SpaceX
SpaceX’s Crew Dragon and Falcon 9 Block 5 rocket are almost ready for astronauts
In a Commercial Crew update presented by Program Manager Kathy Lueders to the NASA Advisory Council (NAC), the agency has confirmed that SpaceX is deep into the final stages of hardware preparation and testing ahead of their first uncrewed and crewed demonstrations launches of Crew Dragon.
Barring a miracle for Commercial Crew Program partner Boeing’s Starliner spacecraft program or serious faults leading up to SpaceX’s own debuts, SpaceX is all but guaranteed to become the first private company in history to design, build, and launch a spacecraft into Earth orbit with real astronauts onboard.
PICTURE OF B1051!!! It will ship to the Cape from McGregor soon.
Solar panel array on the trunk for the DM-1 capsule will take place in Hawthorne. pic.twitter.com/K82GANn5zr
— Michael Baylor (@MichaelBaylor_) August 27, 2018
SpaceX’s DM-1 Crew Dragon (serial number C201; “C” for capsule, “2” for Dragon 2, and “01” for capsule #1) capsule is already in Florida at one of the company’s spacecraft processing facilities, while that vehicle’s trunk segment – a module mounted below the capsule responsible for providing power (solar arrays), thermal regulation (radiator panels), and external cargo lift capacity – is scheduled to ship from Hawthorne, CA to Florida by the end of September. Demonstration Mission-1 (DM-1) is currently targeting a launch debut no earlier than November 2018.
DM-1’s Falcon 9 launch vehicle, booster B1051 and an expendable second stage, are also making significant progress towards the Crew Dragon’s uncrewed debut launch. NASA’s report noted that B1051 was on track for shipment (presumably to the Cape) sometime in the fall (technically anytime after August 31st) and that the upper stage would likely find its way to Florida soon after, sometime in September. Due to the fact that Merlin Vacuum engine qualification has not yet been completed, that milestone is likely the only thing standing between S2 shipment to FL, as SpaceX typically builds and tests both Falcon 9 segments near-simultaneously.
- One of the aforementioned balloon-drop parachute tests. (SpaceX)
- The DM-1 Crew Dragon capsule soon after completion. (SpaceX)
- DM-1 seen conducting acoustic testing in Ohio. (SpaceX)
- Falcon 9 B1051, DM-1’s rocket of choice, seen during construction in SpaceX’s Hawthorne factory. (SpaceX)
- B1051’s octaweb, the structure that Merlin engines attach to and thrust against. (SpaceX)
- The DM-2 Crew Dragon’s trunk module seen during production. (SpaceX)
- Crew Dragon astronauts test the capsule’s display controls. (SpaceX)
- SpaceX Crew Dragon capsule C203 – then assigned DM-2 – is seen here in August 2018. (Pauline Acalin)
Meanwhile, SpaceX has successfully completed a duo of unique and critical tests of Crew Dragon’s parachute systems, carrying a Crew Dragon mass simulator (i.e. boilerplate) up to 45,000 feet (13,700 m) under a huge balloon before dropping the mockup, a test series designed to prove out the ability of the parachute system to successfully deploy and function in the exact flight regimes the real hardware will experience while safely returning astronauts to Earth. As NASA Commercial Crew Program Manager Kathy Lueders herself noted, that type of testing is extremely difficult to pull off, but SpaceX has thus far completed two.
On the launch pad side of things, SpaceX will be exclusively conducting Crew Dragon missions from Pad 39A. The company completed installation of a strikingly modern-looking crew access arm (CAA) just days ago, marking a crucial milestone for the historic launch complex to be truly ready to support human spaceflight once more, a heritage represented physically by the tower the arm is installed on (Shuttle-era) and the pad’s foundation and thrust diverter (constructed to support Saturn V’s Apollo moon missions).
That’s right provided the two Crew Dragon test flights go well. Hardware will def be ready. https://t.co/KcAFArYn1x
— Elon Musk (@elonmusk) August 6, 2018
Further down the road, SpaceX has already entered into the late stages of hardware integration and preparation for the second Crew Dragon demonstration mission (DM-2), which will almost without a doubt see SpaceX become the first private entity in history to build, launch, and operate a crewed spacecraft in Earth orbit.
According to NASA’s SpaceX-derived schedule, that particularly historic spacecraft is expected to be ready for launch as early as January, a full three months prior to its current April 2018 launch date. CEO Elon Musk did note recently on Twitter that the hardware for both crewed and uncrewed demonstration missions would “def[initely] be ready” for the launch dates of November 2018 and April 2019.
Catch all the technical SpaceX-related slides below.
- August 27, 2018. (NASA)
- August 27, 2018. (NASA)
- August 27, 2018. (NASA)
- August 27, 2018. (NASA)
- August 27, 2018. (NASA)
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Elon Musk
The FCC just said ‘No’ to SpaceX for now
SpaceX is fighting the FCC for spectrum that could put satellites inside every smartphone.
SpaceX was dealt a new setback on April 23, 2006 by the Federal Communications Commission (FCC) after the U.S. government agency dismissed the company’s petition to access a Mobile Satellite Service spectrum that would allow direct-to-device (D2D) capabilities.
The FCC regulates communications by radio, television, wire, and cable, which also includes regulating D2D technology that lets your existing smartphone connect directly to a satellite orbiting Earth, the same way it would connect to a cell tower.
Elon Musk’s SpaceX has been building toward this through its Starlink Mobile service, formerly called Direct-to-Cell, in partnership with T-Mobile. The service officially launched on July 23, 2025, starting with messaging and expanding to broadband data in October of that year.
T-Mobile Starlink Pricing Announced – Early Adopters Get Exclusive Discount
It’s worth noting that SpaceX is not alone in this race. AT&T and Verizon have their own satellite texting deals with AST SpaceMobile, while Verizon separately offers free satellite texting through Skylo on newer phones.
The regulatory foundation for all of this dates to March 14, 2024, when the FCC adopted the world’s first framework for what it called Supplemental Coverage from Space, allowing satellite operators to lease spectrum from terrestrial carriers and fill gaps in their coverage. On November 26, 2024, the FCC granted SpaceX the first-ever authorization under that framework, approving its partnership with T-Mobile to provide service in specific frequency bands. SpaceX then went further, completing a roughly $17 billion acquisition of wireless spectrum from EchoStar, which gave it the ability to negotiate with global carriers more independently.
Starlink’s EchoStar spectrum deal could bring 5G coverage anywhere
This recent ruling by the FCC blocked SpaceX from going further, protecting incumbent spectrum holders like Globalstar and Iridium. But the market momentum is already in motion. As Teslarati reported, SpaceX is targeting peak speeds of 150 Mbps per user for its next generation Direct-to-Cell service, compared to roughly 4 Mbps today, which would bring satellite connectivity close to standard carrier performance.
With a reported IPO targeting a $1.75 trillion valuation on the horizon, each spectrum fight, carrier deal, and regulatory win or loss now carries weight beyond just connectivity. SpaceX is quietly becoming the infrastructure layer underneath the phones of millions of people, and the FCC’s next move will help determine how much further that reach extends.
FCC Satellite Rule Makings can be found here.
Elon Musk
SpaceX just got pulled into the biggest Weapons Program in U.S. history
SpaceX joins the Golden Dome software group, deepening its role in America’s most expensive defense program.
SpaceX has joined a nine-company group developing the core operating software for the Golden Dome, America’s next-generation missile defense system. According to a Bloomberg report, SpaceX is focused on integrating satellite communications for military operations and is working alongside eight other defense and artificial intelligence companies, including Anduril Industries, Palantir Technologies, and Aalyria Technologies, to build software connecting missile defense capabilities.
The Golden Dome concept dates back to President Trump’s 2024 campaign, and on January 27, 2025, he signed an executive order directing the U.S. Armed Forces to construct the system before the end of his term. The system is planned to employ a constellation of thousands of satellites equipped with interceptors, with data centers in space providing automated control through an AI network.
FCC accepts SpaceX filing for 1 million orbital data center plan
Space Force Gen. Michael Guetlein, director of the Golden Dome initiative, has described the software layer as a “glue layer” that would enable officers to manage and control radars, sensors, and missile batteries across services. The consortium is aiming to test the platform this summer.
Trump selected a design in May 2025 with a $175 billion price tag, expected to be operational by the end of his term in 2029, though the Congressional Budget Office projected the cost could reach $831 billion over two decades.
The Golden Dome role is only the latest in a string of military wins for SpaceX. As Teslarati reported, the U.S. Space Force awarded SpaceX a $178.5 million task order on April 1, 2026 to launch missile tracking satellites for the Space Development Agency, covering two Falcon 9 launches beginning in Q3 2027. That came on top of more than $22 billion in government contracts held by SpaceX as of 2024, per CEO Gwynne Shotwell, spanning NASA resupply missions, classified intelligence satellites through its Starshield program, and military broadband.
The accumulation of defense contracts, now including a seat at the table on the most expensive weapons program in U.S. history, positions SpaceX as the dominant infrastructure provider for American national security in space. With a SpaceX IPO still on the horizon, each new contract adds weight to what is already one of the most consequential companies in aerospace history, raising real questions about how much of America’s defense architecture will depend on a single private operator before it ever trades publicly.
News
SpaceX is following in Tesla’s footsteps in a way nobody expected
In the span of just months in early 2026, SpaceX has transformed itself into one of the world’s most ambitious AI companies. The catalyst: its February acquisition of xAI.
When Elon Musk founded Tesla in 2003, it was a plucky electric car startup betting everything on lithium-ion batteries and a niche luxury Roadster.
