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Featured

Alba Orbital launches 5 satellites via SpaceX— now a total of 53 launched satellites for the firm

March 17, 2025

Alba Orbital integrated five PocketQube satellites from three different countries for their flight on-board SpaceX’s Transporter-13 Rideshare mission.

The satellites were integrated into Alba Orbital’s PocketQube Deployer, AlbaPod, at their new facilities in Hillington Industrial Estate, Glasgow, the world’s first PocketQube factory. After integration, the cluster of pocket-sized satellites were shipped out to SpaceX and then hitched their ride to LEO.

Alba Orbital’s AlbaPod

PocketQubes are highly miniaturized satellites, typically 5 cm cubed per unit (‘P’), that can be launched to orbit for as little as 25K euros via Alba Orbital’s rideshare services. PocketQubes are cost-effective, quicker to build, and provide versatile options for a variety of missions that range from educational projects to advanced technological demonstrations.

Payloads aboard this mission…

HADES-ICM – HYDRA SPACE / IC MERCURY / SMART IR

A 1.5p PocketQube, this smallsat is carrying an open voice transponder for the radio amateur community. It will be operated by the non-proft organization AMSAT-EA. The PocketQube includes the UK based Smart IR second, graphene based technology experiment that will ber conducted on-orbit. The PocketQube also includes icMercury, Interstellar Communication Holdings Inc. nspiring space sustainability text messages that will be broadcasted periodically by HADES-ICM

HYDRA-W – HYDRA SPACE

Returning customer Hydra Space is developing an IoT network using their 1.5p PocketQube platform. Hydra-W will add to this growing constellation. This PocketQube Includes an on-orbit experiment from UC3M – Universidad Carlos III (Spain) implemented by Terahertz Research group and IoT connectivity experiment by Hydra Space

UNICORN-2O, 2P & 2Q – ALBA ORBITAL

Three 3p PocketQubes imaging satellites for Alba night time earth observation constellation to image earth in daytime and night time. These are the 15th, 16th and 17th Unicorn-2 satellites to launch into orbit.

About Alba Orbital
Alba Orbital (UK, USA, Germany) is the world’s leading PocketQube company that has delivered 53 pico-satellites on-orbit to date. Alba is a vertically integrated NewSpace company ‘democratizing access to space’, providing turnkey solutions from advanced pico-satellite platforms, low-cost launch opportunities, and ground station services. Alba has worked with more than er 40 customers across four continents, including clients such as Stanford University, Carnegie Mellon University and TU Delft.

Filed Under: Alba Orbital, Featured, IoT Connectivity, Launch, News, PocketQube, PocketQubes, Satellite IoT, Scotland, SmallSat, SmallSat Builds, Smallsat Bus, Smallsat Components, Smallsat Demo Mission, Smallsat Deployment, SmallSat Design, Smallsat Development, Smallsat Dispenser System, smallsats, SpaceX Transporter-13 Mission, United Kingdom (UK), ydra-W (AlbaOrbital) Tagged With: Featured

Rocket Lab’s Pioneer spacecraft is deployed to orbit, powering Varda Space’ Industries’ 3rd in-space manufacturing mission

March 15, 2025

Rocket Lab USA, Inc.’s third Pioneer spacecraft for Varda Space Industries, Inc. is successfully operating on-orbit—the W-3 mission launched on March 14th from Vandenberg Space Force Base.

The new mission is underway on-orbit just 15 days after the successful re-entry and landing of Varda’s W-2 mission, which was also powered by Rocket Lab’s Pioneer Spacecraft.

Rocket Lab’s Pioneer spacecraft supports Varda’s 120 kg manufacturing capsule on-orbit, providing power, communications, propulsion, and attitude control for the mission. Inside the capsule, Varda carries out in-space manufacturing and processing of pharmaceutical products that benefit from the microgravity environment that is impossible to recreate on Earth.

Rocket Lab’s spacecraft, image courtesy of the company.

The Pioneer spacecraft leverages Rocket Lab’s vertically integrated spacecraft components and subsystems, including spacecraft propulsion, flight software, avionics, reaction wheels, star trackers, separation system, solar panels, radios, composite structures and tanks, and more.

Once Varda’s in-space manufacturing processes are completed on-orbit, Rocket Lab conducts in-space operations, deorbiting, and reentry positioning maneuvers to set the capsule on a reentry course to Earth for landing at the Koonibba Test Range in South Australia, operated by Southern Launch. The W-3 mission is Rocket Lab’s third for Varda. The first, W-1, was successfully completed in February 2024 and landed in the Utah desert, while the latest mission, W-2, was completed and landed in south Australia on Feb. 27, 2025.

