specific nature and extent of India’s participation remain under discussion. The ISRO’s growing capabilities in satellite technology and space operations position India as a potentially valuable partner in the lunar infrastructure build-out.

The European Space Agency, the Japan Aerospace Exploration Agency and the Canadian Space Agency are all expected to contribute modules, instruments or operational support to the Moon Base. This international dimension not only distributes the cost and technical burden but also strengthens the political durability of the program across changes in government.

Timeline and Next Steps

While specific timelines will be announced at the 26 May news conference, informed observers expect NASA to outline a phased approach spanning the late 2020s through the mid-2030s. Initial robotic missions could begin as early as 2027 or 2028, with the first crewed construction missions potentially taking place around 2029 or 2030. A permanently crewed base capable of supporting four to six astronauts for extended stays is expected to be operational by the early to mid-2030s.

The budget implications are substantial. The Moon Base program will require sustained congressional funding well beyond the current NASA budget, and the agency will need to make a compelling case for the economic and strategic returns of lunar infrastructure investment. The growing competition from China’s own lunar program, which has announced plans for a crewed lunar landing before 2030, provides a geopolitical argument for maintaining American leadership on the Moon.

As NASA prepares for its 26 May announcement, the space community worldwide is watching closely. The Moon Base represents not just a technical challenge but a civilisational ambition — the first permanent human habitation beyond Earth. If successful, it will mark a turning point in the history of exploration and set the stage for the even greater challenge of reaching Mars.

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