Space & Satellites
Boeing Unveils Resolute Mid-Class Satellite Platform and 26 in 26 Target
Boeing and Millennium Space Systems launch the Resolute satellite platform and aim to deliver 26 satellites in 2026, expanding production capabilities.
This article is based on an official press release from Boeing, supplemented by industry research reports.
On April 16, 2026, during the 41st Space Symposium in Colorado Springs, Boeing and its subsidiary Millennium Space Systems announced a significant expansion of their space production capabilities. According to an official company press release, the aerospace giant unveiled “Resolute,” a new mid-class satellite platform designed to bridge the gap between agile small satellites and traditional, large-scale spacecraft.
To support a growing backlog of defense and commercial orders, Boeing has established an aggressive manufacturing target of delivering 26 satellites in 2026. This “26 in ’26” initiative represents a more than sixfold increase from the four satellites the company delivered in 2025, signaling a major strategic pivot toward scalable, modular, and rapidly deployable space architectures.
Introducing the Resolute Platform
The newly unveiled Resolute platform is engineered to serve the “middle ground” of the modern space market. As outlined in the Boeing announcement, the platform is designed for missions requiring more power and larger sensor apertures than traditional small satellites, but with significantly shorter development timelines and greater flexibility than legacy satellite programs.
Technical Versatility and Applications
Resolute features a modular architecture that allows for the rapid integration of advanced sensors and communication packages. Industry specifications indicate the platform is optimized for diverse operational environments, including both Low Earth Orbit (LEO) and Medium Earth Orbit (MEO).
Crucially, the new platform leverages Millennium Space Systems’ existing flight-proven avionics and common products, which have been refined through high-priority national security programs. Boeing notes that Resolute is highly adaptable for secure communications, Earth observation, sensing, and missile tracking across multiple orbital regimes.
Scaling Up: The “26 in ’26” Target
Boeing’s ambitious goal to deliver 26 satellites in a single year requires substantial manufacturing investments. The expansion strategy combines Boeing’s legacy payload and mission expertise with Millennium’s rapid, high-rate manufacturing approach and standardized components.
Infrastructure Investments
To achieve this scale, Boeing has heavily invested in common products and repeatable manufacturing approaches. In February 2026, the company opened a new 9,000-square-foot electro-optical infrared (EO/IR) sensor payload production line at its El Segundo facility. This ISO Class 6 cleanroom was specifically built to support Millennium’s delivery of 12 U.S. Space Force Resilient Missile Warning and Tracking (MWT) MEO program vehicles slated for 2027, an infrastructure upgrade that directly enables the “26 in ’26” goal.
Company leadership emphasized the necessity of this rapid scaling to meet evolving customer needs.
“We’re aligning our space business to meet a market that is moving faster and asking for more flexibility. That means increasing production throughput, broadening the portfolio and giving customers more options for how they field and scale capability over time,” stated Kay Sears, Vice President and General Manager of Boeing Space, Intelligence & Weapons Systems, in the press release.
Tony Gingiss, CEO of Millennium Space Systems, added: “This is about more than one product. We are building the production depth, common architecture and capacity to scale with demand. That includes expanding into mission areas where customers want more capability, while staying focused on execution and delivery across the backlog already in front of us.”
AirPro News analysis
At AirPro News, we view Boeing’s push toward standardized, assembly-line satellite manufacturing as a direct response to high-cadence operators like SpaceX and the broader industry demand for faster deployment cycles. The aerospace industry is rapidly moving away from relying on single, highly complex, and expensive “battlestar” satellites that take years to build. Instead, defense spending is increasingly focused on proliferated constellations, deploying larger numbers of mid-class, attritable systems to ensure mission continuity in contested environments.
Furthermore, Boeing’s 2018 acquisition of El Segundo-based Millennium Space Systems is clearly paying dividends. By blending Boeing’s deep resources and payload heritage with Millennium’s agile, startup-like manufacturing speed, the company is positioning itself to capture a significant share of the mid-class satellite market. The Resolute platform appears perfectly timed to capture defense agencies and commercial providers who demand more power than CubeSats but refuse to wait years for legacy satellite deployments.
Frequently Asked Questions
What is the Boeing Resolute platform?
Resolute is a new mid-class satellite platform developed by Boeing and Millennium Space Systems. It is designed to offer more power and capability than small satellites while maintaining shorter development timelines than traditional large-scale satellites.
What does Boeing’s “26 in ’26” target mean?
The “26 in ’26” target is Boeing’s aggressive manufacturing goal to deliver 26 satellites in the year 2026. This is a significant production ramp-up compared to the four satellites the company delivered in 2025.
When did Boeing acquire Millennium Space Systems?
Boeing acquired Millennium Space Systems, an El Segundo-based satellite manufacturer known for rapid and cost-effective production, in 2018.
Photo Credit: Boeing
Space & Satellites
Lockheed Martin Delivers Neutron Spectrometer for Lunar Water Detection
Lockheed Martin supplies neutron spectrometer to detect lunar water ice for the 2028 LUPEX mission led by JAXA and ISRO, supporting sustained moon exploration.
This article is based on an official press release from Lockheed Martin.
As Space-Agencies worldwide prepare to establish a sustained human presence on the Moon, the search for local resources has become a top priority. To support this effort, aerospace manufacturer Lockheed Martin has delivered a new instrument designed to detect lunar water ice, a critical component for future deep-space exploration.
According to a recent company press release, Lockheed Martin’s Neutron Spectrometer System (NSS) will help upcoming missions locate and characterize near-surface materials on the Moon. Developed in partnership with NASA, the compact device is slated to fly aboard the Lunar Polar Exploration (LUPEX) mission, an international endeavor led by the Japan Aerospace Exploration Agency (JAXA) and the Indian Space Research Organisation (ISRO) planned for 2028.
We understand that finding water on the Moon is essential for long-term lunar settlements. Instead of transporting heavy supplies from Earth, astronauts will need to rely on local water deposits to grow food, generate breathable air, and produce rocket fuel for further journeys to Mars.
Detecting Water Without Drilling
Locating water ice hidden in the permanently shadowed craters of the lunar South Pole requires specialized technology, as drilling into the rugged terrain presents significant mechanical challenges. The NSS, which Lockheed Martin notes is roughly the size of a desktop printer, is designed to map out water deposits by measuring cosmic ray interactions with hydrates in the lunar or planetary regolith.
When cosmic rays bombard the Moon’s surface, they knock neutrons loose from the soil. As these neutrons bounce around and escape into space, they interact with hydrogen atoms, the key indicator of water (Hâ‚‚O). Because hydrogen absorbs medium-energy neutrons efficiently, a deