• Skip to primary navigation
  • Skip to main content
  • Skip to primary sidebar
  • Skip to secondary sidebar
  • NEWS:
  • SatNews
  • SatMagazine
  • MilSatMagazine
  • SmallSat News
  • |     EVENTS:
  • SmallSat Symposium
  • Satellite Innovation
  • MilSat Symposium

SatNews

  • HOME
  • Magazines
  • Events
  • SmallSat Symposium Updates
  • Industry Calendar
    • IN PERSON
    • VIRTUAL
  • Subscribe

Featured

Interstellar Communication launches 1st icMercury satellite via SpaceX

March 18, 2025

Interstellar Communication Holdings Inc. has launched their first icMercury PocketQube satellite, HADES-ICM—the satellite was deployed into LEO aboard SpaceX’s Falcon 9 rocket from Vandenberg Space Force Base in California on March 15, 2025.

This mission represents a significant step toward expanding space access for individuals, small businesses, and organizations. Developed in collaboration with experienced satellite manufacturing and launch partners, the icMercury satellite highlights how emerging space technologies are unlocking new opportunities in communication, exploration, and business applications.

Despite their small size, PocketQubes provide a cost-effective and ficient platform for research, Earth observation, and communication, making space more accessible than ever before. By leveraging this technology, icMercury moves closer to its vision of offering personal satellite services, allowing users to engage with space in an intuitive and meaningful way.

HADES-ICM is a 1.5P PocketQube satellite, measuring 5 cm × 5 cm × 8 cm, and weighing 400 g. It carries a hardware payload to test a low-power active graphene radiator developed by SmartIR, a spin-out from the University of Manchester, aiming to assess its feasibility in space. HADES-ICM is equipped with an SDR-based FM and FSK repeater for AX.25/APRS communications at 300/1200 bps, operating in the UHF band for downlink and VHF band for uplink.

Supported by the International Trade Council, the company, together with its partners on the icMercury project, will host a free webinar, “Unlocking the Possibilities – How You Can Launch a Satellite,” on March 19, 2025, from 4:00 to 6:00 PM EDT. The event will offer an inside look at the development and potential of PocketQube satellite technology, providing a unique opportunity to explore the journey of satellite launches and understand how space is rapidly becoming a tangible platform for innovation and growth. The webinar will also introduce the upcoming icMercury app, demonstrating how users can interact with the satellite in real time.

Register for this webinar at this direct link…

“The personal PocketQube concept of icMercury is a great example of how the New Space era is enabling affordable, beneficial, and even entertaining approaches to space exploration,” said Seda Hewitt, Space Ambassador of icMercury. “This is just the beginning, and we’re excited to share this journey.”

“PocketQube technology represents a major breakthrough in making space more accessible and versatile,” said Harri Laitinen, Lifeguard of icMercury. “These ultra-compact satellites prove that innovation is not about size but about efficiency and capability. We are excited to push the boundaries of what’s possible and explore the potential of this evolving technology.”

“This launch reflects the dedication and teamwork of everyone involved,” said Lijie Zhu, Captain of icMercury. “Every step, from design to deployment, required collaboration and a shared vision. With icMercury, we aim to provide the tools and experiences for people to explore, understand, and make creative use of space technology. This journey reminds us that in the vast universe, we are not alone.”

About Interstellar Communication Holdings Inc.
Interstellar Communication Holdings, Inc., a Florida based company, is a holding company that connects and consolidates space-related companies, enabling entrepreneurs and investors to tap into the vast potential of the universe. Interstellar Communication Holdings provides an affordable personal satellite service named icMercury for stargazers, using Pocketqube technology and a customized user platform. With this service, users will be able to access their satellite and unlock the potential of the universe.

Filed Under: Falcon 9, HADES-ICM (ICM), Interstellar Communication Holdings Inc., Launch, LEO, PocketQube, SmallSat, SmallSat Builds, Smallsat Bus, Smallsat Deployment, SmallSat Design, Smallsat Development, Smallsat Dispenser System, Smallsat Launch, Smallsat Launch Vehicles, Smallsat Manufacturing, Smallsat Markets, Smallsat Payloads, SmallSat Technologies, smallsats, SmartIR (UK), SpaceX Falcon 9, SpaceX Transporter-13 Mission, Vandenberg SFB Tagged With: Featured

Successful Rocket Lab launch completes deployment of full Kinéis Constellation in less than a year

March 17, 2025

Rocket Lab’s announcement:
Rocket Lab USA, Inc. (Nasdaq: RKLB), a global leader in launch services and space systems, today successfully launched its Electron rocket, deploying five satellites to Low Earth Orbit for French Internet-of-Things (IoT) constellation operator Kinéis. The mission was the fifth in a five launch deal with Kinéis that has seen Rocket Lab deploy a complete constellation of 25 IoT satellites in less than a year. Photos by Satnews.

