INNOSPACE recently signed a launch service agreement with the Federal University of Maranhão (UFMA) and Castro Leite Consultoria LTDA (CLC) for a rideshare launch mission on the company’s ‘HANBIT-Nano’ launch vehicle from the Alcântara Space Center in Brazil, now scheduled for the first half of 2025.

The mission will deploy smallsats developed by DARTilab and BAITES, both Brazilian research institutes participating in the project through a contract signed with UFMA, which is leading the Alcântara Scientists Project in the state of Maranhão, Brazil.

Under this agreement, INNOSPACE’s HANBIT-Nano will carry onboard the payload, an inertial system being developed by CLC, an engineering consulting service provider specialized in aerospace, defense, and inertial systems with a decade of experience in Brazil.

“The partnership with INNOSPACE for the launch of the picosatellite is a historic milestone, which will provide the residents of Alcântara with the unique opportunity to actively participate in the advancement of science and space exploration. We are excited because with this undertaking we highlight the importance of inclusion and respect for local communities in large-scale projects that drive technological progress, as well as encourage community unity and pride. We hope that this initiative will motivate the young people of Alcântara and contribute to the emergence of new opportunities for knowledge in the region,” said UFMA.

“It’s an excellent opportunity to qualify our products for a space flight. This will add value to both our equipment and the means of testing,” said CLC.

“It’s very meaningful to be selected by Brazilian customers, as this mission will be INNOSPACE’s first commercial launch and the maiden flight of its HANBIT-Nano rocket after successfully launching our first test launch vehicle, HANBIT-TLV, from the Alcântara Space Center in Brazil on March 19, 2023 (BRT),” said Soojong Kim, founder and CEO of INNOSPACE. “INNOSPACE’s priority for HANBIT is to support customers who share an innovative vision for space, and we are proud to offer them with the launch services required to achieve their objectives.”

Scout Space Inc. has signed a Launch Services Agreement (LSA) with ABL Space Systems, an aerospace and launch service provider based in El Segundo, California.

This agreement secures the launch of Scout’s “Owlet-01,” a dedicated 16U Space Domain Awareness (SDA) satellite, as the primary customer payload on ABL’s third flight of its RS1 launch vehicle scheduled for later this year.

The Owlet-01 launch represents a significant milestone for Scout Space, as this is the first standalone operational SDA satellite to be launched by the company, featuring the firm’s Owl, long-range, optical telescope and payload system. The mission aims to substantially de-risk critical elements of the Owl family of payloads, including its core optical design, while also demonstrating fundamental segments of Scout’s software stack, including on orbit demonstration of key algorithms and autonomy functionality. 

The partnership between Scout Space and ABL Space Systems signifies a notable advancement in space security and domain awareness. With this launch, both companies are set to make substantial contributions to the evolving landscape of space operations and safety.

The Owl is a long-range space domain awareness optical sensor designed to enhance missions with advanced space domain awareness capabilities. It provides on-board object detection and orbit determination.

“We are thrilled to partner with ABL Space Systems for this pivotal launch,” said Philip Hover-Smoot, CEO of Scout Space. “This mission will not only validate our Owl product line of optical payload systems but also demonstrate the advanced capabilities of our data exploitation and autonomy solutions. Moreover, the team’s ability to execute this mission on such a tight schedule is remarkable—we are taking this mission from concept to launch in less than six months. This includes not just the primary payload build within the next 90 days, but also the full integration and test of the bus within a few short weeks that follow.”

Dan Piemont, President and CFO of ABL Space Systems, said, “We’re excited that Scout Space has chosen RS1 to deliver their critical technology demonstrator to orbit and look forward to strengthening our partnership through this mission and into the future.”

Scout Space was founded in 2019 with the mission to enable a new era of space safety and transparency. Scout’s in-space products and services, first launched in 2021, allow spacecraft to see and understand things around them. The orbital distributed sensor network developed by Scout will significantly improve Space Domain Awareness (SDA) and ensure responsible use of the space environment. The company is a Techstars, MassChallenge, and venture-backed startup with ongoing government and commercial contracts. Scout holds the Established® 2021 Startup of the Year® title.

ABL Space Systems builds rockets to launch small satellites. ABL’s RS1 launch vehicle deploys over 1 ton of payload into orbit. The GS0 launch system enables RS1 to be operated from any flat pad globally. ABL is based in El Segundo, California.

RTX‘s (NYSE: RTX) Blue Canyon Technologies has established communication with both CubeSats for the NASA PREFIRE (Polar Radiant Energy in the Far InfraRed Experiment) mission — the PREFIRE mission will measure the amount of heat Earth emits into space from the Arctic and Antarctica.

Blue Canyon provided two heritage 6U CubeSats for the mission, which is managed by NASA’s Jet Propulsion Laboratory for the agency’s Science Mission Directorate. Analysis of PREFIRE’s measurements will inform climate and ice models, helping to improve projections of how a warming world will affect sea ice loss, ice sheet melt and sea level rise.

