Solstar Space (Solstar) will continue the development of the company’s Critical Data Relay Spacecraft Operational Status (CritDR-SOS), also known as the Deke Space Communicator (Deke), under a Phase II Small Business Innovation Research (SBIR) contract valued at $1,249,269.

Solstar’s small form-factor Deke integrates with a spacecraft’s Telemetry, Tracking and Command (TT&C) system to provide bi-directional, continuous, internet-based, monitoring of the spacecraft’s bus, payload, and environment. It also allows for satellite connectivity with operators or end users using robust commercial communications paths which will help eliminate spacecraft situational awareness gaps.

“Monitoring an endlessly growing number of satellites including commercially owned and operated mega-constellations is a top priority for the U.S. Space Force. With Solstar’s Deke, the Department of Air Force (DAF) can connect space assets which makes the communications network more resilient. This effort has the extended benefit of aligning with the Federal Communications Commission (FCC) recent directive to have de-orbiting capability on-board all spacecraft which Deke facilitates. Deke enables narrowband communications for both uplink and downlink, decreasing the time it takes to download mission data or adjust on-orbit systems. It also enables 24/7 awareness of satellite health by combining the Solstar Deke along with New Mexico Tech’s Spacecraft Health Monitor.” — Brian Barnett, CEO, Solstar Space

“New Mexico Institute of Mining and Technology (NMT) is developing a Spacecraft Health Monitor (SHM) that will connect to the Deke to send and receive spacecraft data. This will provide detailed spacecraft operating data and provide proactive alerts so any faults can be addressed efficiently.” — Dr. Andrei Zagrai, Professor at New Mexico Tech.

Wyvem is teaming with Loft Orbital to expand the capacity of the Dragonette constellation.

Loft is unlocking the power of space for data collection with a deep understanding of how to develop, manage, launch, and operate the satellites that make up their infrastructure. This gives seamless access to on-orbit satellites that gather the hyperspectral data customers need.

Wyvern was founded because the company firmly believes in the power of hyperspectral data with its ability to reveal the hidden reality of Earth and drive positive change. When specific geochemical signatures can be identified, the ability to address planetary-scale problems is unlocked as well as a range of opportunities across industries. From mining and forestry to energy and climate change, hyperspectral data provides unparalleled visibility. That’s why the highest resolution hyperspectral imagery commercially available is offered from LEO.

Wyvem’s mission is set to fly on Loft’s 2Gen satellite platform, which consists of the Longbow bus, derived from the flight-proven OneWeb bus, and the Hub, a modular payload interface that allows for the turnkey accommodation of any customer mission. Wyvern will operate the mission using Cockpit, Loft’s mission operations software. With the ability to support 20-100x the downlink volume as a traditional cubesat, the expanded imaging capacity of Loft’s platform enables Wyvern to serve the growing demand for high-quality data.

Space Flight Laboratory (SFL) has announced that the SFL-built GHGSat greenhouse gas monitoring smallsats have achieved sustained detection and measurement of methane emissions at double the design capacity of the satellites — under contract to GHGSat, SFL developed all nine, operational, 15 kilogram GHGSat spacecraft on the firm’s NEMO smallsat bus.

In addition, the GHGSat-D demonstration satellite, CLAIRE, developed by SFL and launched in 2016, has exceeded operational design life by more than two years. The eight, commercial satellites, GHGSat-C1-C8, launched individually and in clusters since 2020, are in excellent health.

GHGSat detects and measures greenhouse gas emissions from industrial sources on the Earth’s surface from space. The Montreal company provides their monitoring services commercially to industries that include oil and gas, power generation, mining, waste management, and agriculture.

GHGSat selected SFL to develop the CLAIRE demo mission due in part to the company’s expertise in implementing advanced attitude control and stability technologies that enable smaller spacecraft to accurately point sensors at targets on the ground. With the demand of attitude and tracking performance that was rare in satellites of that size, this capability was crucial to GHGSat’s mission objectives.