The “High Five” mission lifted-off from Rocket Lab Launch Complex 1 in Mahia, New Zealand at 14:31 NZDT on March 18th, 2025 (01:31 UTC), successfully deploying five satellites to a 650 km low Earth orbit. The mission was Rocket Lab’s fourth Electron launch of 2025, and 62nd Electron launch overall.

Rocket Lab founder and CEO Sir Peter Beck said: “That’s five missions out of five for Kinéis delivered flawlessly by Electron. Many constellation operators wait years for their first mission, but we’ve deployed Kinéis’ mission in under a year and with 100% dedicated launches where they have been able to select launch site, date, and orbital parameters allowing them to maximize coverage for each of their 25 spacecraft. We’re proud to have enabled a more connected world through Kinéis’ IoT spacecraft and look forward to seeing all the valuable data and insights the constellation provides in the coming months and years.”

“Since 2018, we have led an ambitious project, and this launch, the final one in a series of five, crowns an exceptional effort carried out with solid partners like Rocket Lab, enabling the deployment of our IoT-dedicated constellation in less than a year. On June 1st, we will launch our IoT satellite connectivity commercial services. This achievement marks the beginning of a new era for Kinéis, where the data collected by our constellation will unlock numerous opportunities for our clients and partners,” said Christophe Vassal – Chairman of the Supervisory Board of Kinéis.

The Kinéis constellation is designed to make it possible to connect and locate any connected object anywhere in the world, enabling data transmission to users in near-real time, at low bit rates and with very low energy consumption. By enabling internet connection to the Earth’s most remote locations, Kinéis constellation can support forest fire detection, water resource management, infrastructure and energy network monitoring, transport and logistics tracking, and much more.

Filed Under: Chairman of the Board, Constellation, Electron, Forestry, France, Kinéis (France), Launch Services, Logistics, Logistics Services, Low Earth Orbit (LEO), New Zealand, Orbital, Rocket Lab, Rocket Lab Launch Complex 1, Satellite IoT, Smallsat Constellation, Smallsat IoT, smallsats, Space Systems, Transport & Tracking Layer Programs (SDA) Tagged With: Featured

Firefly Aerospace completes 14 days of surface operations on the Moon

March 17, 2025

All 10 NASA Commercial Lunar Payload Services (CLPS) instruments successfully operated on the lunar surface and collected their science data during Blue Ghost Mission 1

Firefly Aerospace has met 100 percent of their mission objectives for Blue Ghost Mission 1 after performing the first fully successful commercial Moon landing on March 2, completing more than 14 days of surface operations (346 hours of daylight), and operating just over five hours into the lunar night with the final data received around 6:15 pm CDT on March 16th. This achievement marks the longest commercial operations on the Moon to date.

Firefly’s Blue Ghost lunar lander softly touched down in Mare Crisium carrying 10 NASA instruments.

Throughout the mission, Blue Ghost transmitted more than 119 GB of data back to Earth, including 51 GB of science and technology data, significantly surpassing Firefly’s mission requirements. Key payload milestones completed on the surface include the following:

This compressed, resolution-limited video features a preliminary sequence of the Blue Ghost final descent and landing that NASA researchers stitched together from SCALPSS 1.1’s four short-focal-length cameras, which were capturing photos at 8 frames per second. Altitude data is approximate.

LuGRE: Integrated on Blue Ghost’s antenna gimbal on the top deck, LuGRE successfully acquired and tracked Global Navigation Satellite System (GNSS) signals, from satellite networks such as GPS and Galileo, on the way to and on the Moon’s surface for the first time. This achievement suggests GPS-like signals could be used to navigate future missions to the Moon and beyond.

Image captured by Blue Ghost shows its shadow on the surface and
Earth on the horizon. Credit: Firefly Aerospace
NGLR, courtesy of NASA.

NGLR: Also mounted on Blue Ghost’s antenna gimbal, the Next Generation Lunar Retroreflector (NGLR) successfully reflected laser pulses from Earth-based Lunar Laser Ranging Observatories (LLROs), allowing scientists to precisely measure the Moon’s shape and distance from Earth, expanding our understanding of the Moon’s inner structure.

LEXI: Mounted on Blue Ghost’s top deck on another Firefly-developed gimbal, the Lunar Environment heliospheric X-ray Imager (LEXI) captured a series of X-ray images to study the interaction of solar wind and the Earth’s magnetic field, providing insights into how space weather and other cosmic forces surrounding Earth affect the planet.

LMS electrodes and 6 foot mast, courtesy Firefly Aerospace.

LMS: Blue Ghost also deployed four tethered Lunar Magnetotelluric Sounder (LMS) electrodes on the surface, reaching a distance up to 60 feet from the lander, and deployed a six-foot mast above its top deck to enable the payload team to measure electric and magnetic fields and learn more about the Moon’s composition up to 700 miles, or two-thirds the distance to the Moon’s center.

RadPC: Integrated below Blue Ghost’s top deck, RadPC demonstrated a computer that can withstand space radiation while in transit to the Moon, including through the Earth’s Van Allen Belts, and on the Moon’s surface.

RAC: Mounted above Blue Ghost’s lower deck, the Regolith Adherence Characterization (RAC) instrument examined how lunar regolith sticks to a range of materials exposed to the Moon’s environment, allowing the industry to better test, improve, and protect spacecraft, spacesuits, and habitats from abrasive regolith.

SCALPSS image instrument, image courtesy of
NASA / LaRC

SCALPSS: Mounted below Blue Ghost’s lower deck, the Stereo Cameras for Lunar Plume-Surface Studies (SCALPSS) instrument captured images during the spacecraft’s lunar descent and touchdown on the Moon, providing insights into the effects engine plumes have on the surface for future robotics and crewed Moon landings.

LISTER: Also mounted below Blue Ghost’s lower deck, the Lunar Instrumentation for Subsurface Thermal Exploration with Rapidity (LISTER) payload drilled about three feet into the surface to measure the temperature and flow of heat from the Moon’s interior. This pneumatic, gas-powered drill is now the deepest-reaching robotic planetary subsurface probe.

LISTER drilling into the Moon’s surface. Photo courtesy of Firefly Aerospace.

Lunar PlanetVac: Deployed on Blue Ghost’s surface access arm, the Lunar PlanetVac successfully collected, transferred, and sorted lunar regolith from the Moon using pressurized nitrogen gas, proving to be a low cost, low mass solution for future robotic sample collection.

The Lunar PlanetVac instrument, developed by Honeybee Robotics, was deployed to the lunar surface and is shown at the end of Blue Ghost’s surface access arm. Credit: Firefly Aerospace

EDS: Also deployed on Blue Ghost’s surface access arm, the Electrodynamic Dust Shield (EDS) successfully lifted and removed lunar regolith using electrodynamic forces on the glass and thermal radiator surfaces. These results confirm EDS as a promising solution for dust mitigation on future lunar and interplanetary surface operations.

During surface operations, Firefly’s Blue Ghost lander captured high-definition imagery of a total solar eclipse on March 14. This marks the first time in history a commercial company was actively operating on the Moon and able to observe a solar eclipse where the Earth blocks the sun and casts a shadow on the lunar surface. Blue Ghost operated the LMS, RAC, and SCALPSS payloads during this unique phenomenon to measure changes in the lunar dust and radiation environment.

Firefly’s Blue Ghost lander captured a first look at the solar eclipse as it began to emerge from Firefly’s Mare Crisium landing site on March 14 at 12:30 am CDT. Credit: Firefly Aerospace

Firefly also captured imagery of the lunar sunset on March 16, providing NASA with data on whether lunar dust levitates due to solar influences and creates a lunar horizon glow that was hypothesized and observed by Eugene Cernan on Apollo 17. Following the sunset, Blue Ghost operated for five hours into the lunar night and continued to capture imagery that measures how dust behavior changes after sunset.

Blue Ghost 2

Looking ahead, Firefly is ramping up for annual missions to the Moon. The team has begun qualifying and assembling flight hardware for Blue Ghost Mission 2, which will use Firefly’s Blue Ghost lander stacked on an Elytra Dark orbital vehicle for operations in lunar orbit and on the far side of the Moon.