The Company’s fourth contracted Pioneer spacecraft for Varda is currently undergoing final assembly at Rocket Lab’s Spacecraft Production Complex and Headquarters in Long Beach, California.

Photo of Rocket Lab’s Pioneer spacecraft,
courtesy of the company

Sir Peter Beck, Rocket Lab Founder and CEO, said, “The W-1 mission was the first in-space manufacturing mission to happen outside of the International Space Station. Now, just over a year later, we have a third mission on orbit after bringing another one safely back home. We’re immensely proud to have supported our mission partner Varda to usher in a new era of rapid, reliable, and innovative commercial in-space manufacturing and hypersonic reentry capability.”

“It’s remarkable that we have been able to launch our third mission in such rapid succession after the reentry of our second. High cadence launch and return will soon be commonplace, and reentry of materials from space to Earth will go from being novel to being normal,” said Wendy Shimata, VP of Autonomous Systems at Varda.

Filed Under: On-Orbit Deployment, On-Orbit Validation, Pioneer (Rocket Lab), Rocket Lab, SmallSat, Smallsat Contract, Smallsat Deployment, Smallsat Launch, Smallsat Payloads, smallsats, Varda Space Industries, W-3 (Varda) Tagged With: Featured

SpaceX sends NASA’s Crew-10 astronauts to ISS with two returning home after an unscheduled prolonged stay

March 14, 2025

On Friday, March 14 at 7:03 p.m. ET, Falcon 9 launched Dragon’s tenth operational human spaceflight mission (Crew-10) to the International Space Station from Launch Complex 39A (LC-39A) at NASA’s Kennedy Space Center in Florida. Photos by Satnews.

During their time on the orbiting laboratory, the crew will conduct new research to prepare for human exploration beyond low-Earth orbit and to benefit humanity on Earth.

Following stage separation, Falcon 9’s first stage landed on Landing Zone 1 (LZ-1) at Cape Canaveral Space Force Station.

Dragon will autonomously dock with the space station on Saturday, March 15 at approximately 11:30 p.m. ET. Follow Dragon and the crew’s flight below.

They also aim to rescue Wilmore and Williams — who were only slated to be at the ISS for about a week in June before an issue emerged with Boeing’s Starliner spacecraft, which returned to Earth unmanned in September.

The live webcast of this mission will resume about one hour prior to docking, which you can watch here and on X @SpaceX. You can also watch the webcast on the new X TV app.

SpaceX scrubs Crew-10 human spaceflight mission due to transporter-erector hydraulics issue

SpaceX and NASA are targeting no earlier than Friday, March 14 for Falcon 9’s launch of Dragon’s 10th operational human spaceflight mission (Crew-10) to the International Space Station from Launch Complex 39A (LC-39A) at NASA’s Kennedy Space Center in Florida. Launch is targeted for 7:03 p.m. ET, with a backup opportunity available on Saturday, March 15 at 6:41 p.m. ET. This new date is after an attempt to launch today was scrubbed due to a hydraulics issue with the transporter-erector, the structure that hauls the Falcon 9 to the pad and supports it once it’s there.

“Great working with you today,” Crew-10 commander Anne McClain of NASA told launch controllers after the scrub. “Kudos from the whole team, I know it was a lot of work to try to go, but like I said earlier, we’ll be ready when the equipment is.”

“This is a concern of basically just how the vehicle is held in place during release at liftoff,” said Mike Ravenscroft, launch vehicle office manager with NASA’s Commercial Crew Program.

There were no issues with Crew-10’s Falcon 9 or its Crew Dragon capsule, named Endurance.

SpaceX’s live webcast of this mission will begin about one hour and 20 minutes prior to liftoff, which you can watch on X @SpaceX. You can also watch the webcast on the new X TV app.

The Dragon spacecraft supporting this mission previously flew NASA’s Crew-3, Crew-5, and Crew-7 missions to and from the space station. This will be the second flight for the first stage booster supporting this mission, which previously launched the SES 03b mPOWER-e mission. Following stage separation, Falcon 9’s first stage will land on Landing Zone 1 (LZ-1) at Cape Canaveral Space Force Station.

During their time on the orbiting laboratory, the crew will conduct new research to prepare for human exploration beyond low-Earth orbit and to benefit humanity on Earth.

SpaceX and NASA’s Dragon on Crew-10 mission to send astronauts to ISS no earlier than Wednesday

SpaceX and NASA are targeting no earlier than Wednesday, March 12 for Falcon 9’s launch of Dragon’s 10th operational human spaceflight mission (Crew-10) to the International Space Station from Launch Complex 39A (LC-39A) at NASA’s Kennedy Space Center in Florida. Launch is targeted for 7:48 p.m. ET, with a backup opportunity available on Thursday, March 13 at 7:26 p.m. ET.

