SpaceX
SpaceX & ULA could compete to launch NASA’s Orion spacecraft around the Moon
In barely 48 hours, the future of NASA’s SLS rocket was buffeted relentlessly by a combination of new priorities in the White House’s FY2020 budget request and statements made before Congress by NASA administrator Jim Bridenstine. Contracted by NASA to companies like Boeing, the outright failure of SLS contractors to stem years of launch delays and billions in cost overruns has lead to what can only be described as a possible tipping point, one that could benefit companies like ULA, SpaceX, and Blue Origin.
On March 11th, the White House’s 2020 NASA budget request proposed an aggressive curtail of mission options available for the SLS rocket, preferring instead to save hundreds of millions (and eventually billions) of dollars by prioritizing commercial launch vehicles and indefinitely pausing all upgrade work on SLS. On March 13th, Administrator Bridenstine stated before Congress that he was dead-set on ensuring that NASA sticks to a current 2020 deadline for Orion’s first uncrewed circumlunar voyage (EM-1), even if it required using two commercial rockets (either Falcon Heavy or Delta IV Heavy) to send the spacecraft around the Moon next year. In both cases, it’s safe to say that the political tides have somehow undergone a spectacular 180-degree shift in attitude toward SLS, the first salvo in what is guaranteed to be a major political battle.
“Deferred” upgrades
Of the many potential challenges the ides of March have placed before SLS, the first and potentially most significant involves the rocket’s tentative path to future upgrades over the course of its operation. Those upgrades primarily center around the Exploration Upper Stage (EUS) and a new mobile launcher (ML) platform, as well as a longer-term vision known as SLS Block 2. At least with respect to the EUS, NASA (and politicians) were apparently less and less okay with the extraordinary amount of money and time Boeing suggested it would need to develop the new upper stage, to the extent that cutting (or “deferring”) its development could likely save NASA billions of dollars between now and the distant and unstable completion date. Without the EUS, SLS would be dramatically less useful for extreme deep space exploration, effectively the entire purpose of its existence. Instead, the White House included language that would limit SLS launches to crew transfer missions with the Orion spacecraft and nothing more, cutting out heavy cargo missions for science or station-building. Ultimately, those crew transport launches would probably be more than enough to keep SLS Block 1 and Orion busy.
However, two days later, Administrator Bridenstine stated before Congress that he was dead-set on ensuring that NASA sticks to a current 2020 deadline for Orion’s first uncrewed circumlunar voyage (EM-1), going so far as to suggest that NASA was examining the possibility of launching the ~26 ton (57,000 lb) spacecraft on a commercial rocket, followed by a separate launch of a boost stage to send Orion to the Moon. If this were to occur, the consequences could be far-reaching for SLS, potentially delaying the first crewed launch of Orion on SLS until EM-3 and creating a ready-made, one-to-one replacement for SLS at drastically lower costs. At that point, nothing short of political heroics and aggressive bribery could save the SLS program from outright cancellation.
As it stands, the only rockets capable of conceivably supporting a 2020 launch of the 26-ton Orion are ULA’s Delta IV Heavy and SpaceX’s Falcon Heavy, both of which are certified by NASA for (uncrewed) launches. In fact, Falcon 9 was very recently certified by NASA’s Launch Services Program (LSP) to launch the highest priority NASA payloads, signifying the space agency’s growing confidence in SpaceX’s reliability and mission assurance. While the process of certifying Falcon Heavy for an uncrewed Orion launch would be far more complicated than simply grouping Falcon 9’s readiness with Heavy, it would no doubt help that Falcon Heavy is based on hardware (aside from the center core) almost identical to that found on Falcon 9.


The fact that Bridenstine indicated that the primary goal of these potential changes was to speed up EM-1 – an uncrewed demonstrated of Orion functionally similar to Crew Dragon’s recent DM-1 mission – is also significant, as is the fact that such a commercial SLS stand-in would require two separate launches to complete the mission. One launch would place Orion and its service module (ESM) into Low Earth Orbit (LEO), while a second launch would place a partially or fully-fueled upper stage into orbit to propel Orion on a trajectory that would take it around the Moon and back to Earth, similar to the milestone Apollo 8 mission. The need for two launches and the fact that Orion would be uncrewed means that both SpaceX and ULA would be possible candidates for either or both launches, potentially allowing NASA to exploit a competitive procurement process that could lower costs further still.
If Europa Clipper is anything to go off of, launching Orion EM-1 on a commercial rocket could save NASA and the US taxpayer at least $700M (before any potential development costs), aided further by potential competition between ULA and SpaceX. On the other hand, a system that can launch Orion and support EM-1 could fundamentally support all Orion EM missions, of which many are planned. Whether or not Bridenstine and the White House have considered the ramifications, what that translates into is a direct and pressing threat to the continued existence of SLS, with the White House recommending that the rocket be barred from launching large science missions or space station segments as the NASA administrator proposes making it redundant for Orion launches. As Ars Technica’s Eric Berger rightly notes in the tweet at the top of this article, those are the only three conceivable projects where SLS would have any value at all.
