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SpaceX Conducts Static Fire Test of Starship Upper Stage Ahead of Ninth Flight

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SpaceX has once again demonstrated progress with its next-generation Starship spacecraft by conducting a full-duration static fire test of the vehicle’s upper stage on May 12th at its Starbase facility in South Texas. During this important milestone, the 171-foot-tall upper stage fired all six Raptor engines for approximately 60 seconds, confirming the ship’s readiness as it undergoes final preparations. This test marks the third static fire for this particular Starship, highlighting SpaceX’s methodical approach to refining the vehicle before its highly anticipated ninth test flight. The company shared video and images from the test on social media, giving enthusiasts a closer look at the spacecraft’s development.

This static fire represents one of the last critical steps before the vehicle’s next launch, though SpaceX has yet to announce an official date. The booster designated for Flight 9 has also completed its own static fire test, fueling speculation that the launch could be imminent, possibly within weeks. Once fully assembled, the Starship system towers at 403.5 feet, making it the most powerful rocket ever built. Its design emphasizes full reusability for both the Super Heavy booster and the Starship upper stage—an essential feature for future missions to the Moon, Mars, and beyond.

To date, Starship has flown eight test missions, including two in 2025. While the launches themselves proceeded smoothly, the upper stage encountered failures shortly after reaching space during both 2025 flights. Notably, the Super Heavy booster executed impressive and precise landings back at Starbase, aided by the giant launch tower’s “chopstick” arms—a first-of-its-kind rocket-catching method. However, the upper stage exploded less than ten minutes post-launch on both occasions, raising questions about its stability and resilience.

Despite these setbacks, SpaceX continues to refine Starship, pushing closer to achieving a fully reusable spacecraft capable of supporting ambitious space exploration goals. With multiple static fire tests completed and ongoing improvements, the ninth launch is expected to come soon, provided the company maintains its rapid pace of testing and development at Starbase. Enthusiasts and space watchers alike remain eager to see how Starship progresses on its path toward becoming a cornerstone for humanity’s interplanetary future.

Trump Victory Could Boost Elon Musk’s Vision of Mars Missions

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Elon Musk’s ambition to transport humans to Mars may gain momentum under President-elect Donald Trump, according to sources familiar with Trump’s space policy plans. NASA’s Artemis program, which involves Musk’s SpaceX Starship rocket, currently aims to place humans on the moon as a step toward Mars missions. Under the new administration, however, the program is expected to prioritize Mars more directly, with potential uncrewed missions as soon as this decade.

This shift aligns with Musk’s long-term goal of making Mars humanity’s next frontier. Known for wearing an “Occupy Mars” shirt at a Trump rally in October, Musk has strongly endorsed the incoming president, contributing $119 million to Trump’s campaign and heightening the visibility of space policy during the transition.

Sources indicate that the Trump administration’s approach to NASA will focus more intensively on Mars, seeing the moon as a mere “launching pad” for a Mars mission. Doug Loverro, a space industry consultant who led NASA’s human exploration unit during Trump’s previous term, notes that a Mars-centered agenda could make the Red Planet an explicit objective. Yet, an intensified Mars focus also poses increased financial and technical challenges, especially in comparison to lunar missions.

Trump’s influence on space policy isn’t new: he launched NASA’s Artemis program in 2019, which the Biden administration maintained. However, Trump’s advisers now plan to push for changes in Artemis to correct what they perceive as stagnation since their last administration. This could entail shifting from costly government contracts to fixed-price agreements with private companies, which would transfer greater responsibility—and risk—to firms like SpaceX.

Under Musk’s influence, the Trump administration may also look to reduce regulatory constraints, particularly at the Federal Aviation Administration (FAA). Musk has long voiced frustration over the FAA’s commercial space regulations, which he argues have delayed SpaceX’s Starship program. Deregulation could thus expedite private rocket launches, aiding Musk’s vision for Mars.

Such policy shifts may impact NASA’s $24 billion Space Launch System (SLS) rocket, a government-owned project led by Boeing and Northrop Grumman since 2011. If Artemis pivots toward Mars, the SLS program could face scrutiny, as critics argue it has drained NASA’s budget while struggling with delays. Nonetheless, canceling the program would be difficult due to the potential job losses and greater reliance on SpaceX for space missions.