SpaceX’s live webcast of this mission will begin about one hour and 20 minutes prior to liftoff, which you can watch on X @SpaceX. You can also watch the webcast on the new X TV app.

The Dragon spacecraft supporting this mission previously flew NASA’s Crew-3, Crew-5, and Crew-7 missions to and from the space station. Following stage separation, Falcon 9’s first stage will land on Landing Zone 1 (LZ-1) at Cape Canaveral Space Force Station.

During their time on the orbiting laboratory, the crew will conduct new research to prepare for human exploration beyond low-Earth orbit and to benefit humanity on Earth.

Filed Under: Astronauts, Boeing, Boeing Starliner, Booster, Booster Recovery, Dragon Spacecraft (SpaceX), Falcon 9, International Space Station (ISS), Kennedy Space Center, Launch Complex 39A (Kennedy Space Center), Low Earth Orbit (LEO), NASA, Research, Roscosmos, SpaceX, SpaceX Crew Mission, SpaceX Falcon 9 Tagged With: Featured

Rocket Lab launches 61st Electron mission, the 2nd launch for iQPS

March 14, 2025

Photo of the Electron launch of the iQPS SAR satellite, courtesy of Rocket Lab.

Rocket Lab USA, Inc. (Nasdaq: RKLB) has successfully launched their second mission for Japanese customer, the Institute for Q-shu Pioneers of Space, Inc. (iQPS).

Artistic rendition of an iQPS SAR satellite on-orbit, courtesy of the company.

‘The Lightning God Reigns’ mission lifted-off from Rocket Lab Launch Complex 1 in Mahia, New Zealand, at 1:00 p.m. NZDT (00:00 UTC) on March 15, 2025, to successfully deploy iQPS’ QPS-SAR-9 spacecraft to a 575 km circular Earth orbit.

The mission follows Rocket Lab’s first launch for the company in December of 2023, when Electron deployed another QPS-SAR satellite as part of iQPS’ newly established radar imaging constellation.

“The Lightning God Reigns” is the first of eight new launches for iQPS that are scheduled to launch throughout 2025 and 2026 as part of one of the largest Electron launch agreements to date. Five more launches are expected to take place in 2025, with the remaining two scheduled for 2026. Rocket Lab’s next mission for iQPS is scheduled to launch no earlier than May 2025.

Each mission has been commissioned to build out iQPS’ planned constellation of up to 36 synthetic aperture radar (SAR) satellites. The constellation is capable of imaging the Earth day and night and through any weather, to provide near real-time observation data for almost any location in the world.

Rocket Lab’s next mission is scheduled to launch from Rocket Lab Launch Complex 1 in just three days on March 18, 2025, NZDT.

Rocket Lab founder and CEO, Sir Peter Beck, said, “Congratulations to the Rocket Lab and iQPS teams on yet another successful mission together. Every Electron launch in 2025 so far has been to expand a satellite constellation and with this latest mission success, you can see why. Electron provides our customers with total flexibility and control over their schedule, orbit, and other critical mission elements to create their constellation exactly as they need it. We’re looking forward to continuing our constellation build out for iQPS this year and next.”

iQPS CEO, Dr. Shunsuke Onishi, said, “I sincerely appreciate the dedication and hard work of the teams at iQPS and Rocket Lab in making this launch mission a success, and I am truly impressed by the short timeline from QPS-SAR-9’s departure from Fukuoka, Japan, through its journey via Mahia Peninsula, to its successful deployment into LEO. As we prepare for the launch of seven more QPS-SARs between this year and next year, I am reassured by the reliability and efficiency of Electron in executing missions like this one.”

Filed Under: iQPS (Japan), LEO, Q-shu Pioneers of Space Inc. (iQPS), Rocket Lab, Rocket Lab Launch Complex 1, SAR, SAR, SAR Payload, Satellites, SmallSat, Smallsat Deployment, Smallsat Launch, Smallsat Launch Vehicles, Smallsat Markets, Smallsat Missions, smallsats, Synthetic Aperture Radar (SAR) Tagged With: Featured

Astrum Mobile selects SWISSto12 to manufacture NEASTAR-1 GEO satellite

March 11, 2025

Asia Pacific’s only Satellite-to-Device (S2D) company, Astrum Mobile will operate the very first Satellite-to-Device (S2D) platform delivering 5G Non-Terrestrial Network (NTN) service.

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Astrum Mobile’s vision for a ubiquitous S2D service directly to end-user smartphones and smart devices is advancing with the selection of SWISSto12 as the manufacturer of the NEASTAR-1 satellite, based on the small geostationary HummingSat platform, to be operated from GEO position 105E over Asia Pacific covering the APAC region.