If NASA actually went through with this preliminary plan to launch Orion around the Moon on a commercial rocket, they agency would have also fundamentally created a packaged replacement for SLS with a price tag likely 2-5 times cheaper. If Congress had the option to choose between two offerings with similar end-results where one of the two could save the US hundreds of millions of dollars at minimum, it would be almost impossible to argue for the more expensive solution.
Battle of the Heavies
Despite the potential competitive procurement opportunity for a commercial Orion launch, things could get significantly more complicated depending on the political motivations behind the White House and NASA administrator. While Bridenstine explicitly avoided saying as much, the options available to NASA would be ULA’s Boeing-built Delta IV Heavy (DIVH) rocket and SpaceX’s brand new Falcon Heavy. DIVH holds a present-day advantage with active NASA LSP certification for uncrewed spacecraft launches, something Falcon Heavy has yet to achieve.
Nevertheless, it could be the case that NASA, Bridenstine, and/or the White House have a vested interested in potentially replacing SLS for crewed Orion launches entirely. Either way, it’s incredibly unlikely that NASA would launch SLS for the first time ever with astronauts aboard, a massive risk that would also patently contradict the agency’s posture on Commercial Crew launch safety, which has resulted in one uncrewed demo for both Boeing and SpaceX before either be allowed to launch astronauts. NASA also demanded that SpaceX launch Falcon 9 Block 5 seven times in the same configuration meant to launch crew. If NASA is actually interested in at least preserving the option for future crewed launches using the same commercial arrangement, Falcon Heavy is by far the most plausible option Orion’s first uncrewed launch. NASA and SpaceX are deep into the process of human-rating Falcon 9 for imminent Crew Dragon launches with NASA astronauts aboard, meaning that NASA’s human spaceflight certification engineers are about as intimately familiar with Falcon 9 as they possibly can be.


Given that much of Falcon Heavy has direct heritage to Falcon 9, particularly so for the family’s newest Block 5 variant, SpaceX has a huge leg up over ULA’s Delta IV Heavy if it ever came time to certify either heavy-lift rocket for crewed launches. In a third-party study commissioned by NASA and completed in 2009, The Aerospace Corporation concluded that Delta IV Heavy could be human-rated but would require far-reaching modifications to almost every aspect of the rocket’s hardware and software. Most notably, Aerospace found – in a truly ironic twist of fate – that Boeing would likely need to develop a wholly new upper stage for a human-rated Delta IV Heavy, increasing redundancy by increasing the number of RL-10 engines from two to four. As proposed by Boeing, the Exploration Upper Stage – under threat of deferment due to high cost and slow progress – would also feature four RL-10 engines and much of the same upgrades Boeing would need to develop for EUS. Aside from an entirely new upper stage, ULA would also need to develop and qualify an entirely new variant of the RS-68A engine that powers each DIVH booster. Ultimately, TAC believed it would take “5.5 to 7 years” and major funding to human-rate Delta IV Heavy.
Meanwhile, Falcon Heavy already offers multiple-engine-out capabilities, uses the same M1D and MVac engines – as well as an entire upper stage – that are on a direct path to be human-rated later this year, and two side boosters with minimal changes from Falcon 9’s nearly human-rated booster. NASA would still need to analyze the center core variant and stage separation mechanisms, as well as Falcon Heavy as an integrated and distinct system, but the odds of needing major hardware changes would be far smaller than Delta IV Heavy.

Regardless, it will be truly fascinating to see how this wholly unexpected series of events ultimately plays out as Congress and its several SLS stakeholders begin to analyze the options at hand and (most likely) formulate a battle plan to combat the threats now facing the NASA rocket. According to Administrator Bridenstine, NASA will have come to a final decision on how to proceed with Orion EM-1 as soon as a few weeks from now.
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Elon Musk
SpaceX posts Starship booster feat that’s so nutty, it doesn’t even look real
The Super Heavy booster’s feat was so impressive that the whole maneuver almost looked like it was AI-generated.
SpaceX has shared a video of a remarkable feat achieved by Starship’s Super Heavy booster during its 11th flight test.
The Super Heavy booster’s feat was so impressive that the whole maneuver, which was captured on video, almost looked like it was AI-generated.
Super Heavy’s picture perfect hover
As could be seen in the video shared by SpaceX, Starship’s Super Heavy booster, which is nearly 400 feet tall, smoothly returned to Earth and hovered above the Gulf of America for a few seconds before it went for its soft water landing. The booster’s picture-perfect maneuver before splashing down all but capped a near-flawless mission for Starship, which is about to enter its V3 era with Flight 12.