Attitude control is just one of several technological factors contributing to the better-than-anticipated collection capacity of the GHGSat microsatellites, explained SFL director Dr. Zee. SFL incorporates robust design margins into every satellite, and these include the onboard power systems, data storage, and downlink capacities. These margins on-orbit translate into better operations and longer missions. 

SFL’s 25-year heritage includes 70 operational successes totaling 265 cumulative years in orbit, with an additional 26 satellites under development or awaiting launch. SFL offers a complete suite of nano-, micro- and small satellites – including high-performance, low-cost CubeSats – that satisfy the needs of a broad range of mission types from 3 to 500 kilograms. These missions relate to EO, atmospheric monitoring, ship tracking, communication, radio frequency (RF) geolocation, technology demonstration, space astronomy, solar physics, space plasma, and other scientific research.

“The SFL-built satellites have exceeded our expectations regarding technological performance. Each satellite is now making twice as many emission measurements per day as originally planned. This performance has enabled us to push our monitoring capability further, helping more clients better understand and reduce their emissions.” — Stephane Germain, President, GHGSat

“SFL is pleased to play an important role in GHGSat’s global success by developing its core company-owned satellite assets. At SFL, we take pride in building affordable small satellites that outperform – often exceeding operational specifications and outlasting their design lives.” — Dr. Robert E. Zee, Director, SFL

Firefly Aerospace, Inc. has signed a multi-launch agreement (MLA) with L3Harris Technologies [NYSE:LHX] for three dedicated launches using Firefly’s Alpha vehicle in 2026.

This agreement further positions Firefly as a leader in small-lift launch services, as the company ramps up production of their Alpha vehicle to support the growing needs of government and commercial customers.

Firefly will provide rapid launch capabilities for L3Harris to achieve direct access to LEO at a lower cost and support the responsive space needs of the U.S. Government (USG). The three missions will launch from Firefly’s SLC-2 launch site at Vandenberg Space Force Base.

With the capability to launch more than 1,000 kg. to LEO, Firefly’s Alpha vehicle provides affordable, responsive, and reliable launch services for small satellites and spacecraft. Firefly is ramping up Alpha production at its rocket manufacturing and test site in Briggs, Texas, to support multiple government and commercial launches, while also doubling the size of its facilities to support the ongoing development of its medium launch vehicle that will first launch in 2025.

“Firefly is honored to support the ongoing mission needs of L3Harris as they continue to deliver satellite systems that advance our national security. Firefly’s team, facilities, and manufacturing capabilities are positioned to rapidly respond to industry demand for our small- and medium-lift launch services, ensuring mission success for each customer.” — Bill Weber, CEO, Firefly Aerospace

etherWhere has partnered with Xona Space Systems to develop a receiver capable of tracking Xona’s high-performance, multi-frequency PULSAR signals.

etherWhere’s PULSAR + dual-band GNSS receiver will be a one chip, low power solution that integrates all four GNSS constellations while receiving and processing the Xona PULSAR signal simultaneously. The single chip solution with single digit mW power consumption is intended to further enable IoT, asset tracking, mobile, precise timing, and secure geolocation applications.

etherWhere’s Hybrid Constellation solution, a mix of traditional GNSS receivers and LEO satellite receivers, integrated onto a single low power silicon, is the most comprehensive offering for applications requiring low power, redundancy, and security with anti-jamming and anti-spoofing technology.  etherWhere’s next generation small form factor GNSS products are adding support for Xona PULSAR signals.

Xona Space Systems is developing PULSAR, a nexgen position, navigation, and timing (PNT) service to address growing user demands for higher performance from satellite navigation technologies. PULSAR is provided by a constellation of small but powerful LEO satellites 20 times closer to Earth than existing GPS. This novel and patented architecture enables unprecedented benefits including enhanced multipath mitigation and higher accuracy, as well as stronger interference and spoofing protection. PULSAR can be easily integrated into a variety of solutions, including traditional GNSS receivers, to reduce customer engineering investment and enable quick time to market.

