Commercial space

If you want to satiate AI’s hunger for power, Google suggests going to space

AI, artificial inteligence, Commercial space, Google, machine learning, planet labs, Science, Space / Paul Patrick / November 5, 2025

Google engineers think they already have all the pieces needed to build a data center in orbit.

With Project Suncatcher, Google will test its Tensor Processing Units on satellites. Credit: Google

It was probably always when, not if, Google would add its name to the list of companies intrigued by the potential of orbiting data centers.

Google announced Tuesday a new initiative, named Project Suncatcher, to examine the feasibility of bringing artificial intelligence to space. The idea is to deploy swarms of satellites in low-Earth orbit, each carrying Google’s AI accelerator chips designed for training, content generation, synthetic speech and vision, and predictive modeling. Google calls these chips Tensor Processing Units, or TPUs.

“Project Suncatcher is a moonshot exploring a new frontier: equipping solar-powered satellite constellations with TPUs and free-space optical links to one day scale machine learning compute in space,” Google wrote in a blog post.

“Like any moonshot, it’s going to require us to solve a lot of complex engineering challenges,” Google’s CEO, Sundar Pichai, wrote on X. Pichai noted that Google’s early tests show the company’s TPUs can withstand the intense radiation they will encounter in space. “However, significant challenges still remain like thermal management and on-orbit system reliability.”

The why and how

Ars reported on Google’s announcement on Tuesday, and Google published a research paper outlining the motivation for such a moonshot project. One of the authors, Travis Beals, spoke with Ars about Project Suncatcher and offered his thoughts on why it just might work.

“We’re just seeing so much demand from people for AI,” said Beals, senior director of Paradigms of Intelligence, a research team within Google. “So, we wanted to figure out a solution for compute that could work no matter how large demand might grow.”

Higher demand will lead to bigger data centers consuming colossal amounts of electricity. According to the MIT Technology Review, AI alone could consume as much electricity annually as 22 percent of all US households by 2028. Cooling is also a problem, often requiring access to vast water resources, raising important questions about environmental sustainability.

Google is looking to the sky to avoid potential bottlenecks. A satellite in space can access an infinite supply of renewable energy and an entire Universe to absorb heat.

“If you think about a data center on Earth, it’s taking power in and it’s emitting heat out,” Beals said. “For us, it’s the satellite that’s doing the same. The satellite is going to have solar panels … They’re going to feed that power to the TPUs to do whatever compute we need them to do, and then the waste heat from the TPUs will be distributed out over a radiator that will then radiate that heat out into space.”

Google envisions putting a legion of satellites into a special kind of orbit that rides along the day-night terminator, where sunlight meets darkness. This north-south, or polar, orbit would be synchronized with the Sun, allowing a satellite’s power-generating solar panels to remain continuously bathed in sunshine.

“It’s much brighter even than the midday Sun on Earth because it’s not filtered by Earth’s atmosphere,” Beals said.

This means a solar panel in space can produce up to eight times more power than the same collecting area on the ground, and you don’t need a lot of batteries to reserve electricity for nighttime. This may sound like the argument for space-based solar power, an idea first described by Isaac Asimov in his short story Reason published in 1941. But instead of transmitting the electricity down to Earth for terrestrial use, orbiting data centers would tap into the power source in space.

“As with many things, the ideas originate in science fiction, but it’s had a number of challenges, and one big one is, how do you get the power down to Earth?” Beals said. “So, instead of trying to figure out that, we’re embarking on this moonshot to bring [machine learning] compute chips into space, put them on satellites that have the solar panels and the radiators for cooling, and then integrate it all together so you don’t actually have to be powered on Earth.”

SpaceX is driving down launch costs, thanks to reusable rockets and an abundant volume of Starlink satellite launches. Credit: SpaceX

Google has a mixed record with its ambitious moonshot projects. One of the most prominent moonshot graduates is the self-driving car kit developer Waymo, which spun out to form a separate company in 2016 and is now operational. The Project Loon initiative to beam Internet signals from high-altitude balloons is one of the Google moonshots that didn’t make it.

Ars published two stories last week on the promise of space-based data centers. One of the startups in this field, named Starcloud, is partnering with Nvidia, the world’s largest tech company by market capitalization, to build a 5 gigawatt orbital data center with enormous solar and cooling panels approximately 4 kilometers (2.5 miles) in width and length. In response to that story, Elon Musk said SpaceX is pursuing the same business opportunity but didn’t provide any details. It’s worth noting that Google holds an estimated 7 percent stake in SpaceX.

Strength in numbers

Google’s proposed architecture differs from that of Starcloud and Nvidia in an important way. Instead of putting up just one or a few massive computing nodes, Google wants to launch a fleet of smaller satellites that talk to one another through laser data links. Essentially, a satellite swarm would function as a single data center, using light-speed interconnectivity to aggregate computing power hundreds of miles over our heads.

If that sounds implausible, take a moment to think about what companies are already doing in space today. SpaceX routinely launches more than 100 Starlink satellites per week, each of which uses laser inter-satellite links to bounce Internet signals around the globe. Amazon’s Kuiper satellite broadband network uses similar technology, and laser communications will underpin the US Space Force’s next-generation data-relay constellation.

Artist’s illustration of laser crosslinks in space. Credit: TESAT

Autonomously constructing a miles-long structure in orbit, as Nvidia and Starcloud foresee, would unlock unimagined opportunities. The concept also relies on tech that has never been tested in space, but there are plenty of engineers and investors who want to try. Starcloud announced an agreement last week with a new in-space assembly company, Rendezvous Robotics, to explore the use of modular, autonomous assembly to build Starcloud’s data centers.

Google’s research paper describes a future computing constellation of 81 satellites flying at an altitude of some 400 miles (650 kilometers), but Beals said the company could dial the total swarm size to as many spacecraft as the market demands. This architecture could enable terawatt-class orbital data centers, according to Google.

“What we’re actually envisioning is, potentially, as you scale, you could have many clusters,” Beals said.

Whatever the number, the satellites will communicate with one another using optical inter-satellite links for high-speed, low-latency connectivity. The satellites will need to fly in tight formation, perhaps a few hundred feet apart, with a swarm diameter of a little more than a mile, or about 2 kilometers. Google says its physics-based model shows satellites can maintain stable formations at such close ranges using automation and “reasonable propulsion budgets.”

“If you’re doing something that requires a ton of tight coordination between many TPUs—training, in particular—you want links that have as low latency as possible and as high bandwidth as possible,” Beals said. “With latency, you run into the speed of light, so you need to get things close together there to reduce latency. But bandwidth is also helped by bringing things close together.”

Some machine-learning applications could be done with the TPUs on just one modestly sized satellite, while others may require the processing power of multiple spacecraft linked together.

“You might be able to fit smaller jobs into a single satellite. This is an approach where, potentially, you can tackle a lot of inference workloads with a single satellite or a small number of them, but eventually, if you want to run larger jobs, you may need a larger cluster all networked together like this,” Beals said.

Google has worked on Project Suncatcher for more than a year, according to Beals. In ground testing, engineers tested Google’s TPUs under a 67 MeV proton beam to simulate the total ionizing dose of radiation the chip would see over five years in orbit. Now, it’s time to demonstrate Google’s AI chips, and everything else needed for Project Suncatcher will actually work in the real environment.

Google is partnering with Planet, the Earth-imaging company, to develop a pair of small prototype satellites for launch in early 2027. Planet builds its own satellites, so Google has tapped it to manufacture each spacecraft, test them, and arrange for their launch. Google’s parent company, Alphabet, also has an equity stake in Planet.

“We have the TPUs and the associated hardware, the compute payload… and we’re bringing that to Planet,” Beals said. “For this prototype mission, we’re really asking them to help us do everything to get that ready to operate in space.”

Beals declined to say how much the demo slated for launch in 2027 will cost but said Google is paying Planet for its role in the mission. The goal of the demo mission is to show whether space-based computing is a viable enterprise.

“Does it really hold up in space the way we think it will, the way we’ve tested on Earth?” Beals said.

Engineers will test an inter-satellite laser link and verify Google’s AI chips can weather the rigors of spaceflight.

“We’re envisioning scaling by building lots of satellites and connecting them together with ultra-high bandwidth inter-satellite links,” Beals said. “That’s why we want to launch a pair of satellites, because then we can test the link between the satellites.”

Evolution of a free-fall (no thrust) constellation under Earth’s gravitational attraction, modeled to the level of detail required to obtain Sun-synchronous orbits, in a non-rotating coordinate system. Credit: Google

Getting all this data to users on the ground is another challenge. Optical data links could also route enormous amounts of data between the satellites in orbit and ground stations on Earth.

Aside from the technical feasibility, there have long been economic hurdles to fielding large satellite constellations. But SpaceX’s experience with its Starlink broadband network, now with more than 8,000 active satellites, is proof that times have changed.

Google believes the economic equation is about to change again when SpaceX’s Starship rocket comes online. The company’s learning curve analysis shows launch prices could fall to less than $200 per kilogram by around 2035, assuming Starship is flying about 180 times per year by then. This is far below SpaceX’s stated launch targets for Starship but comparable to SpaceX’s proven flight rate with its workhorse Falcon 9 rocket.

It’s possible there could be even more downward pressure on launch costs if SpaceX, Nvidia, and others join Google in the race for space-based computing. The demand curve for access to space may only be eclipsed by the world’s appetite for AI.

“The more people are doing interesting, exciting things in space, the more investment there is in launch, and in the long run, that could help drive down launch costs,” Beals said. “So, it’s actually great to see that investment in other parts of the space supply chain and value chain. There are a lot of different ways of doing this.”

Stephen Clark is a space reporter at Ars Technica, covering private space companies and the world’s space agencies. Stephen writes about the nexus of technology, science, policy, and business on and off the planet.

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A commercial space station startup now has a foothold in space

bandwagon, Commercial space, haven-1, low earth orbit, Space, space station, spacex, vast / Rejus Almole / November 3, 2025

The integration tasks still include installing Haven-1’s environmental control and life support elements, power, data, and thermal control systems, thrusters, fuel tanks, and internal crew accommodations. While that work continues on Earth, Vast’s demo mission will validate some of the company’s designs in space.

Flying at an altitude of 300 miles (500 kilometers), Haven Demo will test Vast’s computer, power, software, guidance and control, propulsion, and radio systems. The pathfinder will also provide Vast an opportunity to exercise its ground stations and mission control teams.

Meanwhile, Vast will ship Haven-1 from its California headquarters to NASA’s Neil Armstrong Test Facility in Ohio for a rigorous environmental test campaign. The Haven-1 module, roughly 33 feet (10.1 meters) long and 14 feet (4.4 meters) wide, will undergo acoustics, vibration, and electromagnetic interference testing. Engineers will also place the habitat into a test chamber to check its performance in the extreme temperatures and airless vacuum environment of low-Earth orbit.

Then, Haven-1 will ship to Cape Canaveral, Florida, for final launch preparations. Vast’s official schedule calls for a launch of Haven-1 no earlier than May 2026, but there’s still a lot to do before the spacecraft is ready to travel to the launch site.

The primary structure of Vast’s Haven-1 habitat is seen undergoing structural testing in Mojave, California. Credit: Vast

Once in orbit, Haven-1 will host a series of crew visits flying on SpaceX’s Dragon spacecraft, each staying for two weeks before returning to Earth.

Haven-1 has a habitable volume of about 1,600 cubic feet (45 cubic meters), somewhat smaller than one of the primary modules on the International Space Station, but five times more than SpaceX’s Dragon capsule. Vast’s longer-term roadmap includes a larger multi-module space station called Haven-2 to support larger crews and longer expeditions in the 2030s.

Vast’s demo mission is an initial step toward these goals. The satellite now circling the planet carries several systems that are “architecturally similar” to Haven-1, according to Vast. For example, Haven-1 will have 12 solar arrays, each identical to the single array on Haven Demo. The pathfinder mission uses a subset of Haven-1’s propulsion system, but with identical thrusters, valves, and tanks.

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SpaceX teases simplified Starship as alarms sound over Moon landing delays

artemis, artemis iii, china, Commercial space, launch, moon, NASA, Space, spacex, starship / Rejus Almole / November 1, 2025

“SpaceX shares the goal of returning to the Moon as expeditiously as possible.”

Artist’s illustration of Starship on the surface of the Moon. Credit: SpaceX

SpaceX on Thursday released the most detailed public update in nearly two years on its multibillion-dollar contract to land astronauts on the Moon for NASA, amid growing sentiment that China is likely to beat the United States back to the lunar surface with humans.

In a lengthy statement published on SpaceX’s website Thursday, the company said it “will be a central enabler that will fulfill the vision of NASA’s Artemis program, which seeks to establish a lasting presence on the lunar surface… and ultimately forge the path to land the first humans on Mars.”

Getting to Mars is SpaceX’s overarching objective, a concise but lofty mission statement introduced by Elon Musk at the company’s founding nearly a quarter-century ago. Musk has criticized NASA’s Artemis program, which aims to return US astronauts to the Moon for the first time since the last Apollo lunar mission in 1972, as unambitious and too reliant on traditional aerospace contractors.

Is this a priority for SpaceX?

The Starship rocket and its massive Super Heavy booster are supposed to be SpaceX’s solution for fulfilling Musk’s mission of creating a settlement on Mars. The red planet has been the focus each time Musk has spoken at length about Starship in the last couple of years, with Moon missions receiving little or no time in his comments, whether they’re scripted or off the cuff.

In the background, SpaceX’s engineers have been busy developing a version of the Starship rocket to fly crews to and from the surface of the Moon for NASA. The agency’s current architecture calls for astronauts to transit from the Earth to the vicinity of the Moon inside NASA’s Orion spacecraft, made by Lockheed Martin, then link up with Starship in lunar orbit for a ride to the Moon’s south pole.

After completing their mission on the surface, the astronauts will ride Starship back into space and dock with Orion to bring them home. Starship and Orion may also link together by docking at the planned Gateway mini-space station orbiting the Moon, but Gateway’s future is in question as NASA faces budget cuts.

NASA has contracts with SpaceX valued at more than $4 billion to land two astronaut crews on the Moon on NASA’s Artemis III and Artemis IV missions. The contract also covers milestones ahead of any human mission, such as an uncrewed Starship landing and takeoff at the Moon, to prove the vehicle is ready.

SpaceX’s Starship descends toward the Indian Ocean at the conclusion of Flight 11 on October 3. Credit: SpaceX

The fresh update from SpaceX lists recent achievements the company has accomplished on the path to the Moon, including demos of life support and thermal control systems, the docking adapter to link Starship with Orion, navigation hardware and software, a landing leg structural test, and engine firings in conditions similar to what the ship will see at the Moon.

Many of these milestones were completed ahead of schedule, SpaceX said. But the biggest tests, such as demonstrating in-orbit refueling, remain ahead. Some NASA officials believe mastering orbital refueling will take many tries, akin to SpaceX’s iterative two steps forward, one step back experience with its initial Starship test flights.

The first test to transfer large amounts of cryogenic liquid methane and liquid oxygen between two Starships in low-Earth orbit is now planned for next year. This time a year ago, SpaceX aimed to launch the first orbital refueling demo before the end of 2025.

Orbital refueling is key to flying Starship to the Moon or Mars. The rocket consumes all of its propellant getting to low-Earth orbit, and it needs more gas to go farther. For lunar missions, SpaceX will launch a Starship-derived propellant depot into orbit, refill it with perhaps a dozen or more Starship tankers, and then dock the Starship lander with it to load its tanks before heading off to the Moon.

Officials haven’t given a precise number of tanker flights required for a Starship lunar lander. It’s likely engineers won’t settle on an exact number until they obtain data on how much of the super-cold liquid propellant boils off in space, and how efficient it is to transfer from ship to ship. Whatever the number, SpaceX says Starship’s design for recovery and rapid reuse will facilitate a fast-paced launch and refueling campaign.

SpaceX tests the elevator to be used on Starship. Credit: SpaceX

The upshot of overcoming the refueling hurdle is Starship’s promise of becoming a transformative vehicle. Starship is enormous compared to any other concept for landing on the Moon. One single Starship has a pressurized habitable volume of more than 600 cubic meters, or more than 21,000 cubic feet, roughly two-thirds that of the entire International Space Station, according to SpaceX. Starship will have dual airlocks, or pathways for astronauts and equipment to exit and enter the spacecraft.

An elevator will lower people and cargo down to the lunar surface from the crew cabin at the top of the 15-story-tall spacecraft. For pure cargo missions, SpaceX says Starship will be capable of landing up to 100 metric tons of cargo directly on the Moon’s surface. This would unlock the ability to deliver large rovers, nuclear reactors, or lunar habitats to the Moon in one go. In the long run, the Starship architecture could allow landers to be reused over and over again. All of this is vital if NASA wants to build a permanent base or research outpost on the Moon.

A competition in more ways than one

But hard things take time. SpaceX dealt with repeated setbacks in the first half of this year: three in-flight failures of Starship and one Starship explosion on the ground at the company’s development facility in South Texas. Since then, teams have reeled off consecutive successful Starship test flights ahead of the debut of an upgraded Starship variant called Version 3 in the coming months. Starship Version 3 will have the accoutrements for refueling, and SpaceX says this will also be the version to fly to the Moon.

The recent Starship delays, coupled with the scope of work to go, have raised concerns that the Artemis program is falling behind China’s initiative to land its own astronauts on the Moon. China’s goal is to do it by 2030, a schedule reiterated in Chinese state media this week. The Chinese program relies on an architecture more closely resembling NASA’s old Apollo designs.

The official schedule for the first Artemis crew landing, on Artemis III, puts it in 2027, but that timeline is no longer achievable. Starship and new lunar spacesuits developed by Axiom Space won’t be ready, in part because NASA didn’t award the contracts to SpaceX and Axiom until 2021 and 2022.

All of this adds up to waning odds that the United States can beat China back to the Moon, according to a growing chorus of voices in the space community. Last month, former NASA chief Jim Bridenstine, who led the agency during the first Trump administration, told Congress the United States was likely to lose the second lunar space race.

At a space conference earlier this week, Bridenstine suggested the Trump administration use its powers to fast-track a lunar landing, even floating the idea of invoking the Defense Production Act, a law that grants the president authority to marshal industrial might to meet pressing national needs.

An executive order from President Donald Trump could authorize such an effort and declare a “national security imperative that we’re going to beat China to the Moon,” Bridenstine said at the American Astronautical Society’s von Braun Space Exploration Symposium in Huntsville, Alabama.

Charlie Bolden, NASA’s administrator under former President Barack Obama, also expressed doubts that NASA could land humans on the Moon before China, or by the end of Trump’s term in the White House. “Let’s be real, OK? Everybody in this room knows, to say we’re going to do it by the end of the term, or we’re going to do it before the Chinese, that doesn’t help industry.”

But Bolden said maybe it’s not so terrible if China lands people on the Moon before NASA can return with astronauts. “We may not make 2030, and that’s OK with me, as long as we get there in 2031 better than they are with what they have there.”

Sean Duffy, NASA’s acting administrator, doesn’t see it the same way. Duffy said last week he would give contractors until this Wednesday to propose other ways of landing astronauts on the Moon sooner than the existing plan. SpaceX and Blue Origin, the space company founded by billionaire Jeff Bezos, confirmed they submitted updated plans to NASA this week.

SpaceX released a new rendering of the internal crew cabin for the Starship lunar lander. Credit: SpaceX

Blue Origin has a separate contract with NASA to provide its own human-rated lunar lander—Blue Moon Mark 2—for entry into service on the Artemis V mission, likely not to occur before the early 2030s. A smaller unpiloted lander—Blue Moon Mark 1—is on track to launch on Blue Origin’s first lunar landing attempt next year.

Blue Moon Mark 1 is still a big vehicle, standing taller than the lunar lander used by NASA during the Apollo program. But it doesn’t match the 52-foot (16-meter) height of Blue Origin’s Mark 2 lander, and tops out well short of the roughly 165-foot-tall (50-meter) Starship lander.

What’s more, Blue Moon Mark 1 won’t need to be refueled after launch, unlike Starship and Mark 2. Jacki Cortese, senior director of civil space at Blue Origin, confirmed Tuesday that her company is looking at employing a “more incremental approach” using Mark 1 to accelerate an Artemis crew landing. Ars first reported Blue Origin was studying how to modify Blue Moon Mark 1 for astronauts.

All of this is a reminder of something Blue Origin said in 2021, when NASA passed over Bezos’ company to award the first Artemis lander contract to SpaceX. Blue Origin protested the award and filed a lawsuit against the government, triggering a lunar lander work stoppage that lasted several months until a federal judge dismissed the suit.

Blue Origin said SpaceX’s approach with numerous refueling sorties was “immensely complex and high risk” and argued its proposal was the better option for NASA. The statement has taken on a meme-worthy status among fans of Starship.

But SpaceX bid a lower cost, and NASA officials said it was the only proposal the agency could afford at the time. And then, when Blue Origin won a contract from NASA in 2023 to provide a second lander option, the company’s concept also hinged on refueling the Blue Moon Mark 2 lander in space.

Now, SpaceX is making a new offering to NASA. Like Blue Origin, SpaceX said it has sent in a proposal for a “simplified architecture” for landing astronauts on the Moon, but did not provide details.

“We’ve shared and are formally assessing a simplified mission architecture and concept of operations that we believe will result in a faster return to the Moon while simultaneously improving crew safety,” the company said.

Since NASA selected SpaceX for the Human Landing System contract in 2021, the company said it has been “consistently responsive to NASA as requirements for Artemis III have changed.”

For example, NASA originally required SpaceX to only demonstrate it could land Starship on the Moon before moving forward with a crew mission. Lori Glaze, who leads NASA’s human exploration division, said in July that the agency is now requiring the uncrewed landing demo to also include an ascent from the Moon’s surface. NASA wants to know if Starship can not just land astronauts on the Moon, but also get them back.

“Starship continues to simultaneously be the fastest path to returning humans to the surface of the Moon and a core enabler of the Artemis program’s goal to establish a permanent, sustainable presence on the lunar surface,” SpaceX said. “SpaceX shares the goal of returning to the Moon as expeditiously as possible, approaching the mission with the same alacrity and commitment that returned human spaceflight capability to America under NASA’s Commercial Crew program.”

An artist’s illustration of multiple Starships on the lunar surface, with a Moon base in the background. Credit: SpaceX

SpaceX has built a reputation for doing things quickly. One example has been the rapid-fire launch cadence of the company’s workhorse Falcon 9 rocket. SpaceX is setting up launch pads and factories to manufacture and launch Super Heavy and Starship—combining together to make the largest rocket ever built—at an even faster rate than Falcon 9.

The company has launched 11 full-scale test flights of Starship/Super Heavy since April 2023. “This campaign has quickly matured the core Starship and has produced numerous feats,” SpaceX said. The company listed some of them:

Multiple successful ascents of the world’s most powerful rocket
The launch, return, catch, and reuse of that rocket to unlock the high launch rate cadence needed for lunar missions
The transfer of approximately 5 metric tons of cryogenic propellant between tanks while in space
Successful in-space relights of the Raptor engines that are critical for the maneuvers that will send Starship to the Moon
Multiple controlled reentries through Earth’s atmosphere

It’s true that these feats have come fast. Many more remain on the road ahead before SpaceX can make good on its commitment to NASA.

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New Glenn rocket has clear path to launch after test-firing at Cape Canaveral

blue origin, Commercial space, escapade, launch, Mars, NASA, new glenn, Space / Tim Belzer / October 31, 2025

The road to the second flight of Blue Origin’s heavy-lifting New Glenn rocket got a lot clearer Thursday night with a success test-firing of the launcher’s seven main engines on a launch pad at Cape Canaveral Space Force Station, Florida.

Standing on a seaside launch pad, the New Glenn rocket ignited its seven BE-4 main engines at 9: 59 pm EDT Thursday (01: 59 UTC Friday). The engines burned for 38 seconds while the rocket remained firmly on the ground, according to a social media post by Blue Origin.

The hold-down firing of the first stage engines was the final major test of the New Glenn rocket before launch day. Blue Origin previously test-fired the rocket’s second-stage engines. Officials have not announced a target launch date, but sources tell Ars the rocket could be ready for liftoff as soon as November 9.

“Love seeing New Glenn’s seven BE-4 engines come alive! Congratulations to Team Blue on today’s hotfire,” the company’s CEO, Dave Limp, posted on X.

Blue Origin, the space company owned by billionaire Jeff Bezos, said the engines operated at full power for 22 seconds, generating nearly 3.9 million pounds of thrust. Limp said engineers extended this test-firing and shut down some of the BE-4 engines to simulate the booster’s landing burn sequence, which Blue Origin hopes will culminate in a successful touchdown on a barge floating downrange in the Atlantic Ocean.

“This helps us understand fluid interactions between active and inactive engine feedlines during landing,” Limp wrote.

Blue Origin is counting on recovering the New Glenn first stage on the next flight after missing the landing on the rocket’s inaugural mission in January. Officials plan to reuse this booster on the third New Glenn launch early next year, slated to propel Blue Origin’s first unpiloted Blue Moon lander toward the Moon. If Blue Origin fails to land this rocket, it’s unlikely a new first stage booster will be ready to launch until sometime later in 2026.

