Space

stoke-space-gives-us-another-reason-to-take-it-very-seriously

Stoke Space gives us another reason to take it very seriously

Stoke Space announced a significant capital raise on Wednesday, a total of $510 million as part of Series D funding. The new financing doubles the total capital raised by Stoke Space, founded in 2020, to $990 million.

The infusion of money will provide the company with “the runway to complete development” of the Nova rocket and demonstrate its capability through its first flights, said Andy Lapsa, the company’s co-founder and chief executive, in a news release characterizing the new funding.

Stoke is working toward a 2026 launch of the medium-lift Nova rocket. The rocket’s innovative design is intended to be fully reusable from the payload fairing on down, with a regeneratively cooled heat shield on the vehicle’s second stage. In fully reusable mode, Nova will have a payload capacity of 3 metric tons to low-Earth orbit, and up to 7 tons in fully expendable mode.

Another bright fundraising star

There are some striking parallels between Stoke Space’s latest fundraising announcement and another forward-leaning launch company, Relativity Space. The latter was founded in 2016 with the promise of 3D-printing a rocket nearly in its entirety.

In November 2020, Relativity disclosed its own Series D funding, $500 million. At the time, the company had about 230 employees and was planning a launch the following year. Stoke presently has about 280 employees and intends to launch Nova next year.

Instead of lifting off in 2021, however, Relativity’s Terran 1 rocket would not launch for the first time until 2023, and since that time, the company has not flown again. In fact, Relativity nearly filed for bankruptcy last year before it received a large infusion of cash from Eric Schmidt, the former Google executive. Relativity has now largely abandoned additive manufacturing rockets and is focused on the development of a more traditional rocket, the Terran R vehicle.

Stoke Space gives us another reason to take it very seriously Read More »

actually,-we-are-going-to-tell-you-the-odds-of-recovering-new-glenn’s-second-launch

Actually, we are going to tell you the odds of recovering New Glenn’s second launch

The only comparison available is SpaceX, with its Falcon 9 rocket. The company made its first attempt at a powered descent of the Falcon 9 into the ocean during its sixth launch in September 2013. On the vehicle’s ninth flight, it successfully made a controlled ocean landing. SpaceX made its first drone ship landing attempt in January 2015, a failure. Finally, on the vehicle’s 20th launch, SpaceX successfully put the Falcon 9 down on land, with the first successful drone ship landing following on the 23rd flight in April 2016.

SpaceX did not attempt to land every one of these 23 flights, but the company certainly experienced a number of failures as it worked to safely bring back an orbital rocket onto a small platform out at sea. Blue Origin’s engineers, some of whom worked at SpaceX at the time, have the benefit of those learnings. But it is still a very, very difficult thing to do on the second flight of a new rocket. The odds aren’t 3,720-to-1, but they’re probably not 75 percent, either.

Reuse a must for the bottom line

Nevertheless, for the New Glenn program to break even financially and eventually turn a profit, it must demonstrate reuse fairly quickly. According to multiple sources, the New Glenn first stage costs in excess of $100 million to manufacture. It is a rather exquisite piece of hardware, with many costs baked into the vehicle to make it rapidly reusable. But those benefits only come after a rocket is landed in good condition.

On its nominal plan, Blue Origin plans to refurbish the “Never Tell Me The Odds” booster for the New Glenn program’s third flight, a highly anticipated launch of the Mark 1 lunar lander. Such a refurbishment—again, on a nominal timeline—could be accomplished within 90 days. That seems unlikely, though. SpaceX did not reuse the first Falcon 9 booster it landed, and the first booster to re-fly required 356 days of analysis and refurbishment.

Nevertheless, we’re not supposed to talk about the odds with this mission. So instead, we’ll just note that the hustle and ambition from Blue Origin is a welcome addition to the space industry, which benefits from both.

Actually, we are going to tell you the odds of recovering New Glenn’s second launch Read More »

elon-musk-tries-to-make-apple-and-mobile-carriers-regret-choosing-starlink-rivals

Elon Musk tries to make Apple and mobile carriers regret choosing Starlink rivals

SpaceX holds spectrum licenses for the Starlink fixed Internet service for homes and businesses. Adding the EchoStar spectrum will make its holdings suitable for mobile service.

“SpaceX currently holds no terrestrial spectrum authorizations and no license to use spectrum allocated on a primary basis to MSS,” the company’s FCC filing said. “Its only authorization to provide any form of mobile service is an authorization for secondary SCS [Supplemental Coverage from Space] operations in spectrum licensed to T-Mobile.”

Starlink unlikely to dethrone major carriers

SpaceX’s spectrum purchase doesn’t make it likely that Starlink will become a fourth major carrier. Grand claims of that sort are “complete nonsense,” wrote industry analyst Dean Bubley. “Apart from anything else, there’s one very obvious physical obstacle: walls and roofs,” he wrote. “Space-based wireless, even if it’s at frequencies supported in normal smartphones, won’t work properly indoors. And uplink from devices to satellites will be even worse.”

When you’re indoors, “there’s more attenuation of the signal,” resulting in lower data rates, Farrar said. “You might not even get megabits per second indoors, unless you are going to go onto a home Starlink broadband network,” he said. “You might only be able to get hundreds of kilobits per second in an obstructed area.”

The Mach33 analyst firm is more bullish than others regarding Starlink’s potential cellular capabilities. “With AWS-4/H-block and V3 [satellites], Starlink DTC is no longer niche, it’s a path to genuine MNO competition. Watch for retail mobile bundles, handset support, and urban hardware as the signals of that pivot,” the firm said.

Mach33’s optimism is based in part on the expectation that SpaceX will make more deals. “DTC isn’t just a coverage filler, it’s a springboard. It enables alternative growth routes; M&A, spectrum deals, subleasing capacity in denser markets, or technical solutions like mini-towers that extend Starlink into neighborhoods,” the group’s analysis said.

The amount of spectrum SpaceX is buying from EchoStar is just a fraction of what the national carriers control. There is “about 1.1 GHz of licensed spectrum currently allocated to mobile operators,” wireless lobby group CTIA said in a January 2025 report. The group also says the cellular industry has over 432,000 active cell sites around the US.

What Starlink can offer cellular users “is nothing compared to the capacity of today’s 5G networks,” but it would be useful “in less populated areas or where you cannot get coverage,” Rysavy said.

Starlink has about 8,500 satellites in orbit. Rysavy estimated in a July 2025 report that about 280 of them are over the United States at any given time. These satellites are mostly providing fixed Internet service in which an antenna is placed outside a building so that people can use Wi-Fi indoors.

SpaceX’s FCC filing said the EchoStar spectrum’s mix of terrestrial and satellite frequencies will be ideal for Starlink.

“By acquiring EchoStar’s market-access authorization for 2 GHz MSS as well as its terrestrial AWS-4 licenses, SpaceX will be able to deploy a hybrid satellite and terrestrial network, just as the Commission envisioned EchoStar would do,” SpaceX said. “Consistent with the Commission’s finding that potential interference between MSS and terrestrial mobile service can best be managed by enabling a single licensee to control both networks, assignment of the AWS-4 spectrum is critical to enable SpaceX to deploy robust MSS service in this band.”

Elon Musk tries to make Apple and mobile carriers regret choosing Starlink rivals Read More »

pentagon-contract-figures-show-ula’s-vulcan-rocket-is-getting-more-expensive

Pentagon contract figures show ULA’s Vulcan rocket is getting more expensive

A SpaceX Falcon Heavy rocket with NASA’s Psyche spacecraft launches from NASA’s Kennedy Space Center in Florida on October 13, 2023. Credit: Chandan Khanna/AFP via Getty Images

The launch orders announced Friday comprise the second batch of NSSL Phase 3 missions the Space Force has awarded to SpaceX and ULA.

It’s important to remember that these prices aren’t what ULA or SpaceX would charge a commercial satellite customer. The US government pays a premium for access to space. The Space Force, the National Reconnaissance Office, and NASA don’t insure their launches like a commercial customer would do. Instead, government agencies have more insight into their launch contractors, including inspections, flight data reviews, risk assessments, and security checks. Government missions also typically get priority on ULA and SpaceX’s launch schedules. All of this adds up to more money.

A heavy burden

Four of the five launches awarded to SpaceX Friday will use the company’s larger Falcon Heavy rocket, according to Lt. Col. Kristina Stewart at Space Systems Command. One will fly on SpaceX’s workhorse Falcon 9. This is the first time a majority of the Space Force’s annual launch orders has required the lift capability of a Falcon Heavy, with three Falcon 9 booster cores combining to heave larger payloads into space.

All versions of ULA’s Vulcan rocket use a single core booster, with varying numbers of strap-on solid-fueled rocket motors to provide extra thrust off the launch pad.

Here’s a breakdown of the seven new missions assigned to SpaceX and ULA:

USSF-149: Classified payload on a SpaceX Falcon 9 from Florida

USSF-63: Classified payload on a SpaceX Falcon Heavy from Florida

USSF-155: Classified payload SpaceX Falcon Heavy from Florida

USSF-205: WGS-12 communications satellite on a SpaceX Falcon Heavy from Florida

NROL-86: Classified payload on a SpaceX Falcon Heavy from Florida

USSF-88: GPS IIIF-4 navigation satellite on a ULA Vulcan VC2S (two solid rocket boosters) from Florida

NROL-88: Classified payload on a ULA Vulcan VC4S (four solid rocket boosters) from Florida

Pentagon contract figures show ULA’s Vulcan rocket is getting more expensive Read More »

removing-these-50-objects-from-orbit-would-cut-danger-from-space-junk-in-half

Removing these 50 objects from orbit would cut danger from space junk in half

China, on the other hand, frequently abandons upper stages in orbit. China launched 21 of the 26 hazardous new rocket bodies over the last 21 months, each averaging more than 4 metric tons (8,800 pounds). Two more came from US launchers, one from Russia, one from India, and one from Iran.

This trend is likely to continue as China steps up deployment of two megaconstellations—Guowang and Thousand Sails—with thousands of communications satellites in low-Earth orbit. Launches of these constellations began last year. The Guowang and Thousand Sails satellites are relatively small and likely capable of maneuvering out of the way of space debris, although China has not disclosed their exact capabilities.

However, most of the rockets used for Guowang and Thousand Sails launches have left their upper stages in orbit. McKnight said nine upper stages China has abandoned after launching Guowang and Thousand Sails satellites will stay in orbit for more than 25 years, violating the international guidelines.

It will take hundreds of rockets to fully populate China’s two major megaconstellations. The prospect of so much new space debris is worrisome, McKnight said.

“In the next few years, if they continue the same trend, they’re going to leave well over 100 rocket bodies over the 25-year rule if they continue to deploy these constellations,” he said. “So, the trend is not good.”

There are technical and practical reasons not to deorbit an upper stage at the end of its mission. Some older models of Chinese rockets simply don’t have the capability to reignite their engines in space, leaving them adrift after deploying their payloads. Even if a rocket flies with a restartable upper stage engine, a launch provider must reserve enough fuel for a deorbit burn. This eats into the rocket’s payload capacity, meaning it must carry fewer satellites.

“We know the Chinese have the capability to not leave rocket bodies,” McKnight said. One example is the Long March 5 rocket, which launched three times with batches of Guowang satellites. On those missions, the Long March 5 flew with an upper stage called the YZ-2, a high-endurance maneuvering vehicle that deorbits itself at the end of its mission. The story isn’t so good for launches using other types of rockets.

“With the other ones, they always leave a rocket body,” McKnight said. “So, they have the capability to do sustainable practices, but on average, they do not.”

A Japanese H-IIA upper stage imaged by Astroscale’s ADRAS-J spacecraft last year. Credit: Astroscale

Since 2000, China has accumulated more dead rocket mass in long-lived orbits than the rest of the world combined, according to McKnight. “But now we’re at a point where it’s actually kind of accelerating in the last two years as these constellations are getting deployed.”

Removing these 50 objects from orbit would cut danger from space junk in half Read More »

rocket-report:-alpha-explodes-on-test-stand;-europe-wants-a-mini-starship

Rocket Report: Alpha explodes on test stand; Europe wants a mini Starship


“We are trying to find a partner that is willing to invest.”

An Electron rocket launches a Synspective satellite in 2022. Credit: Rocket Lab

Welcome to Edition 8.13 of the Rocket Report! It’s difficult for me to believe, but we have now entered the fourth quarter of the year. Accordingly, there are three months left in 2025, with a lot of launch action still to come. The remainder of the year will be headlined by Blue Origin’s New Glenn rocket making its second flight (and landing attempt), and SpaceX’s Starship making its final test flight of the year. There is also the slim possibility that Rocket Lab’s Neutron vehicle will make its debut this year, but it will almost certainly slip into 2026.

As always, we welcome reader submissions, and 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.

An Alpha rocket blows up on the pad. The booster stage for Firefly Aerospace’s next Alpha rocket was destroyed Monday in a fiery accident on the company’s vertical test stand in Central Texas, Ars reports. Firefly released a statement confirming the rocket “experienced an event that resulted in a loss of the stage.” The company confirmed all personnel were safe and said ground teams followed “proper safety protocols.” Imagery posted on social media platforms showed a fireball engulfing the test stand and a column of black smoke rising into the sky over Firefly’s facility roughly 40 miles north of Austin.

Supposed to be a return-to-flight mission … Engineers were testing the rocket before shipment to Vandenberg Space Force Base, California, to prepare for launch later this year with a small commercial satellite for Lockheed Martin. The booster destroyed Monday was slated to fly on the seventh launch of Firefly’s Alpha rocket, an expendable, two-stage launch vehicle capable of placing a payload of a little over 2,200 pounds, or a metric ton, into low-Earth orbit. This upcoming launch was supposed to be the Alpha rocket’s return to flight after an in-flight failure in April, when the upper stage’s engine shut down before the rocket could reach orbit and deploy its satellite payload.