“We’re thrilled to work jointly with Xona Space Systems to provide unprecedented PNT performance to the end user with mass market user equipment. Integrating Xona PULSAR into our new products will empower users with PNT performance in the smallest form factor and lowest cost they’ve never witnessed before. There is tremendous value in what our PULSAR + dual-band GNSS receivers can achieve.” — Michael Raam, CEO, etherWhere CEO. “”

“We are thrilled to welcome etherWhere to the PULSAR ecosystem,” said . “etherWhere is on the cutting edge of developing high-performance PNT user equipment at very low power – Xona PULSAR will elevate the performance of their receivers to deliver even more value to their customers.” — Bryan Chan, Vice President of Business Development and Strategy, Xona

Umbra has engaged in a strategic partnership with European Space Imaging (EUSI), a leading provider of Very High Resolution (VHR) optical satellite imagery — this partnership will allow customers to purchase Umbra’s industry-leading Synthetic Aperture Radar (SAR) data directly through EUSI.

This collaboration offers a significant benefit to remote sensing data users across Europe and North Africa, as they can now acquire the world’s highest resolution, space-based, optical and SAR imagery – 30 and 25 cm. resolutions, respectively – from a single, local source. EUSI now has the unique position on the market to coordinate SAR and optical tasking to guarantee acquisitions independently from the weather and ensure the continuity of monitoring requests.

Under the partnership agreement, EUSI will gain the ability to oversee global tasking and delivery of SAR imagery for its customers using Umbra’s advanced satellite constellation and tasking platform. Umbra currently operates six satellites, with plans to launch more throughout 2023 and 2024. Renowned for their agility, the satellites can efficiently collect data in various modes and deliver single and multi-look SAR imagery with resolutions ranging from an industry-leading unrivaled 16-cm resolution in the ground plane up to 1-m for wider-area monitoring.

The introduction of SAR products into EUSI’s portfolio will unlock a myriad of opportunities across diverse sectors, including emergency response, maritime and defense and intelligence. SAR imagery is particularly valuable in these areas due to its ability to capture imagery at night and penetrate clouds, enabling users to gather critical information even in adverse weather conditions. Umbra’s highest resolution commercially available SAR data, flexible tasking, competitive pricing, and straightforward licensing further enhance the appeal to EUSI’s customers.

“Through our partnership with Umbra, EUSI solidifies its commitment to providing our customers with the most advanced and comprehensive geospatial solutions available. The integration of SAR data into our offerings will enhance our ability to deliver unparalleled insights and empower organizations across Europe to make informed decisions with confidence.” — Adrian Zevenbergen, CEO, European Space Imaging

“EUSI is one of the most respected and trusted brands in Earth observation, and their choice to bring us into their portfolio speaks volumes,” said . “EUSI are relentlessly focused on what’s best for their customers, which is how they’ve built decades-long relationships with the largest users of Earth observation data across the markets they serve. It’s an honor to be working closely with them, and another huge vote of confidence not only in our technology but in our whole service offering.” — Joe Morrison, VP of Commercial Experience, Umbra

Fleet Space Technologies (“Fleet”) has engaged in a collaboration with Thor Energy Plc (“Thor”) that will redefine their mineral exploration approach through cutting-edge, space-enabled technology.

This partnership will leverage EXOSPHERE BY FLEET® technology and Thor’s expertise to further the understanding of the Alford East Copper-REE Project in South Australia, underpinning more precise drilling to realize the site’s potential faster and with less impact.

The collaboration has also seen Fleet Space Technologies take an equity stake in Thor Energy, signifying both parties’ long-term commitment to the project. This latest major commitment for Fleet follows the successful completion of the company’s institutional Series C fundraising round and the signing of landmark contracts with the world’s largest and most innovative exploration companies including Rio Tinto and Barrick Gold.

Fleet’s state-of-the-art technology, paired with Thor’s expertise, will pave the way for more precise and efficient drilling campaigns. The Alford East Project will serve as the first step in a long-term, transformative partnership, combining space technology with mineral exploration.