Firefly also captured imagery of the lunar sunset on March 16, providing NASA with data on whether lunar dust levitates due to solar influences and creates a lunar horizon glow that was hypothesized and observed by Eugene Cernan on Apollo 17. Following the sunset, Blue Ghost operated for 5 hours into the lunar night and continued to capture imagery that measures how dust behavior changes after sunset.

Looking ahead, Firefly is ramping up for annual missions to the Moon. The team has begun qualifying and assembling flight hardware for Blue Ghost Mission 2, which will utilize Firefly’s Blue Ghost lander stacked on an Elytra Dark orbital vehicle for operations in lunar orbit and on the far side of the Moon.

“After a flawless Moon landing, the Firefly team immediately moved into surface operations to ensure all 10 NASA payloads could capture as much science as possible during the lunar day,” said Jason Kim, CEO of Firefly Aerospace. “We’re incredibly proud of the demonstrations Blue Ghost enabled from tracking GPS signals on the Moon for the first time to robotically drilling deeper into the lunar surface than ever before. We want to extend a huge thank you to the NASA CLPS initiative and the White House administration for serving as the bedrock for this Firefly mission. It has been an honor to enable science and technology experiments that support future missions to the Moons, Mars, and beyond.”

“This team continues to make near-impossible achievements look easy, but there is no such thing as an easy Moon landing, especially on your first attempt,” said Will Coogan, Blue Ghost Chief Engineer at Firefly Aerospace. “We battle tested every system on the lander and simulated every mission scenario we could think of to get to this point. But what really sets this team apart is the passion and commitment to each other. Our team may look younger and less experienced than those of many nations and companies that attempted Moon landings before us, but the support we have for one another is what fuels the hard work and dedication to finding every solution that made this mission a success.”

Filed Under: Advanced Payloads, BLue Ghost Lunar Lander (Firefly), Blue Ghost Mission, Firefly Aerospace, Moon, Moon Mission, Moon-to-Earth Comms, News, Payloads, Scientific Payloads Tagged With: 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.

=

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

  • « Go to Previous Page
  • Page 1
  • Interim pages omitted …
  • Page 4
  • Page 5
  • Page 6
  • Page 7
  • Page 8
  • Interim pages omitted …
  • Page 153
  • Go to Next Page »

Primary Sidebar

Most Read Stories

  • In Their Honor ... Lest We Forget
  • Space Debris, and the EU’s Space Act
  • In celebration of Juneteenth
  • Muted demand led to a 4% drop in the Middle East smartphone market in Q1 2025 
  • Eutelsat's efforts to obtain funding to save OneWeb

About Satnews

  • Contacts
  • History

Archives

  • June 2025
  • May 2025
  • April 2025
  • March 2025
  • February 2025
  • January 2025
  • December 2024
  • November 2024
  • October 2024
  • September 2024
  • August 2024
  • July 2024
  • June 2024
  • May 2024
  • April 2024
  • March 2024
  • February 2024
  • January 2024
  • December 2023
  • November 2023
  • October 2023
  • September 2023
  • August 2023
  • July 2023
  • June 2023
  • May 2023
  • April 2023
  • March 2023
  • February 2023
  • January 2023
  • December 2022
  • November 2022
  • October 2022
  • September 2022
  • August 2022
  • July 2022
  • June 2022
  • May 2022
  • April 2022
  • March 2022
  • February 2022
  • January 2022
  • December 2021
  • November 2021
  • October 2021
  • September 2021
  • August 2021
  • July 2021
  • June 2021
  • May 2021
  • April 2021
  • March 2021
  • February 2021
  • January 2021
  • December 2020
  • November 2020
  • October 2020
  • September 2020
  • August 2020
  • July 2020
  • June 2020
  • May 2020
  • April 2020

Secondary Sidebar

We use cookies to ensure that we give you the best experience on our website. If you continue to use this site we will assume that you are happy with it.OkPrivacy policy
x
Sign up Now (For Free)
Access daily or weekly satellite news updates covering all aspects of the commercial and military satellite industry.
Invalid email address
Notify Me Regarding ( At least one ):
We value your privacy and will not sell or share your email or other information with any other company. You may also unsubscribe at anytime.

Click Here to see our full privacy policy.
Thanks for subscribing!