A few more things to do

With the test-firing complete, Blue Origin’s ground crew will lower the more than 320-foot-tall (98-meter) rocket and roll it back to a nearby hangar. There, technicians will inspect the vehicle and swap its payload fairing for another clamshell containing two NASA-owned spacecraft set to begin their journey to Mars.

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Satellite operators will soon join airlines in using Starlink in-flight Wi-Fi

Commercial space, muon space, Space, spacex, starlink / Rejus Almole / October 21, 2025

So long, data limits

Lasers have other benefits over ground stations. Optical links offer significantly more throughput than traditional radio communication systems, and they’re not constrained by regulations on radio spectrum usage.

“What it does for our customers and for the company is we are able to get more than 10x, maybe even 50x, the amount of data that they’re able to bring down, and we’re able to offer them that on a latency of nearly instant,” Stang said in an interview with Ars.

SpaceX’s mini-lasers are designed to achieve link speeds of 25Gbps at distances up to 2,500 miles (4,000 kilometers). These speeds will “open new business models” for satellite operators who can now rely on the same “Internet speed and responsiveness as cloud providers and telecom networks on the ground,” Muon said in a statement.

Muon’s platform, called Halo, comes in different sizes, with satellites ranging up to a half-ton. “With persistent optical broadband, Muon Halo satellites will move from being isolated vehicles to becoming active, real‑time nodes on Starlink’s global network,” Stang said in a press release. “That shift transforms how missions are designed and how fast insights flow to decision‑makers on Earth.”

Muon said the first laser-equipped satellite will launch in early 2027 for an undisclosed customer.

“We like to believe part of why SpaceX trusts us to be the ones to be able to lead on this is because our system is designed to really deal with very different levels of requirements,” Smirin said. “As far as we’re aware, this is the first integration into a satellite. We have a ton of interest from commercial customers for our capabilities in general, and we expect this should just boost that quite significantly.”

FireSat is one of the missions where Starlink connectivity would have an impact by rapidly informing first responders of a wildfire, Smirin said. According to Muon, using satellite laser links would cut FireSat data latency from an average of 20 minutes to near real-time.

“It’s not just for the initial detection,” Smirin said. “It’s also once a fire is ongoing, [cutting] the time and the latency for seeing the intensity and direction of the fire, and being able to update that in near real-time. It has incredible value to incident commanders on the ground, because they’re trying to figure out a way to position their equipment and their people.”

Thinking big

Ubiquitous connectivity in space could eventually lead to new types of missions. “Now, you’ve got a data center in space,” Smirin said. “You can do AI there. You can connect with data centers on the ground.”

While this first agreement between Muon and SpaceX covers commercial data relay, it’s easy to imagine other applications, such as continuous live drone-like high-resolution streaming video from space for surveillance or weather monitoring. Live video from space has historically been limited to human spaceflight missions or rocket-mounted cameras that operate for a short time.

One example of that is the dazzling live video beamed back to Earth, through Starlink, from SpaceX’s Starship rockets. The laser terminals on Starship operate through the extreme heat of reentry, returning streaming video as plasma envelops the vehicle. This environment routinely causes radio blackouts for other spacecraft as they reenter the atmosphere. With optical links, that’s no longer a problem.

“This starts to enable a whole new category of capabilities, much the same way as when terrestrial computers went from dial-up to broadband,” Smirin said. “You knew what it could do, but we blew through bulletin boards very quickly to many different applications.”

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SpaceX has plans to launch Falcon Heavy from California—if anyone wants it to

Commercial space, falcon 9, falcon heavy, launch, military space, Science, slc-6, Space, space force, spacex, Vandenberg space force base / Tim Belzer / October 16, 2025

There’s more to the changes at Vandenberg than launching additional rockets. The authorization gives SpaceX the green light to redevelop Space Launch Complex 6 (SLC-6) to support Falcon 9 and Falcon Heavy missions. SpaceX plans to demolish unneeded structures at SLC-6 (pronounced “Slick 6”) and construct two new landing pads for Falcon boosters on a bluff overlooking the Pacific just south of the pad.

SpaceX currently operates from a single pad at Vandenberg—Space Launch Complex 4-East (SLC-4E)—a few miles north of the SLC-6 location. The SLC-4E location is not configured to launch the Falcon Heavy, an uprated rocket with three Falcon 9 boosters bolted together.

SLC-6, cocooned by hills on three sides and flanked by the ocean to the west, is no stranger to big rockets. It was first developed for the Air Force’s Manned Orbiting Laboratory program in the 1960s, when the military wanted to put a mini-space station into orbit for astronauts to spy on the Soviet Union. Crews readied the complex to launch military astronauts on top of Titan rockets, but the Pentagon canceled the program in 1969 before anything actually launched from SLC-6.

NASA and the Air Force then modified SLC-6 to launch space shuttles. The space shuttle Enterprise was stacked vertically at SLC-6 for fit checks in 1985, but the Air Force abandoned the Vandenberg-based shuttle program after the Challenger accident in 1986. The launch facility sat mostly dormant for nearly two decades until Boeing, and then United Launch Alliance, took over SLC-6 and began launching Delta IV rockets there in 2006.

The space shuttle Enterprise stands vertically at Space Launch Complex-6 at Vandenberg. NASA used the shuttle for fit checks at the pad, but it never launched from California. Credit: NASA

ULA launched its last Delta IV Heavy rocket from California in 2022, leaving the future of SLC-6 in question. ULA’s new rocket, the Vulcan, will launch from a different pad at Vandenberg. Space Force officials selected SpaceX in 2023 to take over the pad and prepare it to launch the Falcon Heavy, which has the lift capacity to carry the military’s most massive satellites into orbit.

No big rush

Progress at SLC-6 has been slow. It took nearly a year to prepare the Environmental Impact Statement. In reality, there’s no big rush to bring SLC-6 online. SpaceX has no Falcon Heavy missions from Vandenberg in its contract backlog, but the company is part of the Pentagon’s stable of launch providers. To qualify as a member of the club, SpaceX must have the capability to launch the Space Force’s heaviest missions from the military’s spaceports at Vandenberg and Cape Canaveral, Florida.

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Starship’s elementary era ends today with mega-rocket’s 11th test flight

Commercial space, launch, Science, Space, spacex, Starbase, starship, starship flight 11, super heavy / Kris Guyer / October 13, 2025

Future flights of Starship will end with returns to Starbase, where the launch tower will try to catch the vehicle coming home from space, similar to the way SpaceX has shown it can recover the Super Heavy booster. A catch attempt with Starship is still at least a couple of flights away.

In preparation for future returns to Starbase, the ship on Flight 11 will perform a “dynamic banking maneuver” and test subsonic guidance algorithms prior to its final engine burn to brake for splashdown. If all goes according to plan, the flight will end with a controlled water landing in the Indian Ocean approximately 66 minutes after liftoff.

Turning point

Monday’s test flight will be the last Starship launch of the year as SpaceX readies a new generation of the rocket, called Version 3, for its debut sometime in early 2026. The new version of the rocket will fly with upgraded Raptor engines and larger propellant tanks and have the capability for refueling in low-Earth orbit.

Starship Version 3 will also inaugurate SpaceX’s second launch pad at Starbase, which has several improvements over the existing site, including a flame trench to redirect engine exhaust away from the pad. The flame trench is a common feature of many launch pads, but all of the Starship flights so far have used an elevated launch mount, or stool, over a water-cooled flame deflector.

The current launch complex is expected to be modified to accommodate future Starship V3s, giving the company two pads to support a higher flight rate.

NASA is counting on a higher flight rate for Starship next year to move closer to fulfilling SpaceX’s contract to provide a human-rated lander to the agency’s Artemis lunar program. SpaceX has contracts worth more than $4 billion to develop a derivative of Starship to land NASA astronauts on the Moon.

But much of SpaceX’s progress toward a lunar landing hinges on launching numerous Starships—perhaps a dozen or more—in a matter of a few weeks or months. SpaceX is activating the second launch pad in Texas and building several launch towers and a new factory in Florida to make this possible.

Apart from recovering and reusing Starship itself, the program’s most pressing near-term hurdle is the demonstration of in-orbit refueling, a prerequisite for any future Starship voyages to the Moon or Mars. This first refueling test could happen next year but will require Starship V3 to have a smoother introduction than Starship V2, which is retiring after Flight 11 with, at best, a 40 percent success rate.

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SpaceX has a few tricks up its sleeve for the last Starship flight of the year

Commercial space, launch, reusable rocket, Science, Space, spacex, Starbase, starship, starship flight 11, super heavy, texas / Rejus Almole / September 30, 2025

This particular booster, numbered Booster 15, launched in March and was caught by the launch tower at Starbase after returning from the edge of space. SpaceX said 24 of the 33 methane-fueled Raptor engines launching on the booster next month are “flight-proven.”

The Super Heavy booster flying next month previously launched and was recovered on Flight 8 in March. Credit: SpaceX

Similar to the last Starship flight, the Super Heavy booster will guide itself to a splashdown off the coast of South Texas instead of returning to Starbase.

“Its primary test objective will be demonstrating a unique landing burn engine configuration planned to be used on the next-generation Super Heavy,” SpaceX said.

The new booster landing sequence will initially use 13 of the rocket’s 33 engines, then downshift to five engines before running just the three center engines for the final portion of the burn. The booster previously went directly from 13 engines to three engines. Using five engines for part of the landing sequence provides “additional redundancy for spontaneous engine shutdowns,” according to SpaceX.

“The primary goal on the flight test is to measure the real-world vehicle dynamics as engines shut down while transitioning between the different phases,” SpaceX said.

Stepping stone to Version 3

After Flight 11, SpaceX will focus on the next-generation Starship design: Starship V3. This upgraded configuration will be the version that will actually fly to orbit, allowing SpaceX to begin deploying its new fleet of larger, more powerful Starlink Internet satellites.

Starship V3 will also be used to test orbital refueling, something never before attempted between two spacecraft with cryogenic propellants. Refueling in space is required to give Starship enough energy to propel itself out of Earth’s orbit to the Moon and Mars, destinations it must reach to fulfill the hopes of NASA and SpaceX founder Elon Musk.

The first flight of Starship V3 is likely to occur in early 2026, using a new launch pad undergoing final outfitting and testing a short distance away from SpaceX’s original launch pad at Starbase. Gerstenmaier, SpaceX’s vice president of build and flight reliability, told a crowd at a space industry conference earlier this month that the company will likely attempt one more suborbital flight with Starship V3. If that goes well, Flight 13 could launch all the way to low-Earth orbit sometime later next year.

SpaceX has a few tricks up its sleeve for the last Starship flight of the year Read More »

Starship will soon fly over towns and cities, but will dodge the biggest ones

cape canaveral, Commercial space, Federal Aviation Administration, Kennedy Space Center, launch, methane, NASA, Space, space force, spacex, starship / Mike M. / September 20, 2025

Starship’s next chapter will involve launching over Florida and returning over Mexico.

SpaceX’s Starship vehicle is encased in plasma as it reenters the atmosphere over the Indian Ocean on its most recent test flight in August. Credit: SpaceX

Some time soon, perhaps next year, SpaceX will attempt to fly one of its enormous Starship rockets from low-Earth orbit back to its launch pad in South Texas. A successful return and catch at the launch tower would demonstrate a key capability underpinning Elon Musk’s hopes for a fully reusable rocket.

In order for this to happen, SpaceX must overcome the tyranny of geography. Unlike launches over the open ocean from Cape Canaveral, Florida, rockets departing from South Texas must follow a narrow corridor to steer clear of downrange land masses.

All 10 of the rocket’s test flights so far have launched from Texas toward splashdowns in the Indian or Pacific Oceans. On these trajectories, the rocket never completes a full orbit around the Earth, but instead flies an arcing path through space before gravity pulls it back into the atmosphere.

If Starship’s next two test flights go well, SpaceX will likely attempt to send the soon-to-debut third-generation version of the rocket all the way to low-Earth orbit. The Starship V3 vehicle will measure 171 feet (52.1 meters) tall, a few feet more than Starship’s current configuration. The entire rocket, including its Super Heavy booster, will have a height of 408 feet (124.4 meters).

Starship, made of stainless steel, is designed for full reusability. SpaceX has already recovered and reflown Super Heavy boosters, but won’t be ready to recover the rocket’s Starship upper stage until next year, at the soonest.

That’s one of the next major milestones in Starship’s development after achieving orbital flight. SpaceX will attempt to bring the ship home to be caught back at the launch site by the launch tower at Starbase, Texas, located on the southernmost section of the Texas Gulf Coast near the US-Mexico border.

It was always evident that flying a Starship from low-Earth orbit back to Starbase would require the rocket to fly over Mexico and portions of South Texas. The rocket launches to the east over the Gulf of Mexico, so it must approach Starbase from the west when it comes in for a landing.

New maps published by the Federal Aviation Administration show where the first Starships returning to Texas may fly when they streak through the atmosphere.

Paths to and from orbit

The FAA released a document Friday describing SpaceX’s request to update its government license for additional Starship launch and reentry trajectories. The document is a draft version of a “tiered environmental assessment” examining the potential for significant environmental impacts from the new launch and reentry flight paths.

The federal regulator said it is evaluating potential impacts in aviation emissions and air quality, noise and noise-compatible land use, hazardous materials, and socioeconomics. The FAA concluded the new flight paths proposed by SpaceX would have “no significant impacts” in any of these categories.

SpaceX’s Starship rocket shortly before splashing into the Indian Ocean in August. Credit: SpaceX

The environmental review is just one of several factors the FAA considers when deciding whether to approve a new commercial launch or reentry license. According to the FAA, the other factors are public safety issues (such as overflight of populated areas and payload contents), national security or foreign policy concerns, and insurance requirements.

The FAA didn’t make a statement on any public safety and foreign policy concerns with SpaceX’s new trajectories, but both issues may come into play as the company seeks approval to fly Starship over Mexican towns and cities uprange from Starbase.

The regulator’s licensing rules state that a commercial launch and reentry should each pose no greater than a 1 in 10,000 chance of harming or killing a member of the public not involved in the mission. The risk to any individual should not exceed 1 in 1 million.

So, what’s the danger? If something on Starship fails, it could disintegrate in the atmosphere. Surviving debris would rain down to the ground, as it did over the Turks and Caicos Islands after two Starship launch failures earlier this year. Two other Starship flights ran into problems once in space, tumbling out of control and breaking apart during reentry over the Indian Ocean.

The most recent Starship flight last month was more successful, with the ship reaching its target in the Indian Ocean for a pinpoint splashdown. The splashdown had an error of just 3 meters (10 feet), giving SpaceX confidence in returning future Starships to land.

This map shows Starship’s proposed reentry corridor. Credit: Federal Aviation Administration

One way of minimizing the risk to the public is to avoid flying over large metropolitan areas, and that’s exactly what SpaceX and the FAA are proposing to do, at least for the initial attempts to bring Starship home from orbit. A map of a “notional” Starship reentry flight path shows the vehicle beginning its reentry over the Pacific Ocean, then passing over Baja California and soaring above Mexico’s interior near the cities of Hermosillo and Chihuahua, each with a population of roughly a million people.

The trajectory would bring Starship well north of the Monterrey metro area and its 5.3 million residents, then over the Rio Grande Valley near the Texas cities of McAllen and Brownsville. During the final segment of Starship’s return trajectory, the vehicle will begin a vertical descent over Starbase before a final landing burn to slow it down for the launch pad’s arms to catch it in midair.

In addition to Monterrey, the proposed flight path dodges overflights of major US cities like San Diego, Phoenix, and El Paso, Texas.

Let’s back up

Setting up for this reentry trajectory requires SpaceX to launch Starship into an orbit with exactly the right inclination, or angle to the equator. There are safety constraints for SpaceX and the FAA to consider here, too.

All of the Starship test flights to date have launched toward the east, threading between South Florida and Cuba, south of the Bahamas, and north of Puerto Rico before heading over the North Atlantic Ocean. For Starship to target just the right orbit to set up for reentry, the rocket must fly in a slightly different direction over the Gulf.

Another map released by the FAA shows two possible paths Starship could take. One of the options goes to the southeast between Mexico’s Yucatan Peninsula and the western tip of Cuba, then directly over Jamaica as the rocket accelerated into orbit over the Caribbean Sea. The other would see Starship departing South Texas on a northeasterly path and crossing over North Florida before reaching the Atlantic Ocean.

While both trajectories fly over land, they avoid the largest cities situated near the flight path. For example, the southerly route misses Cancun, Mexico, and the northerly path flies between Jacksonville and Orlando, Florida. “Orbital launches would primarily be to low inclinations with flight trajectories north or south of Cuba that minimize land overflight,” the FAA wrote in its draft environmental assessment.

The FAA analyzed two launch trajectory options for future orbital Starship test flights. Credit: Federal Aviation Administration

The proposed launch and reentry trajectories would result in temporary airspace closures, the FAA said. This could force delays or rerouting of anywhere from seven to 400 commercial flights for each launch, according to the FAA’s assessment.

Launch airspace closures are already the norm for Starship test flights. The FAA concluded that the reentry path over Mexico would require the closure of a swath of airspace covering more than 4,200 miles. This would affect up to 200 more commercial airplane flights during each Starship mission. Eventually, the FAA aims to shrink the airspace closures as SpaceX demonstrates improved reliability with Starship test flights.

Eventually, SpaceX will move some flights of Starship to Florida’s Space Coast, where rockets can safely launch in many directions over the Atlantic. By then, SpaceX aims to be launching Starships at a regular cadence—first, multiple flights per month, then per week, and then per day.

This will enable all of the things SpaceX wants to do with Starship. Chief among these goals is to fly Starships to Mars. Before then, SpaceX must master orbital refueling. NASA also has a contract with SpaceX to build Starships to land astronauts on the Moon’s south pole.

But all of that assumes SpaceX can routinely launch and recover Starships. That’s what engineers hope to soon prove they can do.

Starship will soon fly over towns and cities, but will dodge the biggest ones Read More »

A record supply load won’t reach the International Space Station as scheduled

Commercial space, Cygnus, human spaceflight, international space station, ng-23, Northrop Grumman, Science, Space / Tim Belzer / September 17, 2025

The damage occurred during the shipment of the spacecraft’s pressurized cargo module from its manufacturer in Italy. While Northrop Grumman hopes to repair the module and launch it on a future flight, officials decided it would be quicker to move forward with the next spacecraft in line for launch this month.

This is the first flight of a larger model of the Cygnus spacecraft known as the Cygnus XL, measuring 5.2 feet (1.6 meters) longer, with the ability to carry 33 percent more cargo than the previous Cygnus spacecraft design. With this upgrade, this mission is carrying the heaviest load of supplies ever delivered to the ISS by a commercial cargo vehicle.

The main engine on the Cygnus spacecraft burns a mixture of hydrazine and nitrogen tetroxide propellants. This mixture is hypergolic, meaning the propellants ignite upon contact with one another, a design heralded for its reliability. The spacecraft has a separate set of less powerful reaction control system thrusters normally used for small maneuvers, and for pointing the ship in the right direction as it makes its way to the ISS.

If the main engine is declared unusable, one possible option for getting around the main engine problem might be using these smaller thrusters to more gradually adjust the Cygnus spacecraft’s orbit to line up for the final approach with the ISS. However, it wasn’t immediately clear if this was a viable option.

Unlike SpaceX’s Cargo Dragon spacecraft, the Cygnus is not designed to return to Earth intact. Astronauts fill it with trash before departure from the ISS, and then the spacecraft heads for a destructive reentry over the remote Pacific Ocean. Therefore, a problem preventing the spacecraft from reaching the ISS would result in the loss of all of the cargo onboard.

The supplies on this mission, designated NG-23, include fresh food, hardware for numerous biological and tech demo experiments, and spare parts for things like the space station’s urine processor and toilet to replenish the space station’s dwindling stocks of those items.

A record supply load won’t reach the International Space Station as scheduled Read More »

Northrop Grumman’s new spacecraft is a real chonker

commercial resupply services, Commercial space, falcon 9, international space station, launch, NASA, Northrop Grumman, Science, Space, spacex, thales alenia space / Kris Guyer / September 16, 2025

What happens when you use a SpaceX Falcon 9 rocket to launch Northrop Grumman’s Cygnus supply ship? A record-setting resupply mission to the International Space Station.

The first flight of Northrop’s upgraded Cygnus spacecraft, called Cygnus XL, is on its way to the international research lab after launching Sunday evening from Cape Canaveral Space Force Station, Florida. This mission, known as NG-23, is set to arrive at the ISS early Wednesday with 10,827 pounds (4,911 kilograms) of cargo to sustain the lab and its seven-person crew.

By a sizable margin, this is the heaviest cargo load transported to the ISS by a commercial resupply mission. NASA astronaut Jonny Kim will use the space station’s Canadian-built robotic arm to capture the cargo ship on Wednesday, then place it on an attachment port for crew members to open hatches and start unpacking the goodies inside.

A bigger keg

The Cygnus XL spacecraft looks a lot like Northrop’s previous missions to the station. It has a service module manufactured at the company’s factory in Northern Virginia. This segment of the spacecraft provides power, propulsion, and other necessities to keep Cygnus operating in orbit.

The most prominent features of the Cygnus cargo freighter are its circular, fan-like solar arrays and an aluminum cylinder called the pressurized cargo module that bears some resemblance to a keg of beer. This is the element that distinguishes the Cygnus XL from earlier versions of the Cygnus supply ship.

The cargo module is 5.2 feet (1.6 meters) longer on the Cygnus XL. The full spacecraft is roughly the size of two Apollo command modules, according to Ryan Tintner, vice president of civil space systems at Northrop Grumman. Put another way, the volume of the cargo section is equivalent to two-and-a-half minivans.

“The most notable thing on this mission is we are debuting the Cygnus XL configuration of the spacecraft,” Tintner said. “It’s got 33 percent more capacity than the prior Cygnus spacecraft had. Obviously, more may sound like better, but it’s really critical because we can deliver significantly more science, as well as we’re able to deliver a lot more cargo per launch, really trying to drive down the cost per kilogram to NASA.”

A SpaceX Falcon 9 rocket ascends to orbit Sunday after launching from Cape Canaveral Space Force Station, Florida, carrying Northrop Grumman’s Cygnus XL cargo spacecraft toward the International Space Station. Credit: Manuel Mazzanti/NurPhoto via Getty Images

Cargo modules for Northrop’s Cygnus spacecraft are built by Thales Alenia Space in Turin, Italy, employing a similar design to the one Thales used for several of the space station’s permanent modules. Officials moved forward with the first Cygnus XL mission after the preceding cargo module was damaged during shipment from Italy to the United States earlier this year.

Northrop Grumman’s new spacecraft is a real chonker Read More »

Lull in Falcon Heavy missions opens window for SpaceX to build new landing pads

Commercial space, falcon 9, falcon heavy, Federal Aviation Administration, launch, NASA, reusability, Science, Space, spacex / Tim Belzer / September 4, 2025

SpaceX’s goal for this year is 170 Falcon 9 launches, and the company is on pace to come close to this target. Most Falcon 9 launches carry SpaceX’s own Starlink broadband satellites into orbit. The FAA’s environmental approval opens the door for more flights from SpaceX’s busiest launch pad.

But launch pad availability is not the only hurdle limiting how many Falcon 9 flights can take off in a year. There’s also the rate of production for Falcon 9 upper stages, which are new on each flight, and the time it takes for each vessel in SpaceX’s fleet of drone ships (one in California, two in Florida) to return to port with a recovered booster and redeploy back to sea again for the next mission. SpaceX lands Falcon 9 boosters on offshore drone ships after most of its launches and only brings the rocket back to an onshore landing on missions carrying lighter payloads to orbit.

When a Falcon 9 booster does return to landing on land, it targets one of SpaceX’s recovery zones at military-run spaceports in Florida and California. SpaceX’s landing zone at Vandenberg Space Force Base in California is close to the Falcon 9 launch pad there.

The Space Force wants SpaceX, and potentially other future reusable rocket companies, to replicate the side-by-side launch and landing pads at Cape Canaveral.

To do that, the FAA also gave the green light Wednesday for SpaceX to construct and operate a new rocket landing zone at SLC-40 and conduct up to 34 first-stage booster landings there each year. The landing zone will consist of a 280-foot diameter concrete pad surrounded by a 60-foot-wide gravel apron. The landing zone’s broadest diameter, including the apron, will measure 400 feet.

The location of SpaceX’s new rocket landing pad is shown with the red circle, approximately 1,000 feet northeast of the Falcon 9 rocket’s launch pad at Space Launch Complex-40. Credit: Google Maps/Ars Technica

SpaceX is in an earlier phase of planning for a Falcon landing pad at historic Launch Complex-39A at NASA’s Kennedy Space Center, just a few miles north of SLC-40. SpaceX uses LC-39A as a launch pad for most Falcon 9 crew launches, all Falcon Heavy missions, and, in the future, flights of the company’s gigantic next-generation rocket, Starship. SpaceX foresees Starship as a replacement for Falcon 9 and Falcon Heavy, but the company’s continuing investment in Falcon-related infrastructure shows the workhorse rocket will stick around for a while.

Lull in Falcon Heavy missions opens window for SpaceX to build new landing pads Read More »