Musk, who also heads Tesla and Neuralink, is known for setting ambitious timelines. He recently claimed that SpaceX could land Starship on Mars by 2026, with a crewed mission following by 2030. Trump has publicly discussed these Mars aspirations with Musk, although experts are cautious about the feasibility. Scott Pace, Trump’s top space policy official during his previous term, believes that while a one-way Starship mission to Mars might be achievable, a fully crewed mission remains unlikely within such a short timeline.

Plans for Musk’s Mars vision could change as the Trump transition team finalizes its policy agenda. For now, it appears that both Musk and Trump are aligned in their drive to push the boundaries of space exploration, targeting Mars as a significant goal for the near future.

 

SpaceX Achieves Major Milestone: Starship Booster Successfully Caught in Fifth Test Flight

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SpaceX achieved a groundbreaking engineering feat on Sunday during its fifth test flight of the Starship rocket, successfully returning the Super Heavy booster to its Texas launch pad using giant mechanical arms. This marks a critical advancement in SpaceX’s efforts to develop a fully reusable rocket system designed for missions to the moon, Mars, and beyond.

The mission began at 7:25 a.m. CT (1225 GMT) when the Super Heavy booster lifted off from SpaceX’s Boca Chica facility in Texas, propelling the Starship second stage toward space. After separation at an altitude of approximately 70 kilometers (40 miles), the Super Heavy booster initiated its descent back to the launch site in a dramatic sequence. As it neared the pad, the booster reignited three of its 33 Raptor engines to control its descent, targeting the 400-foot launch tower equipped with large metal arms designed to “catch” the rocket.

In a first for SpaceX, the booster hooked itself into place using tiny protruding bars under its four grid fins, which had steered the rocket during its descent. Elon Musk, SpaceX’s CEO, celebrated the success by posting, “The tower has caught the rocket!!” on X (formerly Twitter). Engineers at SpaceX were seen cheering on the company’s live stream as the novel landing method succeeded.

Pushing the Limits of Reusability

This successful catch-landing is part of SpaceX’s ambitious mission to develop fully reusable rockets, an essential feature for deep-space exploration and reducing the costs of space missions. Starship, the rocket system’s second stage, also played a key role in the test flight, accelerating to speeds of 17,000 miles per hour at an altitude of 89 miles before heading toward a targeted splashdown in the Indian Ocean.

Upon reentry, Starship encountered superheated plasma, with onboard cameras capturing the spectacular display as it streaked through Earth’s atmosphere. The heat shields, now made up of 18,000 improved tiles, were enhanced following the previous test flight in June, when the Starship’s heat shields sustained damage, complicating its reentry.

Controlled Splashdown and Explosion

The test flight concluded with Starship re-igniting one of its six Raptor engines to reorient itself for a simulated landing in the ocean near Western Australia. While the ship successfully landed on target in the waters, it toppled onto its side soon after, and moments later, a fireball explosion illuminated the area. Although it remains unclear whether the explosion was a controlled detonation or due to a fuel leak, SpaceX engineers were heard celebrating the mission’s outcome, confirming that the Starship landed “precisely on target.”

Regulatory Approvals and Tensions

SpaceX’s fifth test flight was cleared for launch just a day before by the U.S. Federal Aviation Administration (FAA), ending a period of tension between the company and the regulatory body over the pace of launch approvals. The FAA had previously fined SpaceX over its Falcon 9 rocket, which is the company’s workhorse for launching satellites and crew missions. Despite these regulatory hurdles, the successful test highlights SpaceX’s commitment to advancing its spaceflight technology and achieving its long-term vision of interplanetary travel.

Conclusion

This latest test is a significant step in SpaceX’s test-to-failure development strategy for creating reusable rocket technology capable of supporting NASA’s lunar missions and Musk’s vision of human colonization of Mars. Though setbacks like the Starship’s post-landing explosion remain, the key achievements of this mission—such as the booster catch—bring SpaceX closer to its ambitious goal of developing a rocket system that can be reused for multiple deep-space missions, drastically cutting costs and paving the way for the future of space exploration.