Commercial space

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ESA finally has a commercial launch strategy, but will member states pay?

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Late this year, European governments will have the opportunity to pay up or shut up.

The European Space Agency is inviting proposals to inject competition into the European launch market, an important step toward fostering a dynamic multiplayer industry officials hope, one day, will mimic that of the United States.

The near-term plan for the European Launcher Challenge is for ESA to select companies for service contracts to transport ESA and other European government payloads to orbit from 2026 through 2030. A second component of the challenge is for companies to perform at least one demonstration of an upgraded launch vehicle by 2028. The competition is open to any European company working in the launch business.

“What we expect is that these companies will make a step in improving and upgrading their capacity with respect to what they’re presently working on,” said Toni Tolker-Nielsen, ESA’s acting director of space transportation. “In terms of economics and physics, it’s better to have a bigger launcher than a smaller launcher in terms of price per kilogram to orbit.”

“The ultimate goal is, we should be establishing privately developed competitive launch services in Europe, which will allow us to procure launch services in open competition,” Tolker-Nielsen said in an interview with Ars.

From one to many?

ESA and other European institutions currently have just one European provider, Arianespace, to award launch contracts for the continent’s scientific, Earth observation, navigation, and military satellites. Arianespace operates the Ariane 6 and Vega C rockets. Vega C operations will soon be taken over by Italian aerospace company Avio. Both rockets were developed with ESA funding.

The launcher challenge is modeled on NASA’s use of commercial contracting methods beginning nearly 20 years ago with the agency’s commercial cargo program, which kickstarted the development of SpaceX’s Dragon and Northrop Grumman’s Cygnus resupply freighters for the International Space Station. NASA later applied the same model to commercial crew, and most recently for commercial lunar landers.

Uncharacteristically for ESA, the agency is taking a hands-off approach for the launcher challenge. One of the few major requirements is that the winners should offer a “European launch service” that flies from European territory, which includes the French-run Guiana Space Center in South America.

Europe’s second Ariane 6 rocket lifted off March 6 with a French military spy satellite. Credit: European Space Agency

“We are trying something different, where they are completely free to organize themselves,” Tolker-Nielsen said. “We are not pushing anything. We are in a complete service-oriented model here. That’s the principal difference between the new approach and the old approach.”

ESA also isn’t setting requirements on launcher performance, reusability, or the exact number of companies it will select in the challenge. But ESA would like to limit the number of challengers “to a minimum” to ensure the agency’s support is meaningful, without spreading its funding too thin, Tolker-Nielsen said.

“For the ESA-developed launchers, which are Ariane 6 and Vega C, we own the launch system,” Tolker-Nielsen said. “We finished the development, and the deliverables were the launch systems that we own at ESA, and we make it available to an operator—Arianespace, and Avio soon for Vega C—to exploit.”

These ESA-led launcher projects were expensive. The development of Ariane 6 cost European governments more than $4 billion. Ariane 6 is now flying, but none of the up-and-coming European alternatives is operational.

Next steps

It has taken a while to set up the European Launcher Challenge, which won preliminary approval from ESA’s 23 member states at a ministerial-level meeting in 2023. ESA released an “invitation to tender,” soliciting proposals from European launch companies Monday, with submissions due by May 5. This summer, ESA expects to select the top proposals and prepare a funding package for consideration by its member states at the next ministerial meeting in November.

The top factors ESA will consider in this first phase of the challenge are each proposer’s business plan, technical credibility, and financial credibility.

In a statement, ESA said it has allotted up to 169 million euros ($182 million at today’s exchange rates) per challenger. This is significant funding for Europe’s crop of cash-hungry launch startups, each of which has raised no more than a few hundred million euros. But this allotment comes with a catch. ESA’s leaders and the winners of the launch challenge must persuade their home governments to pay up.

Let’s take a moment to compare Europe’s launch industry with that of the United States.

There are multiple viable US commercial launch companies. In the United States, it’s easier to attract venture capital, the government has been a more reliable proponent of commercial spaceflight, and billionaires are part of the launch landscape. SpaceX, led by Elon Musk, dominates the market. Jeff Bezos’s space company, Blue Origin, and United Launch Alliance are also big players with heavy-lift rockets.

Rocket Lab and Firefly Aerospace fly smaller, privately developed launchers. Northrop Grumman’s medium-class launch division is currently in between rockets, although it still occasionally launches small US military satellites on Minotaur rockets derived from decommissioned ICBMs.

Of course, it’s not surprising the sum of US launch companies is higher than in Europe. According to the World Bank, the US economy is about 50 percent larger than the European Union’s. But six American companies with operational orbital rockets, compared to one in Europe today? That is woefully out of proportion.

European officials would like to regain a leading position in the global commercial launch market. With SpaceX’s dominance, that’s a tall hill to climb. At the very least, European politicians don’t want to rely on other countries for access to space. In the last three years, they’ve seen their access to Russian launchers dry up after Russia’s invasion of Ukraine, and after signing a few launch contracts with SpaceX to bridge the gap before the first flight of Ariane 6, they now view the US government and Elon Musk as unreliable partners.

Open your checkbook, please

ESA’s governance structure isn’t favorable for taking quick action. On one hand, ESA member states approve the agency’s budget in multiyear increments, giving its projects a sense of stability over time. However, it takes time to get new projects approved, and ESA’s member states expect to receive benefits—jobs, investment, and infrastructure—commensurate with their spending on European space programs. This policy is known as geographical return, or geo-return.

For example, France has placed a high strategic importance on fielding an independent European launch capability for more than 60 years. The administration of French President Charles de Gaulle made this determination during the Cold War, around the same time he decided France should have a nuclear deterrent fully independent of the United States and NATO.

In order to match this policy, France has been more willing than other European nations to invest in launchers. This means the Ariane rocket family, developed and funded through ESA contracts, has been largely a French enterprise since the first Ariane launch in 1979.

This model is becoming antiquated in the era of commercial spaceflight. Startups across Europe, primarily in France, Germany, the United Kingdom, and Spain, are developing small launchers designed to carry up to 1.5 metric tons of payload to low-Earth orbit. This is too small to directly compete with the Ariane 6 rocket, but eventually, these companies would like to develop larger launchers.

Some European officials, including the former head of the French space agency, blamed geo-return as a reason the Ariane 6 rocket missed its price target.

Toni Tolker-Nielsen, ESA’s acting director of space transportation, speaks at an event in 2021. Credit: ESA/V. Stefanelli

With the European Launcher Challenge, ESA will experiment with a new funding model for the first time. This new “fair contribution” approach will see ESA leadership put forward a plan to its member states at the next big ministerial conference in November. The space agency will ask the countries that benefit most from the winners of the launcher challenge to provide the bulk of the funding for the challengers’ contracts.

So, let’s say Isar Aerospace, which is set to launch its first rocket as soon as this week, is one of the challenge winners. Isar is headquartered in Munich, and its current launch site is in Norway. In this case, expect ESA to ask the governments of Germany and Norway to contribute the most money to pay for Isar’s contract.

MaiaSpace, a French subsidiary of ArianeGroup, the parent company of Arianespace, is also a contender in the launcher challenge. MaiaSpace plans to launch from French Guiana. Therefore, if MaiaSpace gets a contract, France would be on the hook for the lion’s share of the deal’s funding.

Tolker-Nielsen said he anticipates a “number” of the launch challengers will win the backing of their home countries in November, but “maybe not all.”

“So, first there is this criteria that they have to be eligible, and then they have to be funded as well,” he said. “We don’t want to propose funding for companies that we don’t see as credible.”

Assuming the challengers’ contracts get funded, ESA will then work with the European Commission to assign specific satellites to launch on the new commercial rockets.

“The way I look at this is we are not going to choose winners,” Tolker-Nielsen said. “The challenge is not the competition we are doing right now. It is to deliver on the contract. That’s the challenge.”

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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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This launcher is about to displace the V-2 as Germany’s largest rocket

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Isar Aerospace’s first Spectrum rocket will launch from Andøya Spaceport in Norway.

Seven years ago, three classmates at the Technical University of Munich believed their student engineering project might hold some promise in the private sector.

At the time, Daniel Metzler led a team of 40 students working on rocket engines and launching sounding rockets. Josef Fleischmann was on the team that won the first SpaceX Hyperloop competition. Together with another classmate, Markus Brandl, they crafted rocket parts in a campus workshop before taking the leap and establishing Isar Aerospace, named for the river running through the Bavarian capital.

Now, Isar’s big moment has arrived. The company’s orbital-class first rocket, named Spectrum, is set to lift off from a shoreline launch pad in Norway as soon as Monday.

The three-hour launch window opens at 12: 30 pm local time in Norway, or 7: 30 am EDT in the United States. “The launch date remains subject to weather, safety and range infrastructure,” Isar said in a statement.

Isar’s Spectrum rocket rolls out to its launch pad in Norway. Credit: Isar Aerospace

Isar said it received a launch license from the Norwegian Civil Aviation Authority on March 14, following the final qualification test on the Spectrum rocket in February to validate its readiness for flight.

Notably, this will be the first orbital launch attempt from a launch pad in Western Europe. The French-run Guiana Space Center in South America is the primary spaceport for European rockets. Virgin Orbit staged an airborne launch attempt from an airport in the United Kingdom in 2023, and the Plesetsk Cosmodrome is located in European Russia.

No guarantees

Success is never assured on the inaugural launch of a new rocket. Isar is the first in a wave of European launch startups to arrive at this point. The company developed the Spectrum rocket with mostly private funding, although Isar received multimillion-euro investments from the European Space Agency, the German government, and the NATO Innovation Fund.

All told, Isar says it has raised more than 400 million euros, or $435 million at today’s currency exchange rate, more than any other European launch startup.

“We are approaching the most important moment of our journey so far, and I would like to thank all our team, partners, customers and investors who have been accompanying and trusting us,” said Daniel Metzler, Isar’s co-founder and CEO, in a statement.

Most privately developed rockets have failed to reach orbit on the first try. Several US launch companies that evolved in a similar mold as Isar—such as Rocket Lab, Firefly Aerospace, and Astra—faltered on the way to orbit on their rockets’ first flights.

“With this mission, Isar Aerospace aims to collect as much data and experience as possible on its in-house-developed launch vehicle. It is the first integrated test of all systems,” said Alexandre Dalloneau, Isar’s vice president of mission and launch operations.

“The test results will feed into the iterations and development of future Spectrum vehicles, which are being built and tested in parallel,” Isar said in a statement.

Look familiar? Isar Aerospace’s Spectrum rocket is powered by nine first-stage engines arranged in an “octaweb” configuration patterned on SpaceX’s Falcon 9 rocket. Credit: Isar Aerospace/Wingmen Media

Europe has struggled to regain its footing after SpaceX took over the dominant position in the global commercial launch market, a segment led for three decades by Europe’s Ariane rocket family before SpaceX proved the reliability of the lower-cost, partially reusable Falcon 9 launcher. The continent’s new Ariane 6 rocket, funded by ESA and built by a consortium owned by multinational firms Airbus and Safran, is more expensive than the Falcon 9 and years behind schedule. It finally debuted last year.

One ton to LEO

Isar’s Spectrum rocket is not as powerful as SpaceX’s Falcon 9 or Arianespace’s Ariane 6. But even SpaceX had to start somewhere. Its small Falcon 1 rocket failed three times before tasting success. Spectrum is somewhat larger and more capable than Falcon 1, with performance in line with Firefly’s Alpha rocket.

The fully assembled Spectrum rocket stands about 92 feet (28 meters) tall and measures more than 6 feet (2 meters) in diameter. The expendable launcher is designed to haul payloads up to 1 metric ton (2,200 pounds) into low-Earth orbit. Spectrum is powered by nine Aquila engines on its first stage, and one engine on the second stage, burning a mixture of propane and liquid oxygen propellants.

There are no customer satellites aboard the first Spectrum test flight. The rocket will climb into a polar orbit from Andøya Spaceport in northern Norway, but Isar hasn’t published a launch timeline or the exact parameters of the target orbit.

While modest in size next to Europe’s Ariane launcher family, Isar’s Spectrum is the largest German rocket since the V-2, the World War II weapon of terror launched by Nazi Germany against targets in Great Britain, Belgium, and other places. In the 80 years since the war, German industry developed a handful of small sounding rockets and manufactured upper stages for Ariane rockets.

But German governments have long shunned spending on launchers at levels commensurate with the nation’s place as a top contributor to ESA. France took the lead in the continent’s postwar rocket industry, providing the lion’s share of funding for Ariane and taking responsibility for building engines and booster stages.

Now, 80 years to the week since the last V-2 launch of World War II, Germany again has a homegrown liquid-fueled rocket on the launch pad. This time, it’s for a much different purpose.

As a first step, Isar and other companies in Europe are vying to inject competition with Arianespace into the European launch market. This will begin with small government-funded satellites that otherwise would have likely launched on rideshare flights by SpaceX or Arianespace.

In 2022, the German space agency (known as DLR) announced the selection of research and demo payloads slated to fly on Spectrum’s second launch. The Norwegian Space Agency revealed a contract earlier this month for Isar to launch a pair of satellites for the country’s Arctic Ocean Surveillance program.

Within the next few days, ESA is expected to release an “invitation to tender” for European industry to submit proposals for the European Launcher Challenge. This summer, ESA will select winners from Europe’s crop of launch startups to demonstrate that their rockets can deliver the agency’s scientific satellites to orbit. This is the first time ESA has experimented with a fully commercial business model, with launch service contracts to private companies. Isar is a leading contender to win the launcher challenge, alongside other European companies like Rocket Factory Augsburg, HyImpulse, MaiaSpace, and others.

Previously, ESA has provided billions of euros to Europe’s big incumbent rocket companies for development of new generations of Ariane rockets. Now, ESA wants to follow the path of NASA, which has used fixed-price service contracts to foster commercial cargo and crew transportation to the International Space Station, and most recently, privately owned landers on the Moon.

“Whatever the outcome, Isar Aerospace’s upcoming Spectrum launch will be historic: the first commercial orbital launch from mainland Europe,” Josef Aschbacher, ESA’s director general, posted on X. “The support and co-funding the European Space Agency has given Isar Aerospace and other launch service provider startups is paying off for increased autonomy in Europe. Wishing Isar Aerospace a great launch day with fair weather and most importantly, that the data they receive from the liftoff will speed next iterations of their rockets.”

Toni Tolker-Nielsen, ESA’s acting director of space transportation, called this moment a “paradigm shift” for Europe’s launcher strategy.

“In the last 40 years, we have had these ESA-developed launchers that we have been relying on,” Tolker-Nielsen told Ars in an interview. “So we started with Ariane 1 up to Ariane 6. Vega C came onboard. And it’s been working like that for the last 40 years. Now, we are moving into in the ’30s, and the next decades, to have privately developed launchers.”

Isar Aerospace’s first Spectrum rocket will lift off from the remote Andøya Spaceport in Norway, a gorgeous location that might be the world’s most picturesque launch site. Nestled on the western coast of an island inside the Arctic Circle, Andøya offers an open path over the Norwegian Sea for rockets to fly north, where they can place satellites into polar orbit.

The spaceport is operated by Andøya Space, a company 90 percent owned by the Norwegian government through the Ministry for Trade, Industry, and Fisheries. Until now, Andøya Spaceport has been used for launches of suborbital sounding rockets.

The geography of Norway permits northerly launches from Andøya Spaceport. Credit: Andøya Space

No better time than now

Isar’s first launch comes amid an abrupt turn in European strategic policy as the continent’s leaders struggle with how to respond to moves by President Donald Trump in his first two months in office. In recent weeks, the Trump administration put European leaders on their heels with sudden policy reversals and unpredictable statements on Ukraine, NATO, and the US government’s long-term backstopping of European security.

Friedrich Merz, set to become Germany’s next chancellor, said last month that Europe should strive to “achieve independence” from the United States. “It is clear that the Americans, at least this part of the Americans, this administration, are largely indifferent to the fate of Europe.”

Last week, Merz shepherded a bill through German parliament to amend the country’s constitution, allowing for a significant increase in German defense spending. The incoming chancellor said the change is “nothing less than the first major step towards a new European defense community.”

The erosion of Europe’s trust in the Trump administration prompted rumors that the US government could trigger a “kill switch” to turn off combat capabilities of F-35 fighter jets sold to US allies. This would have previously seemed like a far-fetched conspiracy theory, but some European officials felt compelled to make statements denying the kill switch reports. Still, the recent turbulence in trans-Atlantic relations has some US allies rethinking their plans to buy more US-made fighter jets and weapons systems.

“Reliable and predictable orders should go to European manufacturers whenever possible,” Merz said.

Robert Habeck, Germany’s vice chancellor and economics minister, tours Isar Aerospace in Ottobrunn, Germany, in 2023. Credit: Marijan Murat/picture alliance via Getty Images

This uncertainty extends to space, where it is most apparent in the launch industry. SpaceX, founded and led by Trump ally Elon Musk, dominates the global commercial launch business. European governments have repeatedly turned to SpaceX to launch multiple defense and scientific satellites over the last several years, while Europe encountered delays with its homegrown Ariane 6 and Vega rockets.

Until 2022, Europe and Russia jointly operated Soyuz rockets from the Guiana Space Center in South America to deploy government and commercial payloads to orbit. The partnership ended with Russia’s invasion of Ukraine.

Europe’s flagship Ariane 5 rocket retired in 2023, a year before its replacement—the Ariane 6—debuted on its first test flight from the Guiana Space Center. The first operational flight of the Ariane 6 delivered a French military spy satellite to orbit March 6. The smaller Vega C rocket successfully launched in December, two years after officials grounded the vehicle due to an in-flight failure.

ESA funded development of the Ariane 6 and Vega C in partnership with ArianeGroup, a joint venture between Airbus and Safran, and the Italian defense contractor Avio.

For the moment, Europe’s launcher program is back on track to provide autonomous access to space, a capability European officials consider a strategic imperative. Philippe Baptiste, France’s minister for research and higher education, said after the Ariane 6 flight earlier this month that the launch was “proof” of European space sovereignty.

“The return of Donald Trump to the White House, with Elon Musk at his side, already has significant consequences on our research partnerships, on our commercial partnerships,” Baptiste said in his remarkably pointed prepared remarks. “If we want to maintain our independence, ensure our security, and preserve our sovereignty, we must equip ourselves with the means for strategic autonomy, and space is an essential part of this.”

The problem? Ariane 6 and Vega C are costly, lack a path to reusability, and aren’t geared to match SpaceX’s blistering launch cadence. If Europe wants autonomous access to space, European taxpayers will have to pay a premium. Isar’s Spectrum also isn’t reusable, but European officials hope competition from new startups will produce fresh launch options, and perhaps stimulate an inspired response from Europe’s entrenched launch companies.

“In today’s geopolitical climate, our first test flight is about much more than a rocket launch: Space is one of the most critical platforms for our security, resilience, and technological advancement,” Metzler said. “In the next days, Isar Aerospace will lay the foundations to regain much needed independent and competitive access to space from Europe.”

Tolker-Nielsen, in charge of ESA’s space transportation division, said this is the first of many steps for Europe to develop a thriving commercial launch sector.

“This launch is a milestone, which is very important,” he said. “It’s the first conclusion of all this work, so I will be looking carefully on that. I cross my fingers that it goes well.”

Photo of Stephen Clark

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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Here’s the secret to how Firefly was able to nail its first lunar landing

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Darkness fell over Mare Crisium, ending a daily dose of dazzling images from the Moon.

Firefly’s X-band communications antenna (left) is marked with the logos of NASA, Firefly Aerospace, and the US flag. Credit: Firefly Aerospace

Firefly Aerospace’s Blue Ghost science station accomplished a lot on the Moon in the last two weeks. Among other things, its instruments drilled into the Moon’s surface, tested an extraterrestrial vacuum cleaner, and showed that future missions could use GPS navigation signals to navigate on the lunar surface.

These are all important achievements, gathering data that could shed light on the Moon’s formation and evolution, demonstrating new ways of collecting samples on other planets, and revealing the remarkable reach of the US military’s GPS satellite network.

But the pièce de résistance for Firefly’s first Moon mission might be the daily dose of imagery that streamed down from the Blue Ghost spacecraft. A suite of cameras recorded the cloud of dust created as the lander’s engine plume blew away the uppermost layer of lunar soil as it touched down March 2 in Mare Crisium, or the Sea of Crises. This location is in a flat basin situated on the upper right quadrant of the side of the Moon always facing the Earth.

Other images from Firefly’s lander showed the craft shooting tethered electrodes out onto the lunar surface, like a baseball outfielder trying to throw out a runner at home plate. Firefly’s cameras also showed the lander’s drill as it began to probe several meters into the Moon’s crust.

The first Blue Ghost mission is part of NASA’s Commercial Lunar Payload Services (CLPS) program established in 2018 to partner with US companies for cargo transportation to the Moon. Firefly is one of 13 companies eligible to compete for CLPS missions, precursors to future astronaut landings on the Moon under NASA’s Artemis program.

Now, Firefly finds itself at the top of the pack of firms seeking to gain a foothold at the Moon.

Blue Ghost landed just after sunrise at Mare Crisium, an event shown in the blow video captured with four cameras mounted on the lander to observe how its engine plume interacted with loose soil on the lunar surface. The information will be useful as NASA plans to land astronauts on the Moon in the coming years.

“Although the data is still preliminary, the 3,000-plus images we captured appear to contain exactly the type of information we were hoping for in order to better understand plume-surface interaction and learn how to accurately model the phenomenon based on the number, size, thrust and configuration of the engines,” said Rob Maddock, project manager for NASA’s SCALPSS experiment.

One of the vehicle’s payloads, named Lunar PlanetVac, dropped from the bottom of the lander and released a blast of gas to blow fine-grained lunar soil into a collection chamber for sieving. Provided by a company named Honeybee Robotics, this device could be used as a cheaper alternative to other sample collection methods, such as robotic arms, on future planetary science missions.