As the industry shifts towards direct-to-end-user device services, Astrum Mobile’s S2D service will leverage 3GPP (3rd Generation Partnership Project) NTN to deliver rich media, data casting, IoT, mass notification, and in addition, emergency notification services throughout Asia Pacific. Operating as a high-power S2D service in L-band and resistant to severe weather-related radio frequency service fade, Astrum Mobile will provide enhanced Service Level Assurances (SLA) and avoid natural service disruptions caused by events such as typhoons, floods, and earthquake

End users will access the service using standard smartphones and smart devices. Astrum Mobile aims to offer ubiquitous services and will partner with local innovators to provide compelling services in each country. NEASTAR-1 will be equipped with on-board reconfigurable beams to address market changes and dynamics over time.

“Astrum believes that in today’s connected world, everyone should have affordable access to various rich media services, including broadcast services, news, information, social media, and emergency services, especially in areas where life is at risk due to the lack of terrestrial services. Leveraging the always-available smartphone or smart device is the most compelling value proposition, and the time is right with the recent industry shift to 3GPP 5G NTN features on smartphones and devices. SWISSto12 was selected for its commercial approach, experienced satellite telecommunications team, as well as its small and agile spacecraft platform. NEASTAR-1 is the fifth satellite in the HummingSat product line, benefiting from extensive manufacturing experience, heritage and synergies to meet Astrum Mobile’s business plan,” said Michael Do, Chief Operating Officer of Astrum Mobile.

“We have received significantly positive assurance from customers and partners that such a service will address the need to provide ubiquitous service access that meets national and commercial interests for enabling communications anywhere, everywhere. NEASTAR-1 is generating tremendous interest and excitement, and we look forward to launching Asia Pacific’s first S2D services,”” said Sean Wallace, Chief Executive Officer of Astrum Mobile.

“SWISSto12 is delighted to partner with Astrum Mobile to deliver NEASTAR-1 on its first S2D mission. We will demonstrate the performance of a powerful S2D payload packed into the compact form factor of HummingSat. This adds another validation to our mission to better connect and protect users worldwide by providing agile geostationary satellite communications,” said Emile de Rijk, CEO and Founder of SWISSto12.

About Astrum Mobil
Astrum’s mission is to deliver the next generation of Satellite-to-Device (S2D) services with seamless, ubiquitous coverage, efficiency, and affordability for the public. In collaboration with their 3GPP 5G NTN ecosystem partners, Astrum’s geosynchronous satellite provides media services, emergency notifications, IoT, and datacasting capabilities across the Asia region. 

About SWISSto12
SWISSto12 is a leading manufacturer of advanced satellite RF products, payloads and systems, including the HummingSat: a small yet powerful geostationary telecommunications satellite developed in collaboration with the European Space Agency (ESA) through its public-private-partnership program. The company’s RF products benefit from unique and patented 3D-printing technologies and associated Radio Frequency (RF) product designs that deliver lightweight, compact, highly performing, and competitive RF functionality.
In addition to its space portfolio, the company is also active in telecommunications and aeronautic industry. SWISSto12 has developed commercially with success in Europe and in the USA, and is amongst the fastest growing aerospace companies in Europe. SWISSto12 spun off in 2011 from the Swiss Federal Institute of Technology in Lausanne (EPFL), is privately owned and backed by prominent Swiss and European Investors. 

Filed Under: Astrum Mobile (Singapore), NEASTAR-1 (Astrum Mobile), News, SWISSto12 Tagged With: Featured

SKY Perfect JSAT selects Thales Alenia Space to build “JSAT-32” communications satellite

March 10, 2025

Artistic rendition of JSAT-32 — image is courtesy of Thales Alenia Space/Briot

SKY Perfect JSAT Corporation and Thales Alenia Space have signed a contract to build the GEO communications satellite, “JSAT-32.”

Operating in the Ku and Ka frequency bands, JSAT-32 will provide coverage over Japan and its surrounding seas, with newly added spot beams for mobility applications. JSAT-32 will serve as a future replacement for existing SKY Perfect JSAT satellites that provide communication and distribution services in Japan.

As prime contractor, Thales Alenia Space will be responsible for the design, manufacturing, testing and delivery of the satellite to the designated launch pad. The company will also provide the associated ground segment. With a launch mass of 3.7 tons, JSAT-32 will be built on Thales Alenia Space’s Spacebus 4000B2 platform, renowned for its robustness, reliability and time-to-market efficiency. The satellite is scheduled for launch in 2027, and will be designed to have an in-orbit lifetime of over 15 years.