The booster’s balance and stability were so perfect that some users on X joked that the whole thing looked AI-generated. Considering the size of Super Heavy, as well as the fact that the booster was returning from space, the hovering display all but showed that SpaceX is dead serious about keeping its dominant lead in the spaceflight sector.
Starship V2’s curtain call
As noted in a Space.com report, Flight Test 11 achieved every major goal SpaceX had set for the mission, including deploying Starlink mass simulators, relighting Raptor engines in space, and executing a stable reentry for both the Starship Upper Stage and the Super Heavy booster. The feat also marked the second time a Super Heavy booster has been reflown, a milestone in SpaceX’s quest to make the entire Starship system fully reusable.
Starship’s V2 vehicle will now give way to the upgraded Starship V3, which is designed for faster turnaround and higher payload capacity. The Starship program is expected to pursue even more aggressive targets in the coming months as well, with Elon Musk stating on social media platform X that SpaceX will attempt a tower catch for Starship Upper Stage as early as spring 2026.
Elon Musk
Starship’s next chapter: SpaceX eyes tower catch after flawless Flight 11
Elon Musk has revealed the tentative timeframe for Starship’s next milestone that would push the spacecraft’s reusability to a whole new level.
Elon Musk has revealed the tentative timeframe for Starship’s next milestone that would push the spacecraft’s reusability to a whole new level.
Following Flight 11’s flawless mission, Musk noted on X that SpaceX will be aiming to catch the Starship Upper Stage with its launch tower as early as spring 2026. This should pave the way for SpaceX to start optimizing Starship for maximum reusability.
Flight 11 closes the Starship V2 chapter on a high note
Starship’s eleventh flight, which launched from Starbase, Texas, achieved every major mission objective. The Super Heavy booster completed a successful ascent, hover, and soft splashdown in the Gulf of America, while the upper stage executed an orbit burn, deployed Starlink simulators, and returned with a controlled reentry over the Indian Ocean.
This mission officially closed the chapter on the second-generation Starship and first-generation Super Heavy booster, and it set the stage for a redesigned vehicle built for orbital payload missions, propellant transfer, and beyond. It should be noted that Elon Musk has mentioned on X that Starship V3, at least if things go well, might be capable of reaching Mars.
Elon Musk confirms tower catch attempt set for spring
After Flight 11’s success, Musk confirmed that SpaceX will attempt to catch the Starship Upper Stage with its launch tower arms, fondly dubbed by the spaceflight community as “chopsticks,” in the coming months. Musk’s announcement came as a response to an X user who asked when the tower could start catching the Starship Upper Stage. In his reply, Musk simply wrote “Springtime.”
Starship’s reusability is a key feature of the spacecraft, with SpaceX aiming to achieve a launch cadence that is almost comparable to conventional aircraft. For such a scenario to be feasible, launch tower catches of both Starship’s Upper Stage and its Super Heavy booster have to be routine.
Elon Musk
SpaceX is preparing to launch Starship V2 one final time
The mission will test reentry dynamics, new landing burn configurations, and heat-shield upgrades.
SpaceX is preparing to launch its final Starship V2 rocket on October 13, 2025. The launch closes the curtain on Starship V2 and marks the start of the ambitious spacecraft’s V3 era.
Liftoff for Flight 11 is scheduled for 7:15 p.m. ET from Starbase in South Texas, with a 75-minute launch window. The mission will test reentry dynamics, new landing burn configurations, and heat-shield upgrades ahead of the transition to the next-generation Starship V3.
Starship V3 and beyond
Elon Musk confirmed on X that Starship V3 is already in production and could be “built & tested” and perhaps even flown before the end of 2025. The new version is expected to feature major performance and scale improvements, with Musk stating that Starship V3, provided that things go well, might be capable of reaching Mars, though V4 is more likely to perform a full-scale mission to the red planet.
“Only one more V2 left to launch,” Musk wrote back in August following Starship’s successful Flight 10 mission. In another post, Musk stated that “Starship V3 is a massive upgrade from the current V2 and should be through production and testing by end of year, with heavy flight activity next year.”
Starship V2’s final mission
Flight 11 is designed to push the limits of Starship V2. SpaceX engineers have intentionally removed heat-shield tiles in vulnerable areas to analyze how the vehicle handles atmospheric reentry under stress, as noted in a Space.com report. The test will also refine subsonic guidance algorithms and new landing burn sequences for the Super Heavy booster that would be used for Starship V3.
“Super Heavy will ignite 13 engines at the start of the landing burn and then transition to a new configuration with five engines running for the divert phase. Previously done with three engines, the planned baseline for V3 Super Heavy will use five engines during the section of the burn responsible for fine-tuning the booster’s path, adding additional redundancy for spontaneous engine shutdowns.
“The booster will then transition to its three center engines for the end of the landing burn, entering a full hover while still above the ocean surface, followed by shutdown and dropping into the Gulf of America,” SpaceX wrote in a post on its official website.
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