Europe wants a mini Starship. The European Space Agency signed a contract Monday with Avio, the Italian company behind the small Vega rocket, to begin designing a reusable upper stage capable of flying into orbit, returning to Earth, and launching again. The deal is worth 40 million euros ($47 million), Ars reports. In a statement, Avio said it will “define the requirements, system design, and enabling technologies needed to develop a demonstrator capable of safely returning to Earth and being reused in future missions.”

Don’t expect progress too quickly … At the end of the two-year contract, Avio will deliver a preliminary design for the reusable upper stage and the ground infrastructure needed to make it a reality. The preliminary design review is a milestone in the early phases of an aerospace project, typically occurring many years before completion. For example, Europe’s flagship Ariane 6 rocket passed its preliminary design review in 2016, eight years before its first launch. Avio and ESA did not release any specifications on the size or performance of the launcher.

The easiest way to keep up with Eric Berger’s and Stephen Clark’s reporting on all things space is to sign up for our newsletter. We’ll collect their stories and deliver them straight to your inbox.

Sign Me Up!

Rocket Lab scores 10 more Electron launches. Synspective, a Japanese company developing a constellation of radar imaging satellites, has signed a deal with Rocket Lab for an additional 10 Electron launches, Space News reports. The companies announced the agreement on Tuesday at the International Astronautical Congress, confirming that each launch would carry a single StriX radar imaging satellite.

A repeat customer … Synspective signed a separate contract in June 2024 for 10 Electron launches, scheduled for 2025 through 2027. That was the largest single contract for Electron to date. Rocket Lab notes that Synspective is its largest Electron customer, with six launches completed to date and a backlog of 21 launches through the end of the decade. Synspective aims to place 30 synthetic aperture radar imaging satellites in orbit by 2030. This contract ensures that Electron will continue flying for quite a while.

German investment could benefit small launchers. During his address at Germany’s third annual Space Congress, Defense Minister Boris Pistorius announced that Germany would invest 35 billion euros ($41 billion) in space-related defense projects by 2030, European Spaceflight reports. “The conflicts of the future will no longer be limited to the Earth’s surface or the deep sea,” he said. “They will also be fought openly in orbit. That’s why we are building structures within the Bundeswehr to enable us to effectively defend and deter [threats] in space in the medium and long term.”

Launch an investment area … The investment will cover five main priorities: hardening against data disruptions and attacks, improved space situational awareness, redundancy through several networked satellite constellations, secure, diverse, and on-demand launch capabilities, and a dedicated military satellite operations center. Although Germany’s heavy-lift needs will continue to be met by Ariane 6, a program to which the country contributes heavily, domestic small-launch providers such as Rocket Factory Augsburg, Isar Aerospace, and HyImpulse are likely to see a boost in support.

Blue Origin seeks to expand New Shepard program. Blue Origin is developing three new suborbital New Shepard launch systems and is mulling expanding flight services beyond West Texas, Aviation Week reports. The current two-ship fleet will be retired by the end of 2027, with the first of three new spacecraft expected to debut next year, Senior Vice President Phil Joyce said during the Global Spaceport Alliance forum.

Looking for an overseas partner … Joyce said the new vehicles feature upgraded systems throughout, particularly in the propulsion system. The new ships are designed for quicker turnaround, which will enable Blue Origin to offer weekly flights. The company’s West Texas spaceport can accommodate three New Shepard vehicles, though Blue Origin is interested in possibly offering the suborbital flight service from another location, including outside the US, Joyce said. “We are trying to find a partner that is willing to invest,” he added. (submitted by Chuckgineer)

Next Nuri launch set for November. The Korea AeroSpace Administration completed a review of preparations for the next launch of the Nuri rocket and announced that the vehicle was ready for a window that would open on November 28. The main payload will be a satellite to observe Earth’s aurora and magnetic field, along with a smaller secondary payload.

Coming back after a while … The liquid-fueled Nuri rocket is the first booster to be entirely developed within Korea, and has a lift capacity of 3.3 metric tons to low-Earth orbit. The rocket failed on its debut launch in October 2021, but flew successfully in 2022 and 2023. If the rocket launches in November, it will be Nuri’s first mission in two and a half years. (submitted by CP)

Galactic Energy scores big fundraising round. Beijing-based Galactic Energy has raised what appears to be China’s largest disclosed round for a launch startup as it nears orbital test flights of new rockets, Space News reports. The company announced Series D financing of 2.4 billion yuan ($336 million) in a statement on Sunday. The funding will be used for the Pallas series of reusable liquid propellant launchers and the Ceres-2 solid rocket, both of which appear close to test launches. The investment will also go toward related production, testing, and launch facilities.

Big funding, big ambitions … Founded in February 2018, Galactic Energy has established a strong record of reliability with its light-lift Ceres-1 solid rocket, and previously raised $154 million in C-round funding in late 2023 for its Pallas-1 plans. Pallas-1, a kerosene-liquid oxygen rocket, is to be able to carry 7 metric tons of payload to a 200-km low-Earth orbit. New plans for Pallas-2 envision a capability of 20,000 to 58,000 kg, depending on a single-stick or tri-core configuration, with an aggressive target of a debut launch in 2026.

Blue Origin seeks to reuse next New Glenn booster. There’s a good bit riding on the second launch of Blue Origin’s New Glenn rocket, Ars reports. Most directly, the fate of a NASA science mission to study Mars’ upper atmosphere hinges on a successful launch. The second flight of Blue Origin’s heavy-lifter will send two NASA-funded satellites toward the red planet to study the processes that drove Mars’ evolution from a warmer, wetter world to the cold, dry planet of today. But there’s more on the line. If Blue Origin plans to launch its first robotic Moon lander early next year—as currently envisioned—the company needs to recover the New Glenn rocket’s first stage booster.

Managing prop … Crews will again dispatch Blue Origin’s landing platform into the Atlantic Ocean, just as they did for the first New Glenn flight in January. The debut launch of New Glenn successfully reached orbit, a difficult feat for the inaugural flight of any rocket. But the booster fell into the Atlantic Ocean after three of the rocket’s engines failed to reignite to slow down for landing. Engineers identified seven changes to resolve the problem, focusing on what Blue Origin calls “propellant management and engine bleed control improvements.” Company officials expressed confidence this week the booster will be recovered.

SpaceX nearing next Starship test flight. With the next Starship launch, scheduled for no earlier than October 13, SpaceX officials hope to show they can repeat the successes of the 10th test flight of the vehicle in late August, Ars reports. On its surface, the flight plan for SpaceX’s next Starship flight looks a lot like the last one. The rocket’s Super Heavy booster will again splash down in the Gulf of Mexico just offshore from SpaceX’s launch site in South Texas. And Starship, the rocket’s upper stage, will fly on a suborbital arc before reentering the atmosphere over the Indian Ocean for a water landing northwest of Australia.

Preparing for a future ship catch … There are, however, some changes to SpaceX’s flight plan for the next Starship. Most of these changes will occur during the ship’s reentry, when the vehicle’s heat shield is exposed to temperatures of up to 2,600° Fahrenheit (1,430° Celsius). These include new tests of ceramic thermal protection tiles to “intentionally stress-test vulnerable areas across the vehicle.” Another new test objective for the upcoming Starship flight will be a “dynamic banking maneuver” during the final phase of the trajectory “to mimic the path a ship will take on future flights returning to Starbase,” SpaceX said. This will help engineers test Starship’s subsonic guidance algorithms.

Senators seek to halt space shuttle move. A former NASA astronaut turned US senator has joined with other lawmakers to insist that his two rides to space remain on display in the Smithsonian, Ars reports. Sen. Mark Kelly (D-Ariz.) has joined fellow Democratic Senators Mark Warner and Tim Kaine, both of Virginia, and Dick Durbin of Illinois in an effort to halt the move of space shuttle Discovery to Houston, as enacted into law earlier this year. In a letter sent to the leadership of the Senate Committee on Appropriations, Kelly and his three colleagues cautioned that any effort to transfer the winged orbiter would “waste taxpayer dollars, risk permanent damage to the shuttle, and mean fewer visitors would be able to visit it.”

Seeking to block Cruz control … In the letter, the senators asked that Committee Chair Susan Collins (R-Maine) and Vice Chair Patty Murray (D-Wash.) block funding for Discovery‘s relocation in both the fiscal year 2026 Interior-Environment appropriations bill and FY26 Commerce, Justice, Science appropriations bill. The letter is the latest response to a campaign begun by Sens. John Cornyn and Ted Cruz, both Republicans from Texas, to remove Discovery from its 13-year home at the National Air and Space Museum’s Steven F. Udvar-Hazy Center in Chantilly, Virginia, and put it on display at Space Center Houston, the visitor center for NASA’s Johnson Space Center in Texas.

Next three launches

October 3: Falcon 9 | Starlink 11-39 | Vandenberg Space Force Base, Calif. | 13: 00 UTC

October 6: Falcon 9 | Starlink 10-59 | Cape Canaveral Space Force Station, Fla.| 04: 32 UTC

October 8: Falcon 9 | Starlink 11-17 | Vandenberg Space Force Base, Calif. | 01: 00 UTC

Photo of Eric Berger

Eric Berger is the senior space editor at Ars Technica, covering everything from astronomy to private space to NASA policy, and author of two books: Liftoff, about the rise of SpaceX; and Reentry, on the development of the Falcon 9 rocket and Dragon. A certified meteorologist, Eric lives in Houston.

Rocket Report: Alpha explodes on test stand; Europe wants a mini Starship Read More »

blue-origin-aims-to-land-next-new-glenn-booster,-then-reuse-it-for-moon-mission

Blue Origin aims to land next New Glenn booster, then reuse it for Moon mission


“We fully intend to recover the New Glenn first stage on this next launch.”

New Glenn lifts off on its debut flight on January 16, 2025. Credit: Blue Origin

There’s a good bit riding on the second launch of Blue Origin’s New Glenn rocket.

Most directly, the fate of a NASA science mission to study Mars’ upper atmosphere hinges on a successful launch. The second flight of Blue Origin’s heavy-lifter will send two NASA-funded satellites toward the red planet to study the processes that drove Mars’ evolution from a warmer, wetter world to the cold, dry planet of today.

A successful launch would also nudge Blue Origin closer to winning certification from the Space Force to begin launching national security satellites.

But there’s more on the line. If Blue Origin plans to launch its first robotic Moon lander early next year—as currently envisioned—the company needs to recover the New Glenn rocket’s first stage booster. Crews will again dispatch Blue Origin’s landing platform into the Atlantic Ocean, just as they did for the first New Glenn flight in January.

The debut launch of New Glenn successfully reached orbit, a difficult feat for the inaugural flight of any rocket. But the booster fell into the Atlantic Ocean after three of the rocket’s engines failed to reignite to slow down for landing. Engineers identified seven changes to resolve the problem, focusing on what Blue Origin calls “propellant management and engine bleed control improvements.”

Relying on reuse

Pat Remias, Blue Origin’s vice president of space systems development, said Thursday that the company is confident in nailing the landing on the second flight of New Glenn. That launch, with NASA’s next set of Mars probes, is likely to occur no earlier than November from Cape Canaveral Space Force Station, Florida.

“We fully intend to recover the New Glenn first stage on this next launch,” Remias said in a presentation at the International Astronautical Congress in Sydney. “Fully intend to do it.”

Blue Origin, owned by billionaire Jeff Bezos, nicknamed the booster stage for the next flight “Never Tell Me The Odds.” It’s not quite fair to say the company’s leadership has gone all-in with their bet that the next launch will result in a successful booster landing. But the difference between a smooth touchdown and another crash landing will have a significant effect on Bezos’ Moon program.

That’s because the third New Glenn launch, penciled in for no earlier than January of next year, will reuse the same booster flown on the upcoming second flight. The payload on that launch will be Blue Origin’s first Blue Moon lander, aiming to become the largest spacecraft to reach the lunar surface. Ars has published a lengthy feature on the Blue Moon lander’s role in NASA’s effort to return astronauts to the Moon.

“We will use that first stage on the next New Glenn launch,” Remias said. “That is the intent. We’re pretty confident this time. We knew it was going to be a long shot [to land the booster] on the first launch.”

A long shot, indeed. It took SpaceX 20 launches of its Falcon 9 rocket over five years before pulling off the first landing of a booster. It was another 15 months before SpaceX launched a previously flown Falcon 9 booster for the first time.

With New Glenn, Blue’s engineers hope to drastically shorten the learning curve. Going into the second launch, the company’s managers anticipate refurbishing the first recovered New Glenn booster to launch again within 90 days. That would be a remarkable accomplishment.

Dave Limp, Blue Origin’s CEO, wrote earlier this year on social media that recovering the booster on the second New Glenn flight will “take a little bit of luck and a lot of excellent execution.”

On September 26, Blue Origin shared this photo of the second New Glenn booster on social media.

Blue Origin’s production of second stages for the New Glenn rocket has far outpaced manufacturing of booster stages. The second stage for the second flight was test-fired in April, and Blue completed a similar static-fire test for the third second stage in August. Meanwhile, according to a social media post written by Limp last week, the body of the second New Glenn booster is assembled, and installation of its seven BE-4 engines is “well underway” at the company’s rocket factory in Florida.

The lagging production of New Glenn boosters, known as GS1s (Glenn Stage 1s), is partly by design. Blue Origin’s strategy with New Glenn has been to build a small number of GS1s, each of which is more expensive and labor-intensive than SpaceX’s Falcon 9. This approach counts on routine recoveries and rapid refurbishment of boosters between missions.

However, this strategy comes with risks, as it puts the booster landings in the critical path for ramping up New Glenn’s launch rate. At one time, Blue aimed to launch eight New Glenn flights this year; it will probably end the year with two.

Laura Maginnis, Blue Origin’s vice president of New Glenn mission management, said last month that the company was building a fleet of “several boosters” and had eight upper stages in storage. That would bode well for a quick ramp-up in launch cadence next year.

However, Blue’s engineers haven’t had a chance to inspect or test a recovered New Glenn booster. Even if the next launch concludes with a successful landing, the rocket could come back to Earth with some surprises. SpaceX’s initial development of Falcon 9 and Starship was richer in hardware, with many boosters in production to decouple successful landings from forward progress.

Blue Moon

All of this means a lot is riding on an on-target landing of the New Glenn booster on the next flight. Separate from Blue Origin’s ambitions to fly many more New Glenn rockets next year, a good recovery would also mean an earlier demonstration of the company’s first lunar lander.

The lander set to launch on the third New Glenn mission is known as Blue Moon Mark 1, an unpiloted vehicle designed to robotically deliver up to 3 metric tons (about 6,600 pounds) of cargo to the lunar surface. The spacecraft will have a height of about 26 feet (8 meters), taller than the lunar lander used for NASA’s Apollo astronaut missions.

The first Blue Moon Mark 1 is funded from Blue Origin’s coffers. It is now fully assembled and will soon ship to NASA’s Johnson Space Center in Houston for vacuum chamber testing. Then, it will travel to Florida’s Space Coast for final launch preparations.

“We are building a series, not a singular lander, but multiple types and sizes and scales of landers to go to the Moon,” Remias said.

The second Mark 1 lander will carry NASA’s VIPER rover to prospect for water ice at the Moon’s south pole in late 2027. Around the same time, Blue will use a Mark 1 lander to deploy two small satellites to orbit the Moon, flying as low as a few miles above the surface to scout for resources like water, precious metals, rare Earth elements, and helium-3 that could be extracted and exploited by future explorers.

A larger lander, Blue Moon Mark 2, is in an earlier stage of development. It will be human-rated to land astronauts on the Moon for NASA’s Artemis program.

Blue Origin’s Blue Moon MK1 lander, seen in the center, is taller than NASA’s Apollo lunar lander, currently the largest spacecraft to have landed on the Moon. Blue Moon MK2 is even larger, but all three landers are dwarfed in size by SpaceX’s Starship. Credit: Blue Origin

NASA’s other crew-rated lander will be derived from SpaceX’s Starship rocket. But Starship and Blue Moon Mark 2 are years away from being ready to accommodate a human crew, and both require orbital cryogenic refueling—something never before attempted in space—to transit out to the Moon.

This has led to a bit of a dilemma at NASA. China is also working on a lunar program, eyeing a crew landing on the Moon by 2030. Many experts say that, as of today, China is on pace to land astronauts on the Moon before the United States.

Of course, 12 US astronauts walked on the Moon in the Apollo program. But no one has gone back since 1972, and NASA and China are each planning to return to the Moon to stay.

One way to speed up a US landing on the Moon might be to use a modified version of Blue Origin’s Mark 1 lander, Ars reported Thursday.

If this is the path NASA takes, the stakes for the next New Glenn launch and landing will soar even higher.

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.

Blue Origin aims to land next New Glenn booster, then reuse it for Moon mission Read More »

how-america-fell-behind-china-in-the-lunar-space-race—and-how-it-can-catch-back-up

How America fell behind China in the lunar space race—and how it can catch back up


Thanks to some recent reporting, we’ve found a potential solution to the Artemis blues.

A man in a suit speaks in front of a mural of the Moon landing.

NASA Administrator Jim Bridenstine says that competition is good for the Artemis Moon program. Credit: NASA

NASA Administrator Jim Bridenstine says that competition is good for the Artemis Moon program. Credit: NASA

For the last month, NASA’s interim administrator, Sean Duffy, has been giving interviews and speeches around the world, offering a singular message: “We are going to beat the Chinese to the Moon.”

This is certainly what the president who appointed Duffy to the NASA post wants to hear. Unfortunately, there is a very good chance that Duffy’s sentiment is false. Privately, many people within the space industry, and even at NASA, acknowledge that the US space agency appears to be holding a losing hand. Recently, some influential voices, such as former NASA Administrator Jim Bridenstine, have spoken out.

“Unless something changes, it is highly unlikely the United States will beat China’s projected timeline to the Moon’s surface,” Bridenstine said in early September.

As the debate about NASA potentially losing the “second” space race to China heats up in Washington, DC, everyone is pointing fingers. But no one is really offering answers for how to beat China’s ambitions to land taikonauts on the Moon as early as the year 2029. So I will. The purpose of this article is to articulate how NASA ended up falling behind China, and more importantly, how the Western world could realistically retake the lead.

But first, space policymakers must learn from their mistakes.

Begin at the beginning

Thousands of words could be written about the space policy created in the United States over the last two decades and all of the missteps. However, this article will only hit the highlights (lowlights). And the story begins in 2003, when two watershed events occurred.

The first of these was the loss of space shuttle Columbia in February, the second fatal shuttle accident, which signaled that the shuttle era was nearing its end, and it began a period of soul-searching at NASA and in Washington, DC, about what the space agency should do next.

“There’s a crucial year after the Columbia accident,” said eminent NASA historian John Logsdon. “President George W. Bush said we should go back to the Moon. And the result of the assessment after Columbia is NASA should get back to doing great things.” For NASA, this meant creating a new deep space exploration program for astronauts, be it the Moon, Mars, or both.

The other key milestone in 2003 came in October, when Yang Liwei flew into space and China became the third country capable of human spaceflight. After his 21-hour spaceflight, Chinese leaders began to more deeply appreciate the soft power that came with spaceflight and started to commit more resources to related programs. Long-term, the Asian nation sought to catch up to the United States in terms of spaceflight capabilities and eventually surpass the superpower.

It was not much of a competition then. China would not take its first tentative steps into deep space for another four years, with the Chang’e 1 lunar orbiter. NASA had already walked on the Moon and sent spacecraft across the Solar System and even beyond.

So how did the United States squander such a massive lead?

Mistakes were made

SpaceX and its complex Starship lander are getting the lion’s share of the blame today for delays to NASA’s Artemis Program. But the company and its lunar lander version of Starship are just the final steps on a long, winding path that got the United States where it is today.

After Columbia, the Bush White House, with its NASA Administrator Mike Griffin, looked at a variety of options (see, for example, the Exploration Systems Architecture Study in 2005). But Griffin had a clear plan in his mind that he dubbed “Apollo on Steroids,” and he sought to develop a large rocket (Ares V), spacecraft (later to be named Orion), and a lunar lander to accomplish a lunar landing by 2020. Collectively, this became known as the Constellation Program.

It was a mess. Congress did not provide NASA the funding it needed, and the rocket and spacecraft programs quickly ran behind schedule. At one point, to pay for surging Constellation costs, NASA absurdly mulled canceling the just-completed International Space Station. By the end of the first decade of the 2000s, two things were clear: NASA was going nowhere fast, and the program’s only achievement was to enrich the legacy space contractors.

By early 2010, after spending a year assessing the state of play, the Obama administration sought to cancel Constellation. It ran into serious congressional pushback, powered by lobbying from Boeing, Lockheed Martin, Northrop Grumman, and other key legacy contractors.

The Space Launch System was created as part of a political compromise between Sen. Bill Nelson (D-Fla.) and senators from Alabama and Texas.

Credit: Chip Somodevilla/Getty Images

The Space Launch System was created as part of a political compromise between Sen. Bill Nelson (D-Fla.) and senators from Alabama and Texas. Credit: Chip Somodevilla/Getty Images

The Obama White House wanted to cancel both the rocket and the spacecraft and hold a competition for the private sector to develop a heavy lift vehicle. Their thinking: Only with lower-cost access to space could the nation afford to have a sustainable deep space exploration plan. In retrospect, it was the smart idea, but Congress was not having it. In 2011, Congress saved Orion and ordered a slightly modified rocket—it would still be based on space shuttle architecture to protect key contractors—that became the Space Launch System.

Then the Obama administration, with its NASA leader Charles Bolden, cast about for something to do with this hardware. They started talking about a “Journey to Mars.” But it was all nonsense. There was never any there there. Essentially, NASA lost a decade, spending billions of dollars a year developing “exploration” systems for humans and talking about fanciful missions to the red planet.

There were critics of this approach, myself included. In 2014, I authored a seven-part series at the Houston Chronicle called Adrift, the title referring to the direction of NASA’s deep space ambitions. The fundamental problem is that NASA, at the direction of Congress, was spending all of its exploration funds developing Orion, the SLS rocket, and ground systems for some future mission. This made the big contractors happy, but their cost-plus contracts gobbled up so much funding that NASA had no money to spend on payloads or things to actually fly on this hardware.

This is why doubters called the SLS the “rocket to nowhere.” They were, sadly, correct.

The Moon, finally

Fairly early on in the first Trump administration, the new leader of NASA, Jim Bridenstine, managed to ditch the Journey to Mars and establish a lunar program. However, any efforts to consider alternatives to the SLS rocket were quickly rebuffed by the US Senate.

During his tenure, Bridenstine established the Artemis Program to return humans to the Moon. But Congress was slow to open its purse for elements of the program that would not clearly benefit a traditional contractor or NASA field center. Consequently, the space agency did not select a lunar lander until April 2021, after Bridenstine had left office. And NASA did not begin funding work on this until late 2021 due to a protest by Blue Origin. The space agency did not support a lunar spacesuit program for another year.

Much has been made about the selection of SpaceX as the sole provider of a lunar lander. Was it shady? Was the decision rushed before Bill Nelson was confirmed as NASA administrator? In truth, SpaceX was the only company that bid a value that NASA could afford with its paltry budget for a lunar lander (again, Congress prioritized SLS funding), and which had the capability the agency required.

To be clear, for a decade, NASA spent in excess of $3 billion a year on the development of the SLS rocket and its ground systems. That’s every year for a rocket that used main engines from the space shuttle, a similar version of its solid rocket boosters, and had a core stage the same diameter as the shuttle’s external tank. Thirty billion bucks for a rocket highly derivative of a vehicle NASA flew for three decades. SpaceX was awarded less than a single year of this funding, $2.9 billion, for the entire development of a Human Landing System version of Starship, plus two missions.

So yes, after 20 years, Orion appears to be ready to carry NASA astronauts out to the Moon. After 15 years, the shuttle-derived rocket appears to work. And after four years (and less than a tenth of the funding), Starship is not ready to land humans on the Moon.

When will Starship be ready?

Probably not any time soon.

For SpaceX and its founder, Elon Musk, the Artemis Program is a sidequest to the company’s real mission of sending humans to Mars. It simply is not a priority (and frankly, the limited funding from NASA does not compel prioritization). Due to its incredible ambition, the Starship program has also understandably hit some technical snags.

Unfortunately for NASA and the country, Starship still has a long way to go to land humans on the Moon. It must begin flying frequently (this could happen next year, finally). It must demonstrate the capability to transfer and store large amounts of cryogenic propellant in space. It must land on the Moon, a real challenge for such a tall vehicle, necessitating a flat surface that is difficult to find near the poles. And then it must demonstrate the ability to launch from the Moon, which would be unprecedented for cryogenic propellants.

Perhaps the biggest hurdle is the complexity of the mission. To fully fuel a Starship in low-Earth orbit to land on the Moon and take off would require multiple Starship “tanker” launches from Earth. No one can quite say how many because SpaceX is still working to increase the payload capacity of Starship, and no one has real-world data on transfer efficiency and propellant boiloff. But the number is probably at least a dozen missions. One senior source recently suggested to Ars that it may be as many as 20 to 40 launches.

The bottom line: It’s a lot. SpaceX is far and away the highest-performing space company in the Solar System. But putting all of the pieces together for a lunar landing will require time. Privately, SpaceX officials are telling NASA it can meet a 2028 timeline for Starship readiness for Artemis astronauts.

But that seems very optimistic. Very. It’s not something I would feel comfortable betting on, especially if China plans to land on the Moon “before” 2030, and the country continues to make credible progress toward this date.

What are the alternatives?

Duffy’s continued public insistence that he will not let China beat the United States back to the Moon rings hollow. The shrewd people in the industry I’ve spoken with say Duffy is an intelligent person and is starting to realize that betting the entire farm on SpaceX at this point would be a mistake. It would be nice to have a plan B.

But please, stop gaslighting us. Stop blustering about how we’re going to beat China while losing a quarter of NASA’s workforce and watching your key contractors struggle with growing pains. Let’s have an honest discussion about the challenges and how we’ll solve them.

What few people have done is offer solutions to Duffy’s conundrum. Fortunately, we’re here to help. As I have conducted interviews in recent weeks, I have always closed by asking this question: “You’re named NASA administrator tomorrow. You have one job: get NASA astronauts safely back to the Moon before China. What do you do?”

I’ve received a number of responses, which I’ll boil down into the following buckets. None of these strike me as particularly practical solutions, which underscores the desperation of NASA’s predicament. However, recent reporting has uncovered one solution that probably would work. I’ll address that last. First, the other ideas:

  • Stubby Starship: Multiple people have suggested this option. Tim Dodd has even spoken about it publicly. Two of the biggest issues with Starship are the need for many refuelings and its height, making it difficult to land on uneven terrain. NASA does not need Starship’s incredible capability to land 100–200 metric tons on the lunar surface. It needs fewer than 10 tons for initial human missions. So shorten Starship, reduce its capability, and get it down to a handful of refuelings. It’s not clear how feasible this would be beyond armchair engineering. But the larger problem is that Musk wants Starship to get taller, not shorter, so SpaceX would probably not be willing to do this.
  • Surge CLPS funding: Since 2019, NASA has been awarding relatively small amounts of funding to private companies to land a few hundred kilograms of cargo on the Moon. NASA could dramatically increase funding to this program, say up to $10 billion, and offer prizes for the first and second companies to land two humans on the Moon. This would open the competition to other companies beyond SpaceX and Blue Origin, such as Firefly, Intuitive Machines, and Astrobotic. The problem is that time is running short, and scaling up from 100 kilograms to 10 metric tons is an extraordinary challenge.
  • Build the Lunar Module: NASA already landed humans on the Moon in the 1960s with a Lunar Module built by Grumman. Why not just build something similar again? In fact, some traditional contractors have been telling NASA and Trump officials this is the best option, that such a solution, with enough funding and cost-plus guarantees, could be built in two or three years. The problem with this is that, sorry, the traditional space industry just isn’t up to the task. It took more than a decade to build a relatively simple rocket based on the space shuttle. The idea that a traditional contractor will complete a Lunar Module in five years or less is not supported by any evidence in the last 20 years. The flimsy Lunar Module would also likely not pass NASA’s present-day safety standards.
  • Distract China: I include this only for completeness. As for how to distract China, use your imagination. But I would submit that ULA snipers or starting a war in the South China Sea is not the best way to go about winning the space race.

OK, I read this far. What’s the answer?

The answer is Blue Origin’s Mark 1 lander.

The company has finished assembly of the first Mark 1 lander and will soon ship it from Florida to Johnson Space Center in Houston for vacuum chamber testing. A pathfinder mission is scheduled to launch in early 2026. It will be the largest vehicle to ever land on the Moon. It is not rated for humans, however. It was designed as a cargo lander.

There have been some key recent developments, though. About two weeks ago, NASA announced that a second mission of Mark 1 will carry the VIPER rover to the Moon’s surface in 2027. This means that Blue Origin intends to start a production line of Mark 1 landers.

At the same time, Blue Origin already has a contract with NASA to develop the much larger Mark 2 lander, which is intended to carry humans to the lunar surface. Realistically, though, this will not be ready until sometime in the 2030s. Like SpaceX’s Starship, it will require multiple refueling launches. As part of this contract, Blue has worked extensively with NASA on a crew cabin for the Mark 2 lander.

A full-size mock-up of the Blue Origin Mk. 1 lunar lander.

Credit: Eric Berger

A full-size mock-up of the Blue Origin Mk. 1 lunar lander. Credit: Eric Berger

Here comes the important part. Ars can now report, based on government sources, that Blue Origin has begun preliminary work on a modified version of the Mark 1 lander—leveraging learnings from Mark 2 crew development—that could be part of an architecture to land humans on the Moon this decade. NASA has not formally requested Blue Origin to work on this technology, but according to a space agency official, the company recognizes the urgency of the need.

How would it work? Blue Origin is still architecting the mission, but it would involve “multiple” Mark 1 landers to carry crew down to the lunar surface and then ascend back up to lunar orbit to rendezvous with the Orion spacecraft. Enough work has been done, according to the official, that Blue Origin engineers are confident the approach could work. Critically, it would not require any refueling.

It is unclear whether this solution has reached Duffy, but he would be smart to listen. According to sources, Blue Origin founder Jeff Bezos is intrigued by the idea. And why wouldn’t he be? For a quarter of a century, he has been hearing about how Musk has been kicking his ass in spaceflight. Bezos also loves the Apollo program and could now play an essential role in serving his country in an hour of need. He could beat SpaceX to the Moon and stamp his name in the history of spaceflight.

Jeff and Sean? Y’all need to talk.

Photo of Eric Berger

Eric Berger is the senior space editor at Ars Technica, covering everything from astronomy to private space to NASA policy, and author of two books: Liftoff, about the rise of SpaceX; and Reentry, on the development of the Falcon 9 rocket and Dragon. A certified meteorologist, Eric lives in Houston.

How America fell behind China in the lunar space race—and how it can catch back up Read More »

meet-the-arc-spacecraft:-it-aims-to-deliver-cargo-anywhere-in-the-world-in-an-hour

Meet the Arc spacecraft: It aims to deliver cargo anywhere in the world in an hour

The Arc spacecraft lands under parachutes in this rendering.

Credit: Inversion

The Arc spacecraft lands under parachutes in this rendering. Credit: Inversion

The test spacecraft, with a mass of about 200 pounds (90 kg), performed well, Fiaschetti said. It demonstrated the capability to raise and lower its orbit and remains power-positive to date, periodically checking in with Inversion flight controllers. However, the spacecraft will not make a controlled landing.

“Ray won’t be coming back,” Fiaschetti said. “We’re doing long-term testing of software on orbit.”

Although Ray did not land, Inversion now feels confident enough in its technology to move into the production of the larger Arc vehicle, which was unveiled on Wednesday evening. About the size of a large tabletop—Arc is 4 feet wide and 8 feet tall—the company is aiming to launch the first Arc vehicle by the end of 2026. Fiaschetti said Inversion is “on a really good path” to make that timeline.

So what does the military want to ship?

Arc is a lifting body spacecraft, and it will do the majority of its maneuvering in the atmosphere, where it has 1,000 km of cross-range capability during reentry. It will land under parachutes and therefore not require a runway. Because the vehicle’s propulsion system uses non-toxic materials, a soldier can approach it immediately after landing without any protective gear.

So what would the US military want to pre-position in space for delivery at a moment’s notice to any location around the world?

“We like to describe this as mission-enabling cargo or effects,” Fiaschetti said. “This could be a wide variety of specific payloads, anything from medical supplies to drones to what have you. But the key discriminator is, does this make a difference in the moment it’s needed when it gets back down to the ground? You know, for the military and national security, if they need their cargo before the fight is over.”

The company says it has already built a “full-scale manufacturing development unit of the primary structure” for the first Arc vehicle. It would be an impressive capability if the small team at Inversion—now 60 people strong, and growing—can bring the Arc spacecraft to market. If, of course, is the operative word. “Space is hard” may be a cliché, but it also happens to be true.

Meet the Arc spacecraft: It aims to deliver cargo anywhere in the world in an hour Read More »

in-their-own-words:-the-artemis-ii-crew-on-the-frenetic-first-hours-of-their-flight

In their own words: The Artemis II crew on the frenetic first hours of their flight

No one will be able to sleep when the launch window opens, however.

Wiseman: About seven seconds prior to liftoff, the four main engines light, and they come up to full power. And then the solids light, and that’s when you’re going. What’s crazy to me is that it’s six and a half seconds into flight before the solids clear the top of the tower. Five million pounds of machinery going straight uphill. Six and a half seconds to clear the tower. As a human, I can’t wait to feel that force.

A little more than two minutes into flight, the powerful side-mounted boosters will separate. They will have done the vast majority of lifting to that point, with the rocket already reaching a velocity of 3,100 mph (5,000 kph) and an altitude of 30 miles (48 km), well on its way to space. As payload specialists, Koch and Hansen will largely be along for the ride. Wiseman, the commander, and Glover, the pilot, will be tracking the launch, although the rocket’s flight will be fully automated unless something goes wrong.

Wiseman: Victor and I, we have a lot of work. We have a lot of systems to monitor. Hopefully, everything goes great, and if it doesn’t, we’re very well-trained on what to do next.

After 8 minutes and 3 seconds, the rocket’s core stage will shut down, and the upper stage and Orion spacecraft will separate about 10 seconds later. They will be in space, with about 40 minutes to prepare for their next major maneuver.

In orbit

Koch: The wildest thing in this mission is that literally, right after main-engine cutoff, the first thing Jeremy and I do is get up and start working. I don’t know of a single other mission, certainly not in my memory, where that has been the case in terms of physical movement in the vehicle, setting things up.

Koch, Wiseman, and Glover have all flown to space before, either on a SpaceX Dragon or Russian Soyuz vehicle, and spent several months on the International Space Station. So they know how their bodies will react to weightlessness. Nearly half of all astronauts experience “space adaptation syndrome” during their first flight to orbit, and there is really no way to predict who it will afflict beforehand. This is a real concern for Hansen, a first-time flier, who is expected to hop out of his seat and start working.

Canadian Astronaut Jeremy Hansen is a first-time flier on Artemis II.

Credit: NASA

Canadian Astronaut Jeremy Hansen is a first-time flier on Artemis II. Credit: NASA

Hansen: I’m definitely worried about that, just from a space motion sickness point of view. So I’ll just be really intentional. I won’t move my head around a lot. Obviously, I’m gonna have to get up and move. And I’ll just be very intentional in those first few hours while I’m moving around. And the other thing that I’ll do—it’s very different from Space Station—is I just have everything memorized, so I don’t have to read the procedure on those first few things. So I’m not constantly going down to the [tablet] and reading, and then up. And I’ll just try to minimize what I do.

Koch and Hansen will set up and test essential life support systems on the spacecraft because if the bathroom does not work, they’re not going to the Moon.

Hansen: We kind of split the vehicle by side. So Christina is on the side of the toilet. She’s taking care of all that stuff. I’m on the side of the water dispenser, which is something they want to know: Can we dispense water? It’s not a very complicated system. We just got to get up, get the stuff out of storage, hook it up. I’ll have some camera equipment that I’ll pull out of there. I’ve got the masks we use if we have a fire and we’re trying to purge the smoke. I’ve got to get those set up and make sure they’re good to go. So it’s just little jobs, little odds and ends.

Unlike a conventional rocket mission, Artemis II vehicle’s upper stage, known as the Interim Cryogenic Propulsion Stage, will not fire right away. Rather, after separating from the core stage, Orion will be in an elliptical orbit that will take it out to an apogee of 1,200 nautical miles, nearly five times higher than the International Space Station. There, the crew will be further from Earth than anyone since the Apollo program.

In their own words: The Artemis II crew on the frenetic first hours of their flight Read More »

another-setback-for-firefly-aerospace’s-beleaguered-rocket-program

Another setback for Firefly Aerospace’s beleaguered rocket program

Alpha’s track record

The booster destroyed Monday was slated to fly on the seventh launch of Firefly’s Alpha rocket, an expendable, two-stage launch vehicle capable of placing a payload of a little over 2,200 pounds, or a metric ton, into low-Earth orbit.

This upcoming launch was supposed to be the Alpha rocket’s return to flight after an in-flight failure in April, when the upper stage’s engine shut down before the rocket could reach orbit and deploy its satellite payload.

But engineers traced the cause of the failure to the first stage, which ruptured milliseconds after stage separation, sending out a blast wave that damaged the upper stage engine. Investigators concluded the most likely cause of the rupture was thermal damage from a phenomenon known as plume-induced flow separation. This occurs when a rocket plume expands at higher altitudes, creating conditions that, in some cases, can draw the hot exhaust plume farther up the vehicle.

The Alpha rocket flew a higher angle of attack on the April launch than it did on prior missions, exposing one side of the rocket to more heating from the recirculated engine exhaust plume. At stage separation, the thermal damage led to the booster’s structural failure. Firefly said it would add a thicker thermal protection barrier to the booster for future missions and reduce the angle of attack during key phases of flight.

Firefly announced last month that it received clearance from the Federal Aviation Administration to resume Alpha launches.

The rocket already had a mixed record heading into this year. Firefly has only achieved two fully successful missions in six launches of the Alpha rocket. Two missions put their payloads into off-target orbits, and two Alpha launches—the rocket’s debut in 2021 and the flight in April—failed to reach orbit at all.

Another setback for Firefly Aerospace’s beleaguered rocket program Read More »

senators-try-to-halt-shuttle-move,-saying-“little-evidence”-of-public-demand

Senators try to halt shuttle move, saying “little evidence” of public demand

“Houston’s disappointment in not being selected is wholly understandable,” the four senators wrote, “but removing an item from the National Collection is not a viable solution.”

In July, Cornyn and Cruz successfully added language to the “One Big Beautiful Bill Act” championed by President Donald Trump, which enabled acting NASA Administrator Sean Duffy to then identify Discovery for relocation. The provision also called for $85 million to be made available to transport and display the shuttle in Houston.

“There are also profound financial challenges associated with this transfer,” wrote Kelly. Warner, Kaine, and Durbin. “The Smithsonian estimates that transporting Discovery from Virginia to Houston could cost more than $50 million, with another $325 million needed for planning, exhibit reconstruction, and new facilities.”

“Dedicating hundreds of millions of taxpayer dollars to move an artifact that is already housed, displayed, and preserved in a world-class facility is both inefficient and unjustifiable,” the senators wrote.

Risks and rewards

Then there are the logistical challenges with relocating Discovery, which could result in damaging it, “permanently diminishing its historical and cultural value for future generations.”

“Moving Discovery by barge or road would be far more complex [than previous shuttle moves], exposing it to saltwater, weather, and collision risks across a journey several times longer,” the letter reads. “As a one-of-a-kind artifact that has already endured the stresses of spaceflight, Discovery is uniquely vulnerable to these hazards. The heat tiles that enabled repeated shuttle missions become more fragile with age, and they are irreplaceable.”

Kelly, who previously lived in Houston when he was part of the space program, agrees that the city is central to NASA’s human spaceflight efforts, but, along with Warner, Kaine, and Durbin, points out that displaying Discovery would come with another cost: an admission fee, limiting public access to the shuttle.

“The Smithsonian is unique among museums for providing visitors with access to a national treasure meant to inspire the American public without placing economic barriers,” wrote the senators.

Under the terms of the act, NASA has until January 4, 2027 (18 months after the bill’s enactment) to transfer Discovery to Space Center Houston. For its part, the Smithsonian says that it owns the title to Discovery and, as the institution is not part of the federal government, the orbiter is no longer the government’s to move.

Senators try to halt shuttle move, saying “little evidence” of public demand Read More »