Two decades later, Tesla is far more than a car company. Its valuation increasingly hinges on Full Self-Driving software, the Optimus humanoid robot, the Robotaxi program, and the Dojo supercomputer cluster purpose-built for AI training.
Musk has repeatedly described Tesla as an AI and robotics company that happens to sell vehicles. The cars, in this view, are merely the first scalable platform for real-world AI.
Now, SpaceX is tracing an eerily similar path, only faster and in a direction almost no one anticipated. Founded in 2002 to make spaceflight routine and eventually multiplanetary, SpaceX spent its first two decades perfecting reusable rockets, landing Falcon 9 boosters, and building the Starlink megaconstellation.
Elon Musk launches TERAFAB: The $25B Tesla-SpaceXAI chip factory that will rewire the AI industry
It was an engineering and manufacturing powerhouse, not a software play. Yet, in the span of just months in early 2026, SpaceX has transformed itself into one of the world’s most ambitious AI companies. The catalyst: its February acquisition of xAI.
The xAI deal, announced on February 2, was structured as an all-stock transaction that valued the combined entity at roughly $1.25 trillion—SpaceX at $1 trillion and xAI at $250 billion. In a memo to employees, Musk framed the merger as the creation of “the most ambitious, vertically-integrated innovation engine on (and off) Earth.”
The new SpaceX now owns Grok, the large language model family that powers the chatbot of the same name, along with xAI’s massive training infrastructure. More importantly, it has a declared mission to move AI compute off-planet.
Earth-based data centers are hitting hard limits on power, cooling, and land. Musk’s solution is orbital data centers, or constellations of solar-powered satellites that act as supercomputers in the sky.
SpaceX has already asked regulators for permission to launch up to one million such satellites. Starship, the company’s fully reusable heavy-lift vehicle, is the only rocket capable of delivering the necessary mass at the required cadence.
Each orbital node would enjoy near-constant sunlight, vast radiator surfaces for passive cooling, and zero terrestrial real-estate costs. Musk has predicted that within two to three years, space-based AI inference and training could become cheaper than anything possible on the ground.
This is not a side project; it is the strategic centerpiece Musk has envisioned for SpaceX. Starlink already provides the global low-latency backbone; next-generation V3 satellites will carry onboard AI accelerators. Rockets deliver the hardware, while AI optimizes every aspect of launch, landing, and constellation management.
The feedback loop is self-reinforcing, too. Better AI makes better rockets, which launch more AI infrastructure.
Just yesterday, on April 21, SpaceX doubled down.
It secured an option to acquire Cursor—the fast-growing AI coding tool beloved by software engineers—for $60 billion later this year, or pay a $10 billion partnership fee if the full deal does not close.
Cursor’s models already help engineers write code at superhuman speed. Pairing that technology with SpaceX’s Colossus-scale training clusters (the same ones powering Grok) positions the company to dominate AI developer tools, much as Tesla dominates autonomous driving software.
Why SpaceX just made a $60 billion bet on AI coding ahead of historic IPO
The parallels with Tesla are striking. Both companies began in a single, capital-intensive sector: Tesla with EVs, SpaceX with launch vehicles. Both used early hardware success to fund AI at scale. Tesla’s Dojo supercomputers train neural nets on billions of miles of real-world driving data; SpaceX now trains on telemetry from thousands of orbital assets and re-entries.
Tesla’s FSD chip runs inference on cars; SpaceX’s future satellites will run inference in orbit.
Tesla’s Optimus robot will work in factories; SpaceX envisions lunar factories manufacturing more AI satellites, eventually using electromagnetic mass drivers to fling them into deep space.
Critics once dismissed Musk’s multi-company empire as unfocused. The 2026 moves reveal the opposite: deliberate convergence.
SpaceX is no longer merely a rocket company that sells internet from space. It is an AI company whose competitive moat is literal orbital infrastructure and the only vehicle that can service it at scale. The forthcoming IPO, expected later this year, will almost certainly be pitched not as a space play but as the purest bet on AI infrastructure the public market has ever seen.
Whether the orbital data-center vision survives regulatory scrutiny, astronomical concerns about light pollution, or the sheer engineering challenge remains to be seen.
Yet the strategic direction is unmistakable. Just as Tesla proved that software and AI could redefine the century-old automobile, SpaceX is proving that rockets are merely the delivery mechanism for the next great computing platform—one that floats above the clouds, powered by the sun, and limited only by the physics of orbit.
In that unexpected sense, history is repeating. Tesla stopped being “just a car company” years ago. SpaceX has now stopped being “just a rocket company.” Both are becoming something far larger: AI powerhouses with hardware moats so deep that competitors will need their own reusable megaconstellations to keep up.
The age of terrestrial AI is ending. The age of space-based AI is beginning—and SpaceX is building the launchpad.