“The procurement of JSAT-32 is part of our strategic investment, aligning with our long-term satellite fleet refresh plan,” said SKY Perfect JSAT President and CEO Eiichi Yonekura. “With its additional Ka-band payload, JSAT-32 will enhance our ability to meet growing mobility demands, including national security needs. As we continue the procurement of JSAT-31, we look forward to leveraging Thales Alenia Space’s proven technology and expertise.”

“I would like to sincerely thank SKY Perfect JSAT for renewing its trust in our company,” said Hervé Derrey, CEO of Thales Alenia Space. “JSAT-32 is the second satellite we will deliver to SKY Perfect JSAT, after JSAT-31 ordered in 2024. This new contract further underscores the success of our robust and proven Spacebus 4000 product line, which has represented a total of 42 satellite programs, including 16 based on Spacebus 4000B2 product.”

Filed Under: Business Moves, Contracts, GEO, JSAT-32 (TAS + JSAT), News, Satellite Build, SKY Perfect JSAT Corporation, Spacebus 4000B2 platform (TAS), Thales Alenia Space Tagged With: Featured

IM-2 lands on the Moon but its status is uncertain

March 6, 2025

After a shaky Moon landing last year, Intuitive Machines is working to determine if this mission will meet a similar fate.

After a successful launch last week aboard a SpaceX Falcon 9 rocket, Intuitive Machines’ IM-2 mission landed on the Moon on March 6 shortly after 11:30 a.m. EST. The craft is transmitting back to its control center and able to collect some level of solar power. However, its landing orientation and the status of other aspects of the mission remain unclear.

The lander, nicknamed Athena, was meant to touch down on the plateau atop the mountain Mons Mouton roughly 100 miles (160 kilometers) from the lunar south pole. As the craft neared the end of its 11-minute engine burn to slow its velocity and carry it to the surface, flight controllers lost contact with Athena, although presenters on the company’s livestream said that communication issues close to the surface were expected.

As time went on, however, mission controllers became visibly anxious and turned their focus to retrieving images from the craft. Ten minutes after the lander was supposed to be on the ground, flight controllers commanded Athena to turn off its engine and shut down some of its electronics to conserve power. Intuitive Machine executive and the mission’s flight director Tim Crain said that the lander was collecting power and that the team was working to determine the orientation of the lander.

This is not Intuitive Machine’s first brush with uncertainty after a lunar landing. On Feb. 22, 2024, the Houston-based company’s first lunar mission, IM-1, touched down harder than expected on the Moon near Malapert A crater, 186 miles (300 km) from the South Pole. A pre-launch wiring error on the lander, known as Odysseus, disabled its built-in laser rangefinders. As a result, the craft had to fly its landing without a precise altitude readout and skidded across the surface as it landed, breaking a leg and coming to rest at a 30° angle. The scientific payloads aboard were able to collect some data, but because of the lander’s angle, some were starved of solar power and shut off earlier than anticipated.

More information on the IM-2 mission is expected throughout the day, and Intuitive Machines is scheduled to hold a press conference in the afternoon.

Samantha Hill, Astronomy Magazine

Filed Under: Data Communications, Falcon 9, IM-2 Lunar Mission (Intuitive Machines), Intuitive Machines, Launch, Lunar Lander, Lunar Missions, Mission Payloads, Moon, Scientific Payloads, Solar, Solar Power Systems, SpaceX, SpaceX Falcon 9, Transmitter Tagged With: Featured

SpaceX holds steady for Thursday launch of Starship Flight 8 test launch

March 5, 2025

The eighth flight test of Starship is preparing to launch Thursday, March 6. The launch window will open at 5:30 p.m. CT.

A live webcast of the flight test will begin about 30 minutes before liftoff, available on X @SpaceX. As is the case with all developmental testing, the schedule is dynamic and likely to change.

After completing the investigation into the loss of Starship early on its seventh flight test, several hardware and operational changes have been made to increase reliability of the upper stage.

As noted by SpaceX, Starship’s forward flaps have been redesigned to reduce reentry heat exposure and simplify mechanisms. The Starship upper stage’s propulsion system has also gained a 25% propellant volume boost for longer flights.

The launch takes place at Orbital Launch Mount A, SpaceX Starbase, Texas. Orbital Launch Mount A has witnessed the launch of 7 rockets, including 0 orbital launch attempts. While SpaceX Starbase, Texas, has been the site for 16 rocket launches.

Starbase is an industrial complex for Starship rockets and the headquarters of SpaceX. Located near Brownsville, Texas, it has been under construction since the late 2010s by SpaceX. Starbase is composed of a spaceport near the Gulf of America, a production facility at the Boca Chica village, and a small structure test site along the Texas State Highway 4.

The forecast calls for a temperature of 71°F, clear skies, 0% cloud cover and a wind speed of 20mph.

SpaceX after last second scrub, reschedules Starship Flight 8 launch

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The eighth flight test of Starship is preparing to launch as soon as Wednesday, March 5. The launch window will open at 5:30 p.m. CT and that developmental testing can result in scheduling that can change.

If all goes according to plan, the eighth flight test of Starship, the nearly 400-foot-tall rocket that is the most powerful and largest in the world, will launch from Starbase, SpaceX’s facility near Boca Chica Beach, Texas, on Wednesday, March 5, during a window that opens at 5:30 p.m. CT (2330 GMT).

CEO Elon Musk on X said there were, “too many question marks about this flight and then we were 20 bar low on ground spin start pressure.”

Musk added that, “The best course of action was to de-stack, inspect both the Super Heavy booster and Ship’s upper stage and to try again.”

Ground spin pressure is the pressure inside the Super Heavy booster and its system that begins the 33 Raptor engines working. The rocket engines are started through spin pumps that pump propellants from tanks and ignite them at optimal conditions for liftoff.

SpaceX at 40 seconds scrubs Starship Flight 8 launch

SpaceX scrubbed its Starship Flight 8 launch attempt on Monday afternoon. The cause for the scrub was not entirely shared, but it seemed to have shown up in the late stages of the count and involved the Super Heavy Booster. No specific reason for the scrub was given other than the holds came from the booster, not the ship.

The company then scrubbed the launch for the day. “Standing down from today’s flight test attempt. Starship team is determining the next best available opportunity to fly,” the company stated on social media. That could be as soon as March 4, SpaceX noted on its webcast.

“Too many question marks about this flight and then we were 20 bar low on ground spin start pressure,” SpaceX Chief Executive Elon Musk posted. “Best to destack, inspect both stages and try again in a day or two.”

SpaceX spokesman Dan Huot said the company could try to launch again at the same time on Tuesday, depending on the issue.

At about the T-25 minute mark, an issue with Booster 15 showed up, causing a hold to take place. While the count didn’t stop, this eventually did lead to the hold triggering at the expected T-40 second mark.

Starship has a customized system that SpaceX is unable to utilize with its smaller Falcon rockets, holding for several minutes at T-40 seconds. For Falcon launches, if a hold is called after propellant loading begins, around T-20 minutes, a scrub has to take place. SpaceX’s Starship’s propellant tanks are so large that they enable a slower rate of cool down compared to Falcon, giving them at least some time to hold the count.

After a few minutes into the hold, the problem with the booster was solved; however, another issue with Ship 34 showed up that continued the hold. While SpaceX has the option to hold, it cannot hold at this point for the entire window, which had about 40 minutes left.

SpaceX eventually cleared the hold and began counting down again until approximately 10 seconds later, when Booster 15 triggered “multiple holds,” which resulted in T-40 seconds and the scrub.

SpaceX’s eighth Starship flight test still on for today, so far

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The eighth flight test of Starship is preparing to launch Monday, March 3. The 60-minute launch window opens at 5:30 p.m. CT.

A live webcast of the flight test will begin about 40 minutes before liftoff, which you can watch on X @SpaceX. You can also watch the webcast on the X TV app. As is the case with all developmental testing, the schedule is dynamic and likely to change, check back for updatesX account for updates.

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Returning the booster after launch is a core capability to Starship becoming rapidly and reliably reusable

After completing the investigation into the loss of Starship early on its seventh flight test, several hardware and operational changes have been made to increase reliability of the upper stage. You can read the full summary of the mishap investigation here.

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The company said it has made several changes after losing Starship early during the seventh test launch. These tests are likely to produce sonic booms in the area. 

“The returning booster will slow down from supersonic speeds, resulting in audible sonic booms in the area around the landing zone,” SpaceX said in a news release. “Generally, the only impact to those in the surrounding area of a sonic boom is the brief thunder-like noise with variables like weather and distance from the return site determining the magnitude experienced by observers.”

SpaceX Starship’s eighth flight test launch delayed

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Originally, and optimistically, the eighth Starship flight test launch was said to be no earlier that Friday, February 28. However, SpaceX is announcing that the Starship launch is now preparing for a new date, as soon as Monday, March 3 pending regulatory approval.

A live webcast of the flight test will begin about 40 minutes before liftoff, which you can watch on X @SpaceX. You can also watch the webcast on the X TV app. The launch window will open at 5:30 p.m. CT. As is the case with all developmental testing, the schedule is dynamic and likely to change, so be sure to check in here and stay tuned to our X account for updates.

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The eighth flight test of Starship is preparing to launch as soon as Friday, February 28, pending regulatory approval.

A live webcast of the flight test will begin about 40 minutes before liftoff, which you can watch on X @SpaceX. You can also watch the webcast on the X TV app. The launch window will open at 5:30 p.m. CT. As is the case with all developmental testing, the schedule is dynamic and likely to change, so be sure to check in here and stay tuned to our X account for updates.

After completing the investigation into the loss of Starship early on its seventh flight test, several hardware and operational changes have been made to increase reliability of the upper stage. You can read the full summary of the mishap investigation here.

This image has an empty alt attribute; its file name is Screen-Shot-2025-02-24-at-1.28.02-PM.png

Returning the booster after launch is a core capability to Starship becoming rapidly and reliably reusable

The upcoming flight will target objectives not reached on the previous test, including Starship’s first payload deployment and multiple reentry experiments geared towards returning the upper stage to the launch site for catch. The flight also includes the launch, return, and catch of the Super Heavy booster.

Extensive upgrades to Starship’s upper stage debuted on the previous flight test, focused on adding reliability and performance across all phases of flight. Starship’s forward flaps have been upgraded to significantly reduce their exposure to reentry heating while simplifying the underlying mechanisms and protective tiling. Redesigns to the propulsion system, including a 25 percent increase in propellant volume over previous generations, add additional vehicle performance and the ability to fly longer duration missions. And the vehicle’s avionics underwent a complete redesign, adding additional capability and redundancy for increasingly complex missions like propellant transfer and ship return to the launch site.

During the flight test, Starship will deploy four Starlink simulators, similar in size to next-generation Starlink satellites, as the first exercise of a satellite deploy mission. The Starlink simulators will be on the same suborbital trajectory as Starship and are expected to demise upon entry. A relight of a single Raptor engine while in space is also planned.

The flight test includes several experiments focused on enabling Starship’s upper stage to return to the launch site. A significant number of tiles have been removed from Starship to stress-test vulnerable areas across the vehicle. Multiple metallic tile options, including one with active cooling, will test alternative materials for protecting Starship during reentry. On the sides of the vehicle, non-structural versions of Starship’s catch fittings are installed to test the fittings’ thermal performance, along with a section of the tile line receiving a smoothed and tapered edge to address hot spots observed during reentry on Starship’s sixth flight test. Starship’s reentry profile is designed to intentionally stress the structural limits of the upper stage’s rear flaps while at the point of maximum entry dynamic pressure. Finally, several radar sensors will once again be tested on the launch and catch tower’s chopsticks with the goal of increasing the accuracy when measuring distances between the chopsticks and a returning vehicle.

The Super Heavy booster for this flight features upgraded avionics, including a more powerful flight computer, improved power and network distribution, and integrated smart batteries.

Distinct vehicle and pad criteria must be met prior to the return and catch of the Super Heavy booster, requiring healthy systems on the booster and tower and a final manual command from the mission’s Flight Director. If this command is not sent prior to the completion of the boostback burn, or if automated health checks show unacceptable conditions with Super Heavy or the tower, the booster will default to a trajectory for a soft splashdown in the Gulf of America. We accept no compromises when it comes to ensuring the safety of the public and our team, and booster return will only take place if conditions are right.

The returning booster will slow down from supersonic speeds, resulting in audible sonic booms in the area around the landing zone. Generally, the only impact to those in the surrounding area of a sonic boom is the brief thunder-like noise with variables like weather and distance from the return site determining the magnitude experienced by observers.

Developmental testing by definition is unpredictable. But by putting flight hardware in a flight environment as frequently as possible, we’re able to quickly learn and execute design changes as we seek to bring Starship online as a fully and rapidly reusable vehicle.

Filed Under: Booster, Booster Recovery, Falcon 9, Flight Test, Launch, Launch Abort, Launch Delay, Rocket Certification Test Flilght, Rocket Engine test, Rocket Flight Readiness Testing, Rocket Testing, SpaceX, Starship, Starship (SpaceX), Weather Forecasting Tagged With: Featured

Firefly Aerospace ready to launch Alpha FLTA006 for Lockheed Martin’s LM 400 Spacecraft

March 5, 2025

“Message in a Booster” mission will launch Lockheed Martin’s technology demonstration spacecraft to low Earth orbit

Following a successful rocket static fire test, Firefly Aerospace, Inc. has announced the company’s Alpha Flight 6 (FLTA006) mission, called Message in a Booster, is scheduled to launch Lockheed Martin’s LM 400 spacecraft no earlier than March 15th—the 52-minute launch window will open at 6:25 am PST.

Alpha FLTA006 is the second mission Firefly is launching for Lockheed Martin and the first of Firefly’s multi-launch agreement with the company that includes up to 25 missions over the next five years. Capable of lifting more than 1,000 kg to low Earth orbit, Firefly’s Alpha rocket will launch Lockheed Martin’s LM 400 spacecraft from Firefly’s Space Launch Complex 2 at the Vandenberg Space Force Base.

Once deployed, Lockheed Martin’s self-funded LM 400 technology demonstration will prove out the company’s risk-reduction and pathfinding efforts. As a platform, LM 400 is Lockheed Martin’s most flexible satellite bus, capable of serving military, commercial, or civil customers. It can be customized to host a variety of missions—including remote sensing, communications, imaging and radar—and operate in LEO, MEO and GEO. 

“The Firefly team is proud to launch another Lockheed Martin mission as we continue to push the limits in achieving a more responsive and resilient future in space,” said Jason Kim, CEO of Firefly Aerospace. “Our Alpha rocket provides the optimal performance and rapid operations to deliver small and mid-size satellites, like LM 400, when and where our customers need them to immediately begin their on-orbit mission.”

For more details on the Alpha FLTA006 Message in a Booster mission and livestream, visit this direct infolink…

Filed Under: Alpha Missions (FIrefly), Alpha Rocket, Firefly Aerospace, LEO, LEO Missions, LM 400 (LMC), Lockheed Martin, Mission Scheduling, Multi-Launch Agreement, News, Satellite Scheduling, SmallSat, Smallsat Bus, Smallsat Contract, Smallsat Demo Mission, Smallsat Deployment, Smallsat Launch, Smallsat Launch Vehicles, Smallsat Missions, Smallsat Payloads, smallsats Tagged With: Featured

Space Systems Command accelerates missile warning capabilities

March 3, 2025

The U.S. Space Force’s Space Systems Command (SSC) continues its multi-phased acquisition strategy for the Future Operationally Resilient Ground Evolution (FORGE) Command and Control (C2) ground system to bolster its missile warning and tracking ground mission.

Through SSC’s Space Enterprise Consortium (SpEC) program, the command has awarded an Other Transaction Authority (OTA) contract to BAE Systems to advance the command-and-control solution for the FORGE program. 

BAE Systems will receive $151 million to build upon the critical milestones achieved in Phase 1 of the FORGE C2 prototyping effort to deliver a prototype ready for SSC’s Next-Generation Overhead Persistent Infrared (Next-Gen OPIR) system.

Artistic rendition of Next Generation OPIR on-orbit

FORGE plays a critical role in modernizing the Space Force’s Space Sensing ground system architecture by using industry best practices, Commercial Off-The-Shelf (COTS) products, Government Off-The-Shelf (GOTS) products, and Free or Open-Source Software to accelerate acquisition.

Phase II of the FORGE C2 acquisition strategy uses the SpEC program’s OTA, in collaboration with acquisition mission partner NSXTL, to maximize alliances with non-traditional industry members, contracting flexibility, and accelerated timelines to bridge legacy and next-generation capabilities with a government-owned, open, and scalable architecture.

“This is the second phase of the FORGE C2 effort that will support our Next-Gen OPIR program while continuing to support legacy space systems such as the Space-Based Infrared System,” said Captain Santiago Duque, SSC FORGE C2 chief program manager. “As we continue to enhance the FORGE ground system, it’s critical that we innovate rapidly with new technological capabilities.

“The SpEC OTA contract allows us to do that. Our mission is foundational to the next generation missile warning and tracking space architecture and critical in securing the warfighter mission to protect the nation from emerging threats.”

About SpEC 
The Space Enterprise Consortium (SpEC) was created in 2017 through the Space Force Space Systems Command to bridge the gap between military buyers and commercial space startups and small businesses through OTAs. Companies interested in joining the Space Enterprise Consortium can find more information about the organization, including how to join, at this direct infolink.

About Space Systems Command
Space Systems Command is the U.S. Space Force’s field command responsible for acquiring, developing, and delivering resilient capabilities to protect our nation’s strategic advantage in, from, and to space. SSC manages a $15.6 billion space acquisition budget for the Department of Defense and works in partnership with joint forces, industry, government agencies, academic and allied organizations to outpace emerging threats. Our actions today are making the world a better space for tomorrow.

Filed Under: BAE Systems, Future Operationally Resilient Ground Evolution (FORGE) system, Military, Missile Warning, Missile Warning System, National Security Technology Accelerator (NSTXL), Next Generation Overhead Persistent Infrared (OPIR) Program, Space Enterprise Consortium, Space Enterprise Consortium (SpEC), Space Systems Command, Space Systems Command, U.S. Space Systems Command, United States Space Systems Command Tagged With: Featured

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