The collaboration will drive ANT surveys using EXOSPHERE BY FLEET® technology initially over the northern part of the Alford East Project. This low-impact exploration technique harnesses natural environmental vibrations to analyse the Earth’s composition at significant depths.

The integration of this data with Thor’s existing 3D geological model will lead to a comprehensive understanding of structural and lithological controls on mineralization, facilitating the identification of high-potential drill targets.

Data is collecting using portable Geodes devices which capture subtle vibrations from both natural and human sources. The data collected is then promptly processed and efficiently transmitted through Fleet’s network of low earth orbit satellites.

The collaboration between Thor and Fleet will empower the accurate delineation of low velocity, weathered troughs housing oxide copper-REE mineralization. This partnership will also pioneer the targeting higher-grade oxide copper-gold mineralization by employing Artificial Intelligence (AI) and Machine Learning (ML) methodologies.

Fleet Space Technologies will earn an equity interest in Thor through a strategic share subscription. This underlines the commitment to jointly accelerate mineral exploration and leverage technology to redefine industry standards.

The Alford East Copper-REE Project, located on the Yorke Peninsula, SA, is a significant area of focus for Thor Energy. The collaboration with Fleet Space Technologies promises to revolutionize exploration methodologies, resulting in more informed decision-making and streamlined drilling campaigns.

“This partnership signals Fleet Space Technology and Thor Energy’s shared commitment to innovation. The satellite enabled exploration approach made possible by Fleet’s Exosphere technology is driving greater efficiency and accuracy across the industry. We are delighted that Fleet has signalled its intent for a long-term collaboration at Alford East by taking a stake in Thor Energy that see us become partners in innovation as we work together to redefine exploration practices for the better.” — Nicole Galloway Warland, Managing Director, Thor Energy

“This partnership between Thor Energy and Fleet Space Technologies is further testament to what is possible when we fuse world-class exploration expertise with cutting-edge space technology. This has been an extraordinary period of growth for Fleet Space Technologies. We are proud to work with an increasing number of the world’s most progressive exploration companies to deliver faster, more accurate and ultimately less impactful exploration practices. By taking an equity stake in Thor Energy we signal our long-term commitment to redefining how minerals are found at their Alford East Project and beyond.” — Federico Tata-Nardini, Chief Financial Officer and Financial Strategy and Investment Officer, Fleet Space Technologies

UCAnFly, a CubeSat project from the University of Cadiz, Spain, is marking significant strides toward its own production and launch.

Part of the third edition of Fly Your Satellite!, an ESA Education program, UCAnFly is one-unit (1U, 10x10x10cm) CubeSat, with a mission to allow on-orbit validation of a magnetic measurement subsystem, MELISA-II, based on chip-scale magnetoresistive sensors with dedicated low-frequency noise reduction techniques.

The team was able to make noteworthy progresses in the past months, such as passing the Delta Critical Design Review, an important milestone that attests to the satellite’s robust design and engineering. The project has also undertaken the manufacturing and testing of the Qualification Model (QM), and in February 2023, the payload qualification model of UCAnFly has successfully passed the Electromagnetic Compatibility (EMC) test campaign in ESTEC (Netherlands), verifying that EMC radiated emissions and susceptibility of the payload are compatible with the requirements of the UCAnFly platform.

Subsequently, in May of 2023 at the CubeSat Support Facility in ESEC (Belgium), the payload environmental qualification has been completed, showcasing UCAnFly readiness to endure the extreme environment of space.

Furthermore, the project’s groundwork has focused on securing a laminar flow bench, integrated within the university laboratory to ensure a controlled environment with adequate cleanliness levels. This facility has been used to inspect and begin tests of the component-off-the-shelf units that compose the satellite.

The team is currently working toward the preparation of interface tests and FlatSat test campaign, with its interlinked subsystems spread out across a table, before the CubeSat is ready for integration.