Just over 4 days on the Moon’s surface and #BlueGhost is checking off several science milestones! 8 out of 10 @NASA payloads, including LPV, EDS, NGLR, RAC, RadPC, LuGRE, LISTER, and SCALPSS, have already met their mission objectives with more to come. Lunar PlanetVac for example… pic.twitter.com/i7pOg70qYi

— Firefly Aerospace (@Firefly_Space) March 6, 2025

After two weeks of pioneering work, the Blue Ghost lander fell into darkness Sunday when the Sun sank below the horizon, robbing it of solar power and plunging temperatures below minus 200° Fahrenheit (148°Celcius). The spacecraft’s internal electronics likely won’t survive the two-week-long lunar night.

A precoded message from Blue Ghost marked the moment Sunday afternoon, signaling a transition to “monument mode.”

“Goodnight friends,” Blue Ghost radioed Firefly’s mission control center in Central Texas. “After exchanging our final bits of data, I will hold vigil in this spot in Mare Crisium to watch humanity’s continued journey to the stars. Here, I will outlast your mightiest rivers, your tallest mountains, and perhaps even your species as we know it.”

Blue Ghost’s legacy is now secure as the first fully successful commercial lunar lander. Its two-week mission was perhaps just as remarkable for what didn’t happen as it was for what did. The spacecraft encountered no significant problems on its transit to the Moon, its final descent, or during surface operations.

One of the few surprises of the mission was that the lander got hotter a little sooner than engineers predicted. At lunar noon, when the Sun is highest in the sky, temperatures can soar to 250° F (121° C).

“We started noticing that the lander was getting hotter than we expected, and we couldn’t really figure out why, because it was a little early for lunar noon,” Ray Allensworth, Firefly’s spacecraft program director, told Ars. “So we went back and started evaluating and realized that the crater that we landed next to was actually reflecting a really significant amount of heat. So we went back and we updated our thermal models, incorporated that crater into it, and it matched the environment we were seeing.”

Early Friday morning, the Blue Ghost spacecraft captured the first high-definition views of a total solar eclipse from the Moon. At the same time that skywatchers on Earth were looking up to see the Moon turn an eerie blood red, Firefly’s cameras were looking back at us as the Sun, Earth, and Moon moved into alignment and darkness fell at Mare Crisium.

Diamond ring

The eclipse was a bonus for Firefly. It just happened to occur during the spacecraft’s two-week mission at the Moon, the timing of which was dependent on numerous factors, ranging from the readiness of the Blue Ghost lander to weather conditions at its launch site in Florida.

“We weren’t actually planning to have an eclipse until a few months prior to our launch, when we started evaluating and realizing that an eclipse was happening right before lunar sunset,” Allensworth said. “So luckily, that gave us some time to work some procedures and basically set up what we wanted to take images of, what cameras we wanted to run.”

The extra work paid off. Firefly released an image Friday showing a glint of sunlight reaching around the curvature of the Earth, some 250,000 miles (402,000 kilometers) away. This phenomenon is known as the “diamond ring” and is a subject of pursuit for many eclipse chasers, who travel to far-flung locations for a few minutes of totality.

A “diamond ring” appears around the edge of the Earth, a quarter-million miles from Firefly’s science station on the lunar surface. Credit: Firefly Aerospace

The Blue Ghost spacecraft, named for a species of firefly, took eclipse chasing to new heights. Not only did it see the Earth block the Sun from an unexplored location on the Moon, but the lander fell into shadow for 2 hours and 16 minutes, about 18 times longer than the longest possible total solar eclipse on the Earth.

The eclipse presented challenges for Firefly’s engineers monitoring the mission from Texas. Temperatures at the spacecraft’s airless landing site plummeted as darkness took hold, creating what Allensworth called a “pseudo lunar night.”

“We were seeing those temperatures rapidly start dropping,” Allensworth said Friday. “So it was kind of an interesting game of to play with the hardware to keep everything in its temperature bounds but also still powered on and capturing data.”

Shaping up

Using navigation cameras and autonomous guidance algorithms, the spacecraft detected potential hazards at its original landing site and diverted to a safer location more than 230 feet (70 meters) away, according to Allensworth.

Finally happy with the terrain below, Blue Ghost’s computer sent the command for landing, powered by eight thrusters pulsing in rapid succession to control the craft’s descent rate. The landing was gentler than engineers anticipated, coming down at less than 2.2 mph (1 meter per second).

According to preliminary data, Blue Ghost settled in a location just outside of its 330-foot (100-meter) target landing ellipse, probably due to the last-minute divert maneuvers ordered by the vehicle’s hazard avoidance system.

“It looks like we’re slightly out of it, but it’s really OK,” Allensworth said. “NASA has told us, more than anything, that they want us to make sure we land softly… They seem comfortable where we’re at.”

Firefly originally intended to develop a spacecraft based on the design of Israel’s Beresheet lander, which was the first private mission to attempt a landing on the Moon in 2019. The spacecraft crashed, and Firefly opted to go with a new design more responsive to NASA’s requirements.

“Managing the center of gravity and the mass of the lander is most significant, and that informs a lot of how it physically takes shape,” Allensworth said. “So we did want to keep certain things in mind about that, and that really is what led to the lander being wider, shorter, broader. We have these bigger foot pads on there. All of those things were very intentional to help make the lander as stable and predictable as possible.”

Firefly’s Blue Ghost lander, seen here inside the company’s spacecraft manufacturing facility in Cedar Park, Texas. Credit: Stephen Clark/Ars Technica

These design choices must happen early in a spacecraft’s development. Landing on the Moon comes with numerous complications, including an often-uneven surface and the lack of an atmosphere, rendering parachutes useless. A lander targeting the Moon must navigate itself to a safe landing site without input from the ground.

The Odysseus, or Nova-C, lander built by Intuitive Machines snapped one of its legs and fell over on its side after arriving on the Moon last year. The altimeter on Odysseus failed, causing it to come down with too much horizontal velocity. The lander returned some scientific data from the Moon and qualified as a partial success. The spacecraft couldn’t recharge its batteries after landing on its side, and Odysseus shut down a few days after landing.

The second mission by Intuitive Machines reached the Moon on March 6, but it suffered the same fate. After tipping over, the Athena lander succumbed to low power within hours, preventing it from accomplishing its science mission for NASA.

The landers designed by Intuitive Machines are tall and skinny, towering more than 14 feet (4.3 meters) tall with a width of about 5.2 feet (1.6 meters). The Blue Ghost vehicle is short and squatty in shape—about 6.6 feet tall and 11.5 feet wide (2-by-3.5 meters). Firefly’s approach requires fewer landing legs than Intuitive Machines—four instead of six.

Steve Altemus, co-founder and CEO of Intuitive Machines, defended the design of his company’s lander in a press briefing after the second lunar landing tip-over earlier this month. The Nova-C lander isn’t too top-heavy for a safe landing because most of its cargo attaches to the bottom of the spacecraft, and for now, Altemus said Intuitive Machines is not considering a redesign.

Intuitive Machines stacked its two fuel and oxidizer tanks on top of each other, resulting in a taller vehicle. The Nova-C vehicle uses super-cold methane and liquid oxygen propellants, enabling a fast journey to the Moon over just a few days. The four propellant tanks on Blue Ghost are arranged in a diagonal configuration, with two containing hydrazine fuel and two holding an oxidizer called nitrogen tetroxide. Firefly’s Blue Ghost took about six weeks to travel from launch until landing.

The design trade-off means Firefly’s lander is heavier, with four tanks instead of two, according to Will Coogan, Blue Ghost’s chief engineer at Firefly. By going with a stockier lander design, Firefly needed to install four tanks because the spacecraft’s fuel and oxidizer have different densities. If Firefly went with just two tanks side-by-side, the spacecraft’s center of mass would change continually as it burns propellant during the final descent to the Moon, creating an unnecessary problem for the lander’s guidance, navigation, and control system to overcome.

“You want to avoid that,” Coogan told Ars before Blue Ghost’s launch. “What you can do is you can either get four tanks and have fuel and oxidizer at diagonal angles, and then you’re always centered, or you can stay with two tanks, and you can stack them.”

A camera on Firefly’s Blue Ghost lander captured a view of its shadow after touching down on the Moon just after sunrise on March 2. Earth looms over the horizon. Credit: Firefly Aerospace

The four landing legs on the Blue Ghost vehicle have shock-absorbing feet, with bowl-shaped pads able to bend if the lander comes down on a rock or a slope.

“If we did come in a little bit faster, we needed the legs to be able to take that, so we tested the legs really significantly on the ground,” Allensworth said. “We basically loaded them up on a makeshift weight bench at different angles and slammed it into the ground, slammed it into concrete, slammed it into regular simulant rocks, boulders, at different angles to really characterize what the legs could do.

“It’s actually really funny, because one of the edge cases that we didn’t test is if we came down very lightly, with almost no acceleration,” she said. “And that was the case that the lander landed in. I was joking with our structural engineer that he wasted all his time.”

Proof positive

Firefly delivered 10 NASA-sponsored science and technology demonstration experiments to the lunar surface, operating under contract with NASA’s CLPS program. CLPS builds on the commercial, service-based business model of NASA’s commercial cargo and crew program for transportation to the International Space Station.

NASA officials knew this approach was risky. The last landing on the Moon by a US spacecraft was the last Apollo mission in 1972, and most of the companies involved in CLPS are less than 20 years old, with little experience in deep space missions.

A Pittsburgh company named Astrobotic failed to reach the Moon on its first attempt in January 2024. The next month, Houston-based Intuitive Machines landed its Nova-C spacecraft on the lunar surface, but it tipped over after one of its legs snapped at the moment of touchdown.

Firefly, based in Cedar Park, Texas, was the third company to try a landing. Originally established as a rocket developer, Firefly signed up to be a CLPS provider and won a $101 million contract with NASA in 2021 to transport a government-funded science package to the Moon. NASA’s instruments aboard the Blue Ghost lander cost about $44 million.

The successful landing of Firefly’s Blue Ghost earlier this month buoyed NASA’s expectations for CLPS. “Overall, it’s been a fabulous, wonderful proof positive that the CLPS model does work,” said Brad Bailey, assistant deputy associate administrator for exploration in NASA’s Science Mission Directorate.

NASA has seven more CLPS missions on contract. The next could launch as soon as August when Blue Origin plans to send its first Blue Moon lander to the Moon. NASA has booked two more Blue Ghost missions with Firefly and two more landing attempts with Intuitive Machines, plus one more flight by Astrobotic and one lander from Draper Laboratory.

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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.

Here’s the secret to how Firefly was able to nail its first lunar landing Read More »

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The Starship program hits another speed bump with second consecutive failure

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The flight flight plan going into Thursday’s mission called for sending Starship on a journey halfway around the world from Texas, culminating in a controlled reentry over the Indian Ocean before splashing down northwest of Australia.

The test flight was supposed to be a do-over of the previous Starship flight on January 16, when the rocket’s upper stage—itself known as Starship, or ship—succumbed to fires fueled by leaking propellants in its engine bay. Engineers determined the most likely cause of the propellant leak was a harmonic response several times stronger than predicted, suggesting the vibrations during the ship’s climb into space were in resonance with the vehicle’s natural frequency. This would have intensified the vibrations beyond the levels engineers expected.

The Super Heavy booster returned to Starbase in Texas to be caught back at the launch pad. Credit: SpaceX

Engineers test-fired the Starship vehicle for this week’s test flight earlier this month, validating changes to the ship’s fuel feed lines leading its six Raptor engines, adjustments to propellant temperatures, and a new operating thrust.

But engineers missed something. On Thursday, the Raptor engines began shutting down on Starship about eight minutes into the flight, and the rocket started tumbling 90 miles (146 kilometers) over the southeastern Gulf of Mexico. SpaceX ground controllers lost all contact with the rocket about nine-and-a-half minutes after liftoff.

“Prior to the end of the ascent burn, an energetic event in the aft portion of Starship resulted in the loss of several Raptor engines,” SpaceX wrote on X. “This in turn led to a loss of attitude control and ultimately a loss of communications with Starship.”

Just like in January, residents and tourists across the Florida peninsula, the Bahamas, and the Turks and Caicos Islands shared videos of fiery debris trails appearing in the twilight sky. Air traffic controllers diverted or delayed dozens of commercial airline flights flying through the debris footprint, just as they did in response to the January incident.

There were no immediate reports Thursday of any Starship wreckage falling over populated areas. In January, residents in the Turks and Caicos Islands recovered small debris fragments, including one piece that caused minor damage when it struck a car. The debris field from Thursday’s failed flight appeared to fall west of the areas where debris fell after Starship Flight 7.

A spokesperson for the Federal Aviation Administration said the regulatory agency will require SpaceX perform an investigation into Thursday’s Starship failure.

The Starship program hits another speed bump with second consecutive failure Read More »

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SpaceX readies a redo of last month’s ill-fated Starship test flight

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The FAA has cleared SpaceX to launch Starship’s eighth test flight as soon as Monday.

Ship 34, destined to launch on the next Starship test flight, test-fired its engines in South Texas on February 12. Credit: SpaceX

SpaceX plans to launch the eighth full-scale test flight of its enormous Starship rocket as soon as Monday after receiving regulatory approval from the Federal Aviation Administration.

The test flight will be a repeat of what SpaceX hoped to achieve on the previous Starship launch in January, when the rocket broke apart and showered debris over the Atlantic Ocean and Turks and Caicos Islands. The accident prevented SpaceX from completing many of the flight’s goals, such as testing Starship’s satellite deployment mechanism and new types of heat shield material.

Those things are high on the to-do list for Flight 8, set to lift off at 5: 30 pm CST (6: 30 pm EST; 23: 30 UTC) Monday from SpaceX’s Starbase launch facility on the Texas Gulf Coast. Over the weekend, SpaceX plans to mount the rocket’s Starship upper stage atop the Super Heavy booster already in position on the launch pad.

The fully stacked rocket will tower 404 feet (123.1 meters) tall. Like the test flight on January 16, this launch will use a second-generation, Block 2, version of Starship with larger propellant tanks with 25 percent more volume than previous vehicle iterations. The payload compartment near the ship’s top is somewhat smaller than the payload bay on Block 1 Starships.

This block upgrade moves SpaceX closer to attempting more challenging things with Starship, such as returning the ship, or upper stage, back to the launch site from orbit. It will be caught with the launch tower at Starbase, just like SpaceX accomplished last year with the Super Heavy booster. Officials also want to bring Starship into service to launch Starlink Internet satellites and demonstrate in-orbit refueling, an enabling capability for future Starship flights to the Moon and Mars.

NASA has contracts with SpaceX worth more than $4 billion to develop a Starship spinoff as a human-rated Moon lander for the Artemis lunar program. The mega-rocket is central to Elon Musk’s ambition to create a human settlement on Mars.

Another shot at glory

Other changes introduced on Starship Version 2 include redesigned forward flaps, which are smaller and closer to the tip of the ship’s nose to better protect them from the scorching heat of reentry. Technicians also removed some of the ship’s thermal protection tiles to “stress-test vulnerable areas” of the vehicle during descent. SpaceX is experimenting with metallic tile designs, including one with active cooling, that might be less brittle than the ceramic tiles used elsewhere on the ship.

Engineers also installed rudimentary catch fittings on the ship to evaluate how they respond to the heat of reentry, when temperatures outside the vehicle climb to 2,600° Fahrenheit (1,430° Celsius). Read more about Starship Version in this previous story from Ars.

It will take about 1 hour and 6 minutes for Starship to fly from the launch pad in South Texas to a splashdown zone in the Indian Ocean northwest of Australia. The rocket’s Super Heavy booster will fire 33 methane-fueled Raptor engines for two-and-a-half minutes as it climbs east from the Texas coastline, then jettison from the Starship upper stage and reverse course to return to Starbase for another catch with mechanical arms on the launch tower.

Meanwhile, Starship will ignite six Raptor engines and accelerate to a speed just shy of orbital velocity, putting the ship on a trajectory to reenter the atmosphere after soaring about halfway around the world.

Booster 15 perched on the launch mount at Starbase, Texas. Credit: SpaceX

If you’ve watched the last few Starship flights, this profile probably sounds familiar. SpaceX achieved successful splashdowns after three Starship test flights last year, and hoped to do it again before the premature end of Flight 7 in January. Instead, the accident was the most significant technical setback for the Starship program since the first full-scale test flight in 2023, which damaged the launch pad before the rocket spun out of control in the upper atmosphere.

Now, SpaceX hopes to get back on track. At the end of last year, company officials said they targeted as many as 25 Starship flights in 2025. Two months in, SpaceX is about to launch its second Starship of the year.

The breakup of Starship last month prevented SpaceX from evaluating the performance of the ship’s Pez-like satellite deployer and upgraded heat shield. Engineers are eager to see how those perform on Monday’s flight. Once in space, the ship will release four simulators replicating the approximate size and mass of SpaceX’s next-generation Starlink Internet satellites. They will follow the same suborbital trajectory as Starship and reenter the atmosphere over the Indian Ocean.

That will be followed by a restart of a Raptor engine on Starship in space, repeating a feat first achieved on Flight 6 in November. Officials want to ensure Raptor engines can reignite reliably in space before actually launching Starship into a stable orbit, where the ship must burn an engine to guide itself back into the atmosphere for a controlled reentry. With another suborbital flight on tap Monday, the engine relight is purely a confidence-building demonstration and not critical for a safe return to Earth.

The flight plan for Starship’s next launch includes another attempt to catch the Super Heavy booster with the launch tower, a satellite deployment demonstration, and an important test of its heat shield. Credit: SpaceX

Then, about 47 minutes into the mission, Starship will plunge back into the atmosphere. If this flight is like the previous few, expect to see live high-definition video streaming back from Starship as super-heated plasma envelops the vehicle in a cloak of pink and orange. Finally, air resistance will slow the ship below the speed of sound, and just 20 seconds before reaching the ocean, the rocket will flip to a vertical orientation and reignite its Raptor engines again to brake for splashdown.

This is where SpaceX hopes Starship Version 2 will shine. Although three Starships have made it to the ocean intact, the scorching temperatures of reentry damaged parts of their heat shields and flaps. That won’t do for SpaceX’s vision of rapidly reusing Starship with minimal or no refurbishment. Heat shield repairs slowed down the turnaround time between NASA’s space shuttle missions, and officials hope the upgraded heat shield on Starship Version 2 will decrease the downtime.

FAA’s green light

The FAA confirmed Friday it issued a launch license earlier this week for Starship Flight 8.

“The FAA determined SpaceX met all safety, environmental and other licensing requirements for the suborbital test flight,” an FAA spokesperson said in a statement.

The federal regulator oversaw a SpaceX-led investigation into the failure of Flight 7. SpaceX said NASA, the National Transportation Safety Board, and the US Space Force also participated in the investigation, which determined that propellant leaks and fires in an aft compartment, or attic, of Starship led to the shutdown of its engines and eventual breakup.

Engineers concluded the leaks were most likely caused by a harmonic response several times stronger than predicted, suggesting the vibrations during the ship’s climb into space were in resonance with the vehicle’s natural frequency. This would have intensified the vibrations beyond the levels engineers expected from ground testing.

Earlier this month, SpaceX completed an extended-duration static fire of the next Starship upper stage to test hardware modifications at multiple engine thrust levels. According to SpaceX, findings from the static fire informed changes to the fuel feed lines to Starship’s Raptor engines, adjustments to propellant temperatures, and a new operating thrust for the next test flight.

“To address flammability potential in the attic section on Starship, additional vents and a new purge system utilizing gaseous nitrogen are being added to the current generation of ships to make the area more robust to propellant leakage,” SpaceX said. “Future upgrades to Starship will introduce the Raptor 3 engine, reducing the attic volume and eliminating the majority of joints that can leak into this volume.”

FAA officials were apparently satisfied with all of this. The agency’s commercial spaceflight division completed a “comprehensive safety review” and determined Starship can return to flight operations while the investigation into the Flight 7 failure remains open. This isn’t new. The FAA also used this safety determination to expedite SpaceX launch license approvals last year as officials investigated mishaps on Starship and Falcon 9 rocket flights.

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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.

SpaceX readies a redo of last month’s ill-fated Starship test flight Read More »

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German startup to attempt the first orbital launch from Western Europe

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The nine-engine first stage for Isar Aerospace’s Spectrum rocket lights up on the launch pad on February 14. Credit: Isar Aerospace

Isar builds almost all of its rockets in-house, including Spectrum’s Aquila engines.

“The flight will be the first integrated test of tens of thousands of components,” said Josef Fleischmann, Isar’s co-founder and chief technical officer. “Regardless of how far we get, this first test flight will hopefully generate an enormous amount of data and experience which we can apply to future missions.”

Isar is the first European startup to reach this point in development. “Reaching this milestone is a huge success in itself,” Meltzer said in a statement. “And while Spectrum is ready for its first test flight, launch vehicles for flights two and three are already in production.”

Another Bavarian company, Rocket Factory Augsburg, destroyed its first booster during a test-firing on its launch pad in Scotland last year, ceding the frontrunner mantle to Isar. RFA received its launch license from the UK government last month and aims to deliver its second booster to the launch site for hot-fire testing and a launch attempt later this year.

There’s an appetite within the European launch industry for new companies to compete with Arianespace, the continent’s sole operational launch services provider backed by substantial government support. Delays in developing the Ariane 6 rocket and several failures of Europe’s smaller Vega launcher forced European satellite operators to look abroad, primarily to SpaceX, to launch their payloads.

The European Space Agency is organizing the European Launcher Challenge, a competition that will set aside some of the agency’s satellites for launch opportunities with a new crop of startups. Isar is one of the top contenders in the competition to win money from ESA. The agency expects to award funding to multiple European launch providers after releasing a final solicitation later this year.

The first flight of the Spectrum rocket will attempt to reach a polar orbit, flying north from Andøya Spaceport. Located at approximately 69 degrees north latitude, the spaceport is poised to become the world’s northernmost orbital launch site.

Because the inaugural launch of the Spectrum rocket is a test flight, it won’t carry any customer payloads, an Isar spokesperson told Ars.

German startup to attempt the first orbital launch from Western Europe Read More »

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Rocket Report: Another hiccup with SpaceX upper stage; Japan’s H3 starts strong

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Vast’s schedule for deploying a mini-space station in low-Earth orbit was always ambitious.

A stack of 21 Starlink Internet satellites arrives in orbit Tuesday following launch on a Falcon 9 rocket. Credit: SpaceX

Welcome to Edition 7.30 of the Rocket Report! The US government relies on SpaceX for a lot of missions. These include launching national security satellites, putting astronauts on the Moon, and global broadband communications. But there are hurdles—technical and, increasingly, political—on the road ahead. To put it generously, Elon Musk, without whom much of what SpaceX does wouldn’t be possible, is one of the most divisive figures in American life today.

Now, a Democratic lawmaker in Congress has introduced a bill that would end federal contracts for special government employees (like Musk), citing conflict-of-interest concerns. The bill will go nowhere with Republicans in control of Congress, but it is enough to make me pause and think. When the Trump era passes and a new administration takes the White House, how will they view Musk? Will there be an appetite to reduce the government’s reliance on SpaceX? To answer this question, you must first ask if the government will even have a choice. What if, as is the case in many areas today, there’s no viable replacement for the services offered by SpaceX?

As always, we welcome reader submissions. If you don’t want to miss an issue, please subscribe using the box below (the form will not appear on AMP-enabled versions of the site). Each report will include information on small-, medium-, and heavy-lift rockets as well as a quick look ahead at the next three launches on the calendar.

Blue Origin flight focuses on lunar research. For the first time, Jeff Bezos’ Blue Origin space venture has put its New Shepard suborbital rocket ship through a couple of minutes’ worth of Moon-level gravity, GeekWire reports. The uncrewed mission, known as NS-29, sent 30 research payloads on a 10-minute trip from Blue Origin’s Launch Site One in West Texas. For this trip, the crew capsule was spun up to 11 revolutions per minute, as opposed to the typical half-revolution per minute. The resulting centrifugal force was equivalent to one-sixth of Earth’s gravity, which is what would be felt on the Moon.

Gee, that’s cool … The experiments aboard Blue Origin’s space capsule examined how to process lunar soil to extract resources and how to manufacture solar cells on the Moon for Blue Origin’s Blue Alchemist project. Another investigated how moondust gets electrically charged and levitated when exposed to ultraviolet light. These types of experiments in partial gravity can be done on parabolic airplane flights, but those only provide a few seconds of the right conditions to simulate the Moon’s gravity. (submitted by EllPeaTea)

Orbex announces two-launch deal with D-Orbit. UK-based rocket builder Orbex announced Monday that it has signed a two-launch deal with Italian in-orbit logistics provider D-Orbit, European Spaceflight reports. The deal includes capacity aboard two launches on Orbex’s Prime rocket over the next three years. D-Orbit aggregates small payloads on rideshare missions (primarily on SpaceX rockets so far) and has an orbital transfer vehicle for ferrying satellites to different altitudes after separation from a launch vehicle. Orbex’s Prime rocket is sized for the small satellite industry, and the company aims to debut it later this year.

Thanks to fresh funding? … Orbex has provided only sparse updates on its progress toward launching the Prime rocket. What we do know is that Orbex suspended plans to develop a spaceport in Scotland to focus its resources on the Prime rocket itself. Despite little evidence of any significant accomplishments, Orbex last month secured a $25 million investment from the UK government. The timing of the launch agreement with D-Orbit begs the question of whether the UK government’s backing helped seal the deal. As Andrew Parsonson of European Spaceflight writes: “Is this a clear indication of how important strong institutional backing is for the growth of privately developed launch systems in Europe?” (submitted by EllPeaTea)

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Falcon 9’s upper stage misfires again. The second stage of a SpaceX Falcon 9 rocket remained in orbit following a launch Saturday from Vandenberg Space Force Base, California. The rocket successfully deployed a new batch of Starlink Internet satellites but was supposed to reignite its engine for a braking maneuver to head for a destructive reentry over the Pacific Ocean. While airspace warning notices from the FAA showed a reentry zone over the eastern Pacific Ocean, publicly available US military tracking continued to show the upper stage in orbit this week. Sources also told Ars that SpaceX delayed two Falcon 9 launches this week by a day to allow time for engineers to evaluate the problem.

3 in 6 months … This is the third time since last July that the Falcon 9’s upper stage has encountered a problem in flight. On one occasion, the upper stage failed to reach its targeted orbit, leading to the destruction of 20 Starlink satellites. Then, an upper stage misfired during a deorbit burn after an otherwise successful launch in September, causing debris to fall outside of the pre-approved danger area. After both events, the FAA briefly grounded the Falcon 9 rocket while SpaceX conducted an investigation. This time, an FAA spokesperson said the agency won’t require an investigation. “All flight events occurred within the scope of SpaceX’s licensed activities,” the spokesperson told Ars.

Vast tests hardware for commercial space station. Vast Space has started testing a qualification model of its first commercial space station but has pushed back the launch of that station into 2026, Space News reports. In an announcement Thursday, Vast said it completed a proof test of the primary structure of a test version of its Haven-1 space station habitat at a facility in Mojave, California. During the testing, Vast pumped up the pressure inside the structure to 1.8 times its normal level and conducted a leak test. “On the first try we passed that critical test,” Max Haot, chief executive of Vast, told Space News.

Not this year … It’s encouraging to see Vast making tangible progress in developing its commercial space station. The privately held company is one of several seeking to develop a commercial outpost in low-Earth orbit to replace the International Space Station after its scheduled retirement in 2030. NASA is providing funding to two industrial teams led by Blue Origin and Voyager Space, which are working on different space station concepts. But so far, Vast’s work has been funded primarily through private capital. The launch of the Haven-1 outpost, which Vast previously said could happen this year, is now scheduled no earlier than May 2026. The spacecraft will launch in one piece on a Falcon 9 rocket, and the first astronaut crew to visit Haven-1 could launch a month later. Haven-1 is a pathfinder for a larger commercial station called Haven-2, which Vast intends to propose to NASA. (submitted by EllPeaTea)

H3 deploys Japanese navigation satellite. Japan successfully launched a flagship H3 rocket Sunday and put into orbit a Quasi-Zenith Satellite (QZS), aiming to improve the accuracy of global positioning data for various applications, Kyodo News reports. After separation from the H3 rocket, the Michibiki 6 satellite will climb into geostationary orbit, where it will supplement navigation signals from GPS satellites to provide more accurate positioning data to users in Japan and surrounding regions, particularly in mountainous terrain and amid high-rise buildings in large cities. The new satellite joins a network of four QZS spacecraft launched by Japan beginning in 2010. Two more Quasi-Zenith Satellites are under construction, and Japan’s government is expected to begin development of an additional four regional navigation satellites this year.

A good start … After a failed inaugural flight in 2023, Japan’s new H3 rocket has reeled off four consecutive successful launches in less than a year. This may not sound like a lot, but the H3 has achieved its first four successful flights faster than any other rocket since 2000. SpaceX’s Falcon 9 rocket completed its first four successful flights in a little more than two years, and United Launch Alliance’s Atlas V logged its fourth flight in a similar timeframe. More than 14 months elapsed between the first and fourth successful flight of Rocket Lab’s Electron rocket. The H3 is an expendable rocket with no roadmap to reusability, so its service life and commercial potential are likely limited. But the rocket is shaping up to provide reliable access to space for Japan’s space agency and military, while some of its peers in Europe and the United States struggle to ramp up to a steady launch cadence. (submitted by EllPeaTea)

Europe really doesn’t like relying on Elon Musk. Europe’s space industry has struggled to keep up with SpaceX for a decade. The writing was on the wall when SpaceX landed a Falcon 9 booster for the first time. Now, European officials are wary of becoming too reliant on SpaceX, and there’s broad agreement on the continent that Europe should have the capability to launch its own satellites. In this way, access to space is a strategic imperative for Europe. The problem is, Europe’s new Ariane 6 rocket is just not competitive with SpaceX’s Falcon 9, and there’s no concrete plan to counter SpaceX’s dominance.

So here’s another terrible idea … Airbus, Europe’s largest aerospace contractor with a 50 percent stake in the Ariane 6 program, has enlisted Goldman Sachs for advice on how to forge a new European space and satellite company to better compete with SpaceX. France-based Thales and the Italian company Leonardo are part of the talks, with Bank of America also advising on the initiative. The idea that some bankers from Goldman and Bank of America will go into the guts of some of Europe’s largest institutional space companies and emerge with a lean, competitive entity seems far-fetched, to put it mildly, Ars reports.

The FAA still has some bite. We’re now three weeks removed from the most recent test flight of SpaceX’s Starship rocket, which ended with the failure of the vehicle’s upper stage in the final moments of its launch sequence. The accident rained debris over the Atlantic Ocean and the Turks and Caicos Islands. Unsurprisingly, the Federal Aviation Administration grounded Starship and ordered an investigation into the accident on the day after the launch. This decision came three days before the inauguration of President Donald Trump, who counts Musk as one of his top allies. So far, the FAA hasn’t budged on its requirement for an investigation, an agency spokesperson told Ars.

Debris field … In the hours and days after the failed Starship launch, residents and tourists in the Turks and Caicos shared images of debris scattered across the islands and washing up onshore. The good news is there were no injuries or reports of significant damage from the wreckage, but the FAA confirmed one report of minor damage to a vehicle located in South Caicos. It’s rare for debris from US rockets to fall over land during a launch. This would typically only happen if a launch failed at certain parts of the flight. Before now, there has been no public record of any claims of third-party property damage in the era of commercial spaceflight.

DOD eager to reap the benefits of Starship. A Defense Department unit is examining how SpaceX’s Starship vehicle could be used to support a broader architecture of in-space refueling, Space News reports. A senior adviser at the Defense Innovation Unit (DIU) said SpaceX approached the agency about how Starship’s refueling architecture could be used by the wider space industry. The plan for Starship is to transfer cryogenic propellants between tankers, depots, and ships heading to the Moon, Mars, or other deep-space destinations.

Few details available … US military officials have expressed interest in orbital refueling to support in-space mobility, where ground controllers have the freedom to maneuver national security satellites between different orbits without worrying about running out of propellant. For several years, Space Force commanders and Pentagon officials have touted the importance of in-space mobility, or dynamic space operations, in a new era of orbital warfare. However, there are reports that the Space Force has considered zeroing out a budget line item for space mobility in its upcoming fiscal year 2026 budget request.

A small step toward a fully reusable European rocket. The French space agency CNES has issued a call for proposals to develop a reusable upper stage for a heavy-lift rocket, European Spaceflight reports. This project is named DEMESURE (DEMonstration Étage SUpérieur REutilisable / Reusable Upper Stage Demonstration), and it marks one of Europe’s first steps in developing a fully reusable rocket. That’s all good, but there’s a sense of tentativeness in this announcement. The current call for proposals will only cover the earliest phases of development, such as a requirements evaluation, cost estimation review, and a feasibility meeting. A future call will deal with the design and fabrication of a “reduced scale” upper stage, followed by a demonstration phase with a test flight, recovery, and reuse of the vehicle. CNES’s vision is to field a fully reusable rocket as a successor to the single-use Ariane 6.

Toes in the water … If you’re looking for reasons to be skeptical about Project DEMESURE, look no further than the Themis program, which aims to demonstrate the recovery and reuse of a booster stage akin to SpaceX’s Falcon 9. Themis originated in a partnership between CNES and European industry in 2019, then ESA took over the project in 2020. Five years later, the Themis demonstrator still hasn’t flown. After some initial low-altitude hops, Themis is supposed to launch on a high-altitude test flight and maneuver through the entire flight profile of a reusable booster, from liftoff to a vertical propulsive landing. As we’ve seen with SpaceX, recovering an orbital-class upper stage is a lot harder than landing the booster. An optimistic view of this announcement is that anything worth doing requires taking a first step, and that’s what CNES has done here. (submitted by EllPeaTea)

Next three launches

Feb. 7: Falcon 9 | Starlink 12-9 | Cape Canaveral Space Force Station, Florida | 18: 52 UTC

Feb. 8: Electron | IoT 4 You and Me | Māhia Peninsula, New Zealand | 20: 43 UTC

Feb. 10: Falcon 9 | Starlink 11-10 | Vandenberg Space Force Base, California | 00: 03 UTC

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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.

Rocket Report: Another hiccup with SpaceX upper stage; Japan’s H3 starts strong Read More »

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It seems the FAA office overseeing SpaceX’s Starship probe still has some bite

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The political winds have shifted in Washington, but the FAA hasn’t yet changed its tune on Starship.

Liftoff of SpaceX’s seventh full-scale test flight of the Super Heavy/Starship launch vehicle on January 16. Credit: SpaceX

The seventh test flight of SpaceX’s gigantic Starship rocket came to a disappointing end a little more than two weeks ago. The in-flight failure of the rocket’s upper stage, or ship, about eight minutes after launch on January 16 rained debris over the Turks and Caicos Islands and the Atlantic Ocean.

Amateur videos recorded from land, sea, and air showed fiery debris trails streaming overhead at twilight, appearing like a fireworks display gone wrong. Within hours, posts on social media showed small pieces of debris recovered by residents and tourists in the Turks and Caicos. Most of these items were modest in size, and many appeared to be chunks of tiles from Starship’s heat shield.

Unsurprisingly, the Federal Aviation Administration grounded Starship and ordered an investigation into the accident on the day after the launch. This decision came three days before the inauguration of President Donald Trump. Elon Musk’s close relationship with Trump, coupled with the new administration’s appetite for cutting regulations and reducing the size of government, led some industry watchers to question whether Musk’s influence might change the FAA’s stance on SpaceX.

So far, the FAA hasn’t budged on its requirement for an investigation, an agency spokesperson told Ars on Friday. After a preliminary assessment of flight data, SpaceX officials said a fire appeared to develop in the aft section of the ship before it broke apart and fell to Earth.

“The FAA has directed SpaceX to lead an investigation of the Starship Super Heavy Flight 7 mishap with FAA oversight,” the spokesperson said. “Based on the investigation findings for root cause and corrective actions, the FAA may require a company to modify its license.”

This is much the same language the FAA used two weeks ago, when it first ordered the investigation.

Damage report

The FAA’s Office of Commercial Space Transportation is charged with ensuring commercial space launches and reentries don’t endanger the public, and requires launch operators obtain liability insurance or demonstrate financial ability to cover any third-party property damages.

For each Starship launch, the FAA requires SpaceX maintain liability insurance policies worth at least $500 million for such claims. It’s rare for debris from US rockets to fall over land during a launch. This would typically only happen if a launch failed at certain parts of the flight. And there’s no public record of any claims of third-party property damage in the era of commercial spaceflight. Under federal law, the US government would pay for damages to a much higher amount if any claims exceeded a launch company’s insurance policies.

Here’s a piece of Starship 33 @SpaceX @elonmusk found in Turks and Caicos! 🚀🏝️ pic.twitter.com/HPZDCqA9MV

— @maximzavet (@MaximZavet) January 17, 2025

The good news is there were no injuries or reports of significant damage from the wreckage that fell over the Turks and Caicos. “The FAA confirmed one report of minor damage to a vehicle located in South Caicos,” an FAA spokesperson told Ars on Friday. “To date, there are no other reports of damage.”

It’s not clear if the vehicle owner in South Caicos will file a claim against SpaceX for the damage. It would the first time someone makes such a claim related to an accident with a commercial rocket overseen by the FAA. Last year, a Florida homeowner submitted a claim to NASA for damage to his house from a piece of debris that fell from the International Space Station.

Nevertheless, the Turks and Caicos government said local officials met with representatives from SpaceX and the UK Air Accident Investigations Branch on January 25 to develop a recovery plan for debris that fell on the islands, which are a British Overseas Territory.

A prickly relationship

Musk often bristled at the FAA last year, especially after regulators proposed fines of more than $600,000 alleging that SpaceX violated terms of its launch licenses during two Falcon 9 missions. The alleged violations involved the relocation of a propellant farm at one of SpaceX’s launch pads in Florida, and the use of a new launch control center without FAA approval.

In a post on X, Musk said the FAA was conducting “lawfare” against his company. “SpaceX will be filing suit against the FAA for regulatory overreach,” Musk wrote.

There was no such lawsuit, and the issue may now be moot. Sean Duffy, Trump’s new secretary of transportation, vowed to review the FAA fines during his confirmation hearing in the Senate. It is rare for the FAA to fine launch companies, and the fines last year made up the largest civil penalty ever imposed by the FAA’s commercial spaceflight division.

SpaceX also criticized delays in licensing Starship test flights last year. The FAA cited environmental issues and concerns about the extent of the sonic boom from Starship’s 23-story-tall Super Heavy booster returning to its launch pad in South Texas. SpaceX successfully caught the returning first stage booster at the launch pad for the first time in October, and repeated the feat after the January 16 test flight.

What separates the FAA’s ongoing oversight of Starship’s recent launch failure from these previous regulatory squabbles is that debris fell over populated areas. This would appear to be directly in line with the FAA’s responsibility for public safety.

During last month’s test flight, Starship did not deviate from its planned ground track, which took the rocket over the Gulf of Mexico, the waters between Florida and Cuba, and then the Atlantic Ocean. But the debris field extended beyond the standard airspace closure for the launch. After the accident, FAA air traffic controllers cleared additional airspace over the debris zone for more than an hour, rerouting, diverting, and delaying dozens of commercial aircraft.

These actions followed pre-established protocols. However, it highlighted the small but non-zero risk of rocket debris falling to Earth after a launch failure. “The potential for a bad day downrange just got real,” Lori Garver, a former NASA deputy administrator, posted on X.

Public safety is not sole mandate of the FAA’s commercial space office. It is also chartered to “encourage, facilitate, and promote commercial space launches and reentries by the private sector,” according to an FAA website. There’s a balance to strike.

Lawmakers last year urged the FAA to speed up its launch approvals, primarily because Starship is central to strategic national objectives. NASA has contracts with SpaceX to develop a variant of Starship to land astronauts on the Moon, and Starship’s unmatched ability to deliver more than 100 tons of cargo to low-Earth orbit is attractive to the Pentagon.

While Musk criticized the FAA in 2024, SpaceX officials in 2023 took a different tone, calling for Congress to increase the budget for the FAA’s Office of Commercial Spaceflight and for the regulator to double the space division’s workforce. This change, SpaceX officials argued, would allow the FAA to more rapidly assess and approve a fast-growing number of commercial launch and reentry applications.

In September, SpaceX released a statement accusing the former administrator of the FAA, Michael Whitaker, of making inaccurate statements about SpaceX to a congressional subcommittee. In a different post on X, Musk directly called for Whitaker’s resignation.

He needs to resign https://t.co/pG8htfTYHb

— Elon Musk (@elonmusk) September 25, 2024

That’s exactly what happened. Whitaker, who took over the FAA’s top job in 2023 under the Biden administration, announced in December he would resign on Inauguration Day. Since the agency’s establishment in 1958, three FAA administrators have similarly resigned when a new administration takes power, but the office has been largely immune from presidential politics in recent decades. Since 1993, FAA administrators have stayed in their post during all presidential transitions.

There’s no evidence Whitaker’s resignation had any role in the mid-air collision of an American Eagle passenger jet and a US Army helicopter Wednesday night near Ronald Reagan Washington National Airport. But his departure from the FAA less than two years into a five-year term on January 20 left the agency without a leader. Trump named Chris Rocheleau as the FAA’s acting administrator Thursday.

Next flight, next month?

SpaceX has not released an official schedule for the next Starship test flight or outlined its precise objectives. However, it will likely repeat many of the goals planned for the previous flight, which ended before SpaceX could accomplish some of its test goals. These missed objectives included the release of satellite mockups in space for the first demonstration of Starship’s payload deployment mechanism, and a reentry over the Indian Ocean to test new, more durable heat shield materials.

The January 16 test flight was the first launch up an upgraded, slightly taller Starship, known as Version 2 or Block 2. The next flight will use the same upgraded version.

A SpaceX filing with the Federal Communications Commission suggests the next Starship flight could launch as soon as February 24. Sources told Ars that SpaceX teams believe a launch before the end of February is realistic.

But SpaceX has more to do before Flight 8. These tasks include completing the FAA-mandated investigation and the installation of all 39 Raptor engines on the rocket. Then, SpaceX will likely test-fire the booster and ship before stacking the two elements together to complete assembly of the 404-foot-tall (123.1-meter) rocket.

SpaceX is also awaiting a new FAA launch license, pending its completion of the investigation into what happened on Flight 7.

Photo of Stephen Clark

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.

It seems the FAA office overseeing SpaceX’s Starship probe still has some bite Read More »

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Fire destroys Starship on its seventh test flight, raining debris from space

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This launch debuted a more advanced, slightly taller version of Starship, known as Version 2 or Block 2, with larger propellant tanks, a new avionics system, and redesigned feed lines flowing methane and liquid oxygen propellants to the ship’s six Raptor engines. SpaceX officials did not say whether any of these changes might have caused the problem on Thursday’s launch.

SpaceX officials have repeatedly and carefully set expectations for each Starship test flight. They routinely refer to the rocket as experimental, and the primary focus of the rocket’s early demo missions is to gather data on the performance of the vehicle. What works, and what doesn’t work?

Still, the outcome of Thursday’s test flight is a clear disappointment for SpaceX. This was the seventh test flight of SpaceX’s enormous rocket and the first time Starship failed to complete its launch sequence since the second flight in November 2023. Until now, SpaceX has made steady progress, and each Starship flight has achieved more milestones than the one before.

On the first flight in April 2023, the rocket lost control a little more than two minutes after liftoff, and the ground-shaking power of the booster’s 33 engines shattered the concrete foundation beneath the launch pad. Seven months later, on Flight 2, the rocket made it eight minutes before failing. On that mission, Starship failed at roughly the same point of its ascent, just before the cutoff of the vehicle’s six methane-fueled Raptor engines.

Back then, a handful of photos and images from the Florida Keys and Puerto Rico showed debris in the sky after Starship activated its self-destruct mechanism due to an onboard fire caused by a dump of liquid oxygen propellant. But that flight occurred in the morning, with bright sunlight along the ship’s flight path.

This time, the ship disintegrated and reentered the atmosphere at dusk, with impeccable lighting conditions accentuating the debris cloud’s appearance. These twilight conditions likely contributed to the plethora of videos posted to social media on Thursday.

Starship and Super Heavy head downrange from SpaceX’s launch site near Brownsville, Texas. Credit: SpaceX

The third Starship test flight last March saw the spacecraft reach its planned trajectory and fly halfway around the world before succumbing to the scorching heat of atmospheric reentry. In June, the fourth test flight ended with controlled splashdowns of the rocket’s Super Heavy booster in the Gulf of Mexico and of Starship in the Indian Ocean.

In October, SpaceX caught the Super Heavy booster with mechanical arms at the launch pad for the first time, proving out the company’s audacious approach to recovering and reusing the rocket. On this fifth test flight, SpaceX modified the ship’s heat shield to better handle the hot temperatures of reentry, and the vehicle again made it to an on-target splashdown in the Indian Ocean.

Most recently, Flight 6 on November 19 demonstrated the ship’s ability to reignite its Raptor engines in space for the first time and again concluded with a bullseye splashdown. But SpaceX aborted an attempt to again catch the booster back at Starbase due to a problem with sensors on the launch pad’s tower.

With Flight 7, SpaceX hoped to test more changes to the heat shield protecting Starship from reentry temperatures up to 2,600° Fahrenheit (1,430° Celsius). Musk has identified the heat shield as one of the most difficult challenges still facing the program. In order for SpaceX to reach its ambition for the ship to become rapidly reusable, with minimal or no refurbishment between flights, the heat shield must be resilient and durable.

Fire destroys Starship on its seventh test flight, raining debris from space Read More »

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Here’s what NASA would like to see SpaceX accomplish with Starship this year

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Iterate, iterate, and iterate some more

The seventh test flight of Starship is scheduled for launch Thursday afternoon.

SpaceX’s upgraded Starship rocket stands on its launch pad at Starbase, Texas. Credit: SpaceX

SpaceX plans to launch the seventh full-scale test flight of its massive Super Heavy booster and Starship rocket Thursday afternoon. It’s the first of what might be a dozen or more demonstration flights this year as SpaceX tries new things with the most powerful rocket ever built.

There are many things on SpaceX’s Starship to-do list in 2025. They include debuting an upgraded, larger Starship, known as Version 2 or Block 2, on the test flight preparing to launch Thursday. The one-hour launch window opens at 5 pm EST (4 pm CST; 22: 00 UTC) at SpaceX’s launch base in South Texas. You can watch SpaceX’s live webcast of the flight here.

SpaceX will again attempt to catch the rocket’s Super Heavy booster—more than 20 stories tall and wider than a jumbo jet—back at the launch pad using mechanical arms, or “chopsticks,” mounted to the launch tower. Read more about the Starship Block 2 upgrades in our story from last week.

You might think of next week’s Starship test flight as an apéritif before the entrées to come. Ars recently spoke with Lisa Watson-Morgan, the NASA engineer overseeing the agency’s contract with SpaceX to develop a modified version of Starship to land astronauts on the Moon. NASA has contracts with SpaceX worth more than $4 billion to develop and fly two Starship human landing missions under the umbrella of the agency’s Artemis program to return humans to the Moon.

We are publishing the entire interview with Watson-Morgan below, but first, let’s assess what SpaceX might accomplish with Starship this year.

There are many things to watch for on this test flight, including the deployment of 10 satellite simulators to test the ship’s payload accommodations and the performance of a beefed-up heat shield as the vehicle blazes through the atmosphere for reentry and splashdown in the Indian Ocean.

If this all works, SpaceX may try to launch a ship into low-Earth orbit on the eighth flight, expected to launch in the next couple of months. All of the Starship test flights to date have intentionally flown on suborbital trajectories, bringing the ship back toward reentry over the sea northwest of Australia after traveling halfway around the world.

Then, there’s an even bigger version of Starship called Block 3 that could begin flying before the end of the year. This version of the ship is the one that SpaceX will use to start experimenting with in-orbit refueling, according to Watson-Morgan.

In order to test refueling, two Starships will dock together in orbit, allowing one vehicle to transfer super-cold methane and liquid oxygen into the other. Nothing like this on this scale has ever been attempted before. Future Starship missions to the Moon and Mars may require 10 or more tanker missions to gas up in low-Earth orbit. All of these missions will use different versions of the same basic Starship design: a human-rated lunar lander, a propellant depot, and a refueling tanker.

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

Questions for 2025

Catching Starship back at its launch tower and demonstrating orbital propellant transfer are the two most significant milestones on SpaceX’s roadmap for 2025.

SpaceX officials have said they aim to fly as many as 25 Starship missions this year, allowing engineers to more rapidly iterate on the vehicle’s design. SpaceX is constructing a second launch pad at its Starbase facility near Brownsville, Texas, to help speed up the launch cadence.

Can SpaceX achieve this flight rate in 2025? Will faster Starship manufacturing and reusability help the company fly more often? Will SpaceX fly its first ship-to-ship propellant transfer demonstration this year? When will Starship begin launching large batches of new-generation Starlink Internet satellites?

Licensing delays at the Federal Aviation Administration have been a thorn in SpaceX’s side for the last couple of years. Will those go away under the incoming administration of President-elect Donald Trump, who counts SpaceX founder Elon Musk as a key adviser?

And will SpaceX gain a larger role in NASA’s Artemis lunar program? The Artemis program’s architecture is sure to be reviewed by the Trump administration and the nominee for the agency’s next administrator, billionaire businessman and astronaut Jared Isaacman.

The very expensive Space Launch System rocket, developed by NASA with Boeing and other traditional aerospace contractors, might be canceled. NASA currently envisions the SLS rocket and Orion spacecraft as the transportation system to ferry astronauts between Earth and the vicinity of the Moon, where crews would meet up with a landing vehicle provided by commercial partners SpaceX and Blue Origin.

Watson-Morgan didn’t have answers to all of these questions. Many of them are well outside of her purview as Human Landing System program manager, so Ars didn’t ask. Instead, Ars discussed technical and schedule concerns with her during the half-hour interview. Here is one part of the discussion, lightly edited for clarity.

Ars: What do you hope to see from Flight 7 of Starship?

Lisa Watson-Morgan: One of the exciting parts of working with SpaceX are these test flights. They have a really fast turnaround, where they put in different lessons learned. I think you saw many of the flight objectives that they discussed from Flight 6, which was a great success. I think they mentioned different thermal testing experiments that they put on the ship in order to understand the different heating, the different loads on certain areas of the system. All that was really good with each one of those, in addition to how they configure the tiles. Then, from that, there’ll be additional tests that they will put on Flight 7, so you kind of get this iterative improvement and learning that we’ll get to see in Flight 7. So Flight 7 is the first Version 2 of their ship set. When I say that, I mean the ship, the booster, all the systems associated with it. So, from that, it’s really more just understanding how the system, how the flaps, how all of that interacts and works as they’re coming back in. Hopefully we’ll get to see some catches, that’s always exciting.

Ars: How did the in-space Raptor engine relight go on Flight 6 (on November 19)?

Lisa Watson-Morgan: Beautifully. And that’s something that’s really important to us because when we’re sitting on the Moon… well, actually, the whole path to the Moon as we are getting ready to land on the Moon, we’ll perform a series of maneuvers, and the Raptors will have an environment that is very, very cold. To that, it’s going to be important that they’re able to relight for landing purposes. So that was a great first step towards that. In addition, after we land, clearly the Raptors will be off, and it will get very cold, and they will have to relight in a cold environment (to get off the Moon). So that’s why that step was critical for the Human Landing System and NASA’s return to the Moon.

A recent artist’s illustration of two Starships docked together in low-Earth orbit. Credit: SpaceX

Ars: Which version of the ship is required for the propellant transfer demonstration, and what new features are on that version to enable this test?

Lisa Watson-Morgan: We’re looking forward to the Version 3, which is what’s coming up later on, sometime in ’25, in the near term, because that’s what we need for propellant transfer and the cryo fluid work that is also important to us… There are different systems in the V3 set that will help us with cryo fluid management. Obviously, with those, we have to have the couplers and the quick-disconnects in order for the two systems to have the right guidance, navigation, trajectory, all the control systems needed to hold their station-keeping in order to dock with each other, and then perform the fluid transfer. So all the fluid lines and all that’s associated with that, those systems, which we have seen in tests and held pieces of when we’ve been working with them at their site, we’ll get to see those actually in action on orbit.

Ars: Have there been any ground tests of these systems, whether it’s fluid couplers or docking systems? Can you talk about some of the ground tests that have gone into this development?

Lisa Watson-Morgan: Oh, absolutely. We’ve been working with them on ground tests for this past year. We’ve seen the ground testing and reviewed the data. Our team works with them on what we deem necessary for the various milestones. While the milestone contains proprietary (information), we work closely with them to ensure that it’s going to meet the intent, safety-wise as well as technically, of what we’re going to need to see. So they’ve done that.

Even more exciting, they have recently shipped some of their docking systems to the Johnson Space Center for testing with the Orion Lockheed Martin docking system, and that’s for Artemis III. Clearly, that’s how we’re going to receive the crew. So those are some exciting tests that we’ve been doing this past year as well that’s not just focused on, say, the booster and the ship. There are a lot of crew systems that are being developed now. We’re in work with them on how we’re going to effectuate the crew manual control requirements that we have, so it’s been a great balance to see what the crew needs, given the size of the ship. That’s been a great set of work. We have crew office hours where the crew travels to Hawthorne [SpaceX headquarters in California] and works one-on-one with the different responsible engineers in the different technical disciplines to make sure that they understand not just little words on the paper from a requirement, but actually what this means, and then how systems can be operated.

Ars: For the docking system, Orion uses the NASA Docking System, and SpaceX brings its own design to bear on Starship?

Lisa Watson-Morgan: This is something that I think the Human Landing System has done exceptionally well. When we wrote our high-level set of requirements, we also wrote it with a bigger picture in mind—looked into the overall standards of how things are typically done, and we just said it has to be compliant with it. So it’s a docking standard compliance, and SpaceX clearly meets that. They certainly do have the Dragon heritage, of course, with the International Space Station. So, because of that, we have high confidence that they’re all going to work very well. Still, it’s important to go ahead and perform the ground testing and get as much of that out of the way as we can.

Lisa Watson-Morgan, NASA’s HLS program manager, is based at Marshall Space Flight Center in Huntsville, Alabama. Credit: ASA/Aubrey Gemignani

Ars: How far along is the development and design of the layout of the crew compartment at the top of Starship? Is it far along, or is it still in the conceptual phase? What can you say about that?

Lisa Watson-Morgan: It’s much further along there. We’ve had our environmental control and life support systems, whether it’s carbon dioxide monitoring fans to make sure the air is circulating properly. We’ve been in a lot of work with SpaceX on the temperature. It’s… a large area (for the crew). The seats, making sure that the crew seats and the loads on that are appropriate. For all of that work, as the analysis work has been performed, the NASA team is reviewing it. They had a mock-up, actually, of some of their life support systems even as far back as eight-plus months ago. So there’s been a lot of progress on that.

Ars: Is SpaceX planning to use a touchscreen design for crew displays and controls, like they do with the Dragon spacecraft?

Lisa Watson-Morgan: We’re in talks about that, about what would be the best approach for the crew for the dynamic environment of landing.

Ars: I can imagine it is a pretty dynamic environment with those Raptor engines firing. It’s almost like a launch in reverse.

Lisa Watson-Morgan: Right. Those are some of the topics that get discussed in the crew office hours. That’s why it’s good to have the crew interacting directly, in addition to the different discipline leads, whether it’s structural, mechanical, propulsion, to have all those folks talking guidance and having control to say, “OK, well, when the system does this, here’s the mode we expect to see. Here’s the impact on the crew. And is this condition, or is the option space that we have on the table, appropriate for the next step, with respect to the displays.”

Ars: One of the big things SpaceX needs to prove out before going to the Moon with Starship is in-orbit propellant transfer. When do you see the ship-to-ship demonstration occurring?

Lisa Watson-Morgan: I see it occurring in ’25.

Ars: Anything more specific about the schedule for that?

Lisa Watson-Morgan: That’d be a question for SpaceX because they do have a number of flights that they’re performing commercially, for their maturity. We get the benefit of that. It’s actually a great partnership. I’ll tell you, it’s really good working with them on this, but they’d have to answer that question. I do foresee it happening in ’25.

Ars: What things do you need to see SpaceX accomplish before they’re ready for the refueling demo? I’m thinking of things like the second launch tower, potentially. Do they need to demonstrate a ship catch or anything like that before going for orbital refueling?

Lisa Watson-Morgan: I would say none of that’s required. You just kind of get down to, what are the basics? What are the basics that you need? So you need to be able to launch rapidly off the same pad, even. They’ve shown they can launch and catch within a matter of minutes. So that is good confidence there. The catching is part of their reuse strategy, which is more of their commercial approach, and not a NASA requirement. NASA reaps the benefit of it by good pricing as a result of their commercial model, but it is not a requirement that we have. So they could theoretically use the same pad to perform the propellant transfer and the long-duration flight, because all it requires is two launches, really, within a specified time period to where the two systems can meet in a planned trajectory or orbit to do the propellant transfer. So they could launch the first one, and then within a week or two or three, depending on what the concept of operations was that we thought we could achieve at that time, and then have the propellant transfer demo occur that way. So you don’t necessarily need two pads, but you do need more thermal characterization of the ship. I would say that is one of the areas (we need to see data on), and that is one of the reasons, I think, why they’re working so diligently on that.

Ars: You mentioned the long-duration flight demonstration. What does that entail?

Lisa Watson-Morgan: The simple objectives are to launch two different tankers or Starships. The Starship will eventually be a crewed system. Clearly, the ones that we’re talking about for the propellant transfer are not. It’s just to have the booster and Starship system launch, and within a few weeks, have another one launch, and have them rendezvous. They need to be able to find each other with their sensors. They need to be able to come close, very, very close, and they need to be able to dock together, connect, do the quick connect, and make sure they are able, then, to flow propellant and LOX (liquid oxygen) to another system. Then, we need to be able to measure the quantity of how much has gone over. And from that, then they need to safely undock and dispose.

Ars: So the long-duration flight demonstration is just part of what SpaceX needs to do in order to be ready for the propellant transfer demonstration?

Lisa Watson-Morgan: We call it long duration just because it’s not a 45-minute or an hour flight. Long duration, obviously, that’s a relative statement, but it’s a system that can stay up long enough to be able to find another Starship and perform those maneuvers and flow of fuel and LOX.

Ars: How much propellant will you transfer with this demonstration, and do you think you’ll get all the data you need in one demonstration, or will SpaceX need to try this several times?

Lisa Watson-Morgan: That’s something you can ask SpaceX (about how much propellant will be transferred). Clearly, I know, but there’s some sensitivity there. You’ve seen our requirements in our initial solicitation. We have thresholds and goals, meaning we want you to at least do this, but more is better, and that’s typically how we work almost everything. Working with commercial industry in these fixed-price contracts has worked exceptionally well, because when you have providers that are also wanting to explore commercially or trying to make a commercial system, they are interested in pushing more than what we would typically ask for, and so often we get that for an incredibly fair price.

Photo of Stephen Clark

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.

Here’s what NASA would like to see SpaceX accomplish with Starship this year Read More »

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Two lunar landers are on the way to the Moon after SpaceX’s double moonshot

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Julianna Scheiman, director of NASA science missions for SpaceX, said it made sense to pair the Firefly and ispace missions on the same Falcon 9 rocket.

“When we have two missions that can each go to the Moon on the same launch, that is something that we obviously want to take advantage of,” Scheiman said. “So when we found a solution for the Firefly and ispace missions to fly together on the same Falcon 9, it was a no-brainer to put them together.”

SpaceX stacked the two landers, one on top of the other, inside the Falcon 9’s payload fairing. Firefly’s lander, the larger of the two spacecraft, rode on top of the stack and deployed from the rocket first. The Resilience lander from ispace launched in the lower position, cocooned inside a specially designed canister. Once Firefly’s lander separated from the Falcon 9, the rocket jettisoned the canister, performed a brief engine firing to maneuver into a slightly different orbit, then released ispace’s lander.

This dual launch arrangement resulted in a lower launch price for Firefly and ispace, according to Scheiman.

“At SpaceX, we are really interested in and invested in lowering the cost of launch for everybody,” she said. “So that’s something we’re really proud of.”

The Resilience lunar lander is pictured at ispace’s facility in Japan last year. The company’s small Tenacious rover is visible on the upper left part of the spacecraft. credit: ispace Credit: ispace

The Blue Ghost and Resilience landers will take different paths toward the Moon.

Firefly’s Blue Ghost will spend about 25 days in Earth orbit, then four days in transit to the Moon. After Blue Ghost enters lunar orbit, Firefly’s ground team will verify the readiness of the lander’s propulsion and navigation systems and execute several thruster burns to set up for landing.

Blue Ghost’s final descent to the Moon is tentatively scheduled for March 2. The target landing site is in Mare Crisium, an ancient 350-mile-wide (560-kilometer) impact basin in the northeast part of the near side of the Moon.

After touchdown, Blue Ghost will operate for about 14 days (one entire lunar day). The instruments aboard Firefly’s lander include a subsurface drill, an X-ray imager, and an experimental electrodynamic dust shield to test methods of repelling troublesome lunar dust from accumulating on sensitive spacecraft components.

The Resilience lander from ispace will take four to five months to reach the Moon. It carries several intriguing tech demo experiments, including a water electrolyzer provided by a Japanese company named Takasago Thermal Engineering. This demonstration will test equipment that future lunar missions could use to convert the Moon’s water ice resources into electricity and rocket fuel.

The lander will also deploy a “micro-rover” named Tenacious, developed by an ispace subsidiary in Luxembourg. The Tenacious rover will attempt to scoop up lunar soil and capture high-definition imagery of the Moon.

Ron Garan, CEO of ispace’s US-based subsidiary, told Ars that this mission is “pivotal” for the company.

“We were not fully successful on our first mission,” Garan said in an interview. “It was an amazing accomplishment, even though we didn’t have a soft landing… Although the hardware worked flawlessly, exactly as it was supposed to, we did have some lessons learned in the software department. The fixes to prevent what happened on the first mission from happening on the second mission were fairly straightforward, so that boosts our confidence.”

The ispace subsidiary led by Garan, a former NASA astronaut, is based in Colorado. While the Resilience lander launched Wednesday is not part of the CLPS program, the company will build an upgraded lander for a future CLPS mission for NASA, led by Draper Laboratory.

“I think the fact that we have two lunar landers on the same rocket for the first time in history is pretty substantial,” Garan said. I think we all are rooting for each other.”

Investors need to see more successes with commercial lunar landers to fully realize the market’s potential, Garan said.

“That market, right now, is very nascent. It’s very, very immature. And one of the reasons for that is that it’s very difficult for companies that are contemplating making investments on equipment, experiments, etc., to put on the lunar surface and lunar orbit,” Garan said. “It’s very difficult to make those investments, especially if they’re long-term investments, because there really hasn’t been a proof of concept yet.”

“So every time we have a success, that makes it more likely that these companies that will serve as the foundation of a commercial lunar market movement will be able to make those investments,” Garan said. “Conversely, every time we have a failure, the opposite happens.”

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firefly-aerospace-rakes-in-more-cash-as-competitors-struggle-for-footing

Firefly Aerospace rakes in more cash as competitors struggle for footing

alpha, Commercial space, Firefly Aerospace, launch, medium launch vehicle, Science, Space / /

More than just one thing

Firefly’s majority owner is the private equity firm AE Industrial Partners, and the Series D funding round was led by Michigan-based RPM Ventures.

“Few companies can say they’ve defined a new category in their industry—Firefly is one of those,” said Marc Weiser, a managing director at RPM Ventures. “They have captured their niche in the market as a full service provider for responsive space missions and have become the pinnacle of what a modern space and defense technology company looks like.”

This descriptor—a full service provider—is what differentiates Firefly from most other space companies. Firefly’s crosscutting work in small and medium launch vehicles, rocket engines, lunar landers, and in-space propulsion propels it into a club of wide-ranging commercial space companies that, arguably, only includes SpaceX, Blue Origin, and Rocket Lab.

NASA has awarded Firefly three task orders under the Commercial Lunar Payload Services (CLPS) program. Firefly will soon ship its first Blue Ghost lunar lander to Florida for final preparations to launch to the Moon and deliver 10 NASA-sponsored scientific instruments and tech demo experiments to the lunar surface. NASA has a contract with Firefly for a second Blue Ghost mission, plus an agreement for Firefly to transport a European data relay satellite to lunar orbit.

Firefly also boasts a healthy backlog of missions on its Alpha rocket. In June, Lockheed Martin announced a deal for as many as 25 Alpha launches through 2029. Two months later, L3Harris inked a contract with Firefly for up to 20 Alpha launches. Firefly has also signed Alpha launch contracts with NASA, the National Oceanic and Atmospheric Administration (NOAA), the Space Force, and the National Reconnaissance Office. One of these Alpha launches will deploy Firefly’s first orbital transfer vehicle, named Elytra, designed to host customer payloads and transport them to different orbits following separation from the launcher’s upper stage.

And there’s the Medium Launch Vehicle, a rocket Firefly and Northrop Grumman hope to launch as soon as 2026. But first, the companies will fly an MLV booster stage with seven kerosene-fueled Miranda engines on a new version of Northrop Grumman’s Antares rocket for cargo deliveries to the International Space Station. Northrop Grumman has retired the previous version of Antares after losing access to Russian rocket engines in the wake of Russia’s invasion of Ukraine.

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