The PREFIRE project was jointly developed by NASA and the University of Wisconsin-Madison. JPL provided the thermal infrared spectrometer payload, and the University of Wisconsin-Madison will process the data collected by the instruments.

“Improving climate models can provide more accurate projections on the impacts of storm severity and frequency, as well as coastal erosion and flooding,” said Chris Winslett, general manager for Blue Canyon Technologies.

Kinéis is scheduled to deploy the 1st European constellation comprised of 25 nanosatellites and dedicated to IoT for June 18, 2024, engaging the first of five launches via Rocket Lab‘s Electron launcher — this launch phase comes four years after the company raised a historic 100 million euros in funding.

This first launch for Kinéis corresponds to the 50th launch of the Electron launch vehicle. Electron has strong flight heritage after seven years of launches and meets the constraints of the Kinéis constellation, which is positioned on 5 precisely defined orbital planes. With 5 satellites placed in orbit per launch, Kinéis is the sole passenger on each of the five launches, enabling it to control its launch schedule and improve the operability of satellite positioning.

The 5 launches required to deploy the Kinéis constellation are scheduled to occur between June 2024 and early 2025, a first for the new French space sector. The launches will take place from Rocket Lab Launch Complex 1 on the Māhia Peninsula on the east coast of New Zealand’s North Island. The Rocket Lab mission Control Center is located in Auckland, the country’s economic capital, around 500 km from the launch base.

Thanks to the constellation of 25 nanosatellites, Kinéis’ mission is to connect an object anywhere in the world (including black points) and transmit useful data to users, in near real time, from any point on the globe.

Kinéis operates for a global market (with subsidiaries in the United States, Brazil and Singapore) in fields that represent major challenges for mankind, its activities and its environment today: prevention of natural risks (detection of forest fires, floods, drought, pollution, etc.), agriculture, traceability of wild and farmed animals, monitoring of infrastructures and energy networks, monitoring of transport and logistics, monitoring of commercial and scientific maritime activities. The applications are infinite and the benefits considerable: risk reduction, anticipation of breakdowns, optimization of activities, etc.

With a reference to the Pink City where Kinéis is based and where the 25 nanosatellites in the constellation are produced, the mission for this 1st launch is called ‘No Time Toulouse’. Rocket Lab designed the patch for this mission.

Alexandre Tisserant, Chairman of Kinéis, said,
”Kinéis is proud and confident to entrust the deployment of its IoT constellation to Rocket Lab. The Electron launcher meets our technical requirements for positioning the 5 nanosatellites for each of our 5 launches. Kinéis is leading the IoT revolution thanks to its space connectivity, which will enable any object to be connected anywhere in the world.”

Peter Beck, Rocket Lab founder and CEO, said, “We’re excited to launch Kinéis on the first of five dedicated Electron launches. Electron is perfectly suited to deploying constellations as we can deliver spacecraft to multiple orbital planes across multiple missions, and we’re proud to make this possible for the team at Kinéis.”

Follow the Kinéis live show from Toulouse with the live broadcast of the launch
from New-Zealand at this direct link…

SpaceX Falcon 9 launched 22 Starlink satellites to low-Earth orbit from Space Launch Complex 40 (SLC-40) at Cape Canaveral Space Force Station in Florida on Friday, June 7. Liftoff was at 9:50 PDT despite rumors yesterday of possible inclimate weather shown below.

The Friday night flight marks the 344th Falcon 9 to launch, a little more than 14 years after its launch debut on June 4, 2010.

The weather might be a bit uncertain for Friday night’s launch of SpaceX’s Starlink satellites.

A weak cold front is pushing into the panhandle today, increasing moisture and bringing greater
instability across the peninsula. Steering level flow and upper-level winds will become more westerly, allowing showers and storms that develop with heating and seabreeze interaction to migrate back toward the coast by the late afternoon hours. The latest forecast models have increased coverage of showers and storms over the central to southern portions of the state for Friday, so showers and storms could linger well into the launch window. On Saturday, the front is expected to wash out as high pressure begins to build back in. This will result in slightly drier conditions, so any afternoon shower activity should diminish quickly after sunset. A stray shower over the coastal areas can’t be ruled out,
so the primary concern for the backup day is the Cumulus Cloud Rule. Launch Day Probability of

This is the 16th flight for the first stage booster supporting this mission, which previously launched CRS-24, Eutelsat HOTBIRD 13F, OneWeb 1, SES-18 and SES-19, and 11 Starlink missions. Following stage separation, the first stage landed on the A Shortfall of Gravitas droneship, stationed in the Atlantic Ocean.

SpaceX Starlink launch Friday

SpaceX is targeting Friday, June 7 for a Falcon 9 launch of 22 Starlink satellites to low-Earth orbit from Space Launch Complex 40 (SLC-40) at Cape Canaveral Space Force Station in Florida. Liftoff is targeted for 8:00 p.m. ET, with backup opportunities available until 10:10 p.m. ET. If needed, additional opportunities are also available on Saturday, June 8 starting at 7:47 p.m. ET.

A live webcast of this mission will begin on X @SpaceX about five minutes prior to liftoff. Watch live.

This is the 16th flight for the first stage booster supporting this mission, which previously launched CRS-24, Eutelsat HOTBIRD 13F, OneWeb 1, SES-18 and SES-19, and 11 Starlink missions. Following stage separation, the first stage will land on the A Shortfall of Gravitas droneship, which will be stationed in the Atlantic Ocean.

Firefly Aerospace, Inc. has signed a multi-launch agreement with Lockheed Martin for 25 launches on Firefly’s Alpha rocket through 2029. This agreement commits Lockheed Martin to 15 launch reservations and 10 optional launches.

Under the agreement, Alpha will launch Lockheed Martin spacecraft into LEO from Firefly’s facilities on the west and east coast. The first mission will launch on Alpha flight 6 (FLTA006) from Firefly’s SLC-2 launch site at the Vandenberg Space Force Base later this year. The mission will be conducted as another responsive space operation that includes transporting the payload fairing to the launch pad, mating it to Firefly’s Alpha rocket, and completing final launch operations within hours of the scheduled liftoff.

Built with lightweight carbon composites and patented propulsion technologies, Firefly’s Alpha rocket provides low-cost launch services for satellites up to 1,030 kg and supports the growing demand for responsive space missions when and where customers need to fly.

“Firefly is honored to continue this partnership with Lockheed Martin and appreciates their confidence in our rapid launch services to support their critical missions for years to come,” said Bill Weber, CEO of Firefly Aerospace. “The Firefly team has scaled up Alpha production and testing and significantly streamlined our launch operations to fly Alpha more frequently and responsively. This allows us to continue delivering the one metric ton rocket the industry is demanding.”

“Our customers have told us they need rapid advancement of new mission capabilities,” said Bob Behnken, Director, Ignite Technology Acceleration at Lockheed Martin Space. “This agreement with Firefly further diversifies our access to space, allowing us to continue quickly flight demonstrating the cutting-edge technology we are developing for them, as well as enabling our continued exploration of tactical and responsive space solutions.”

BlackSky Technology Inc. (NYSE: BKSY) has been awarded a one year extension contract from the National Reconnaissance Office (NRO) to continue to deliver on the current Electro-Optical Commercial Layer (EOCL) subscription contract for reliable high-frequency Gen-2 imagery services.

The U.S. government has built a new API-enabled commercial imagery ordering architecture designed to streamline and scale the ability to order and receive data products from commercial providers. BlackSky was the first commercial imagery provider to successfully integrate and validate performance of this architecture.

BlackSky achieves industry-leading speed through constellation design and a dedication to end-to-end AI-driven system automation. With rapid, hourly revisit rates, BlackSky delivers time-diverse imagery and analytics up to 15 times per day, dawn-to-dusk, providing decision-quality data directly to those who need it most—from senior leaders to warfighter in the field.

“This contract represents continued confidence in BlackSky as a trusted mission partner as the NRO makes strides in leveraging commercial space technology to strengthen national security,” said Brian E. O’Toole, BlackSky CEO. “BlackSky is committed to providing the most advanced space-based intelligence capabilities to end-users as we expand services for anchor U.S. government customers and our growing customer base worldwide. Now entering its third year, the 10-year EOCL contract continues to confirm the value of BlackSky’s distinct real-time, high-revisit monitoring approach.”

Synspective Inc. has successfully tested observation of images for daily Interferometric Synthetic Aperture (InSAR) analysis with StriX-3, launched in March of 2024, and StriX-1, launched in September of 2022.

InSAR is a technique that detects changes in the Earth’s surface, including surface deformation, terrain height, and other minute movements with millimeter-scale accuracy. It achieves this by applying sophisticated processing to SAR images captured at different times to provide high-resolution data. This technique is capable of penetrating clouds and works in all weather conditions. Recently, several such images were acquired.

The company’s InSAR analysis used two-time pair images from consecutive days in the images below. The colored images show the difference in the phase of the SAR images through color changes, while the monochrome images indicate the coherence of the phase by brightness. High coherence is evident across the entire image. Further analysis can detect topographic data and millimeter-level displacement.

Large SAR satellites currently acquire images at intervals of up to six days. Acquiring images more frequently will significantly expand applications, such as safety management at construction sites and disaster prediction.

Synspective has been selected by the Ministry of Economy, Trade and Industry (METI) for the Small and Medium Business Innovation Research Promotion Project (SBIR Phase 3). The firm will continue to develop technologies and establish a system for the stable provision of daily InSAR images. In addition, InSAR analysis services will continue to be developed, including the Land Displacement Monitoring (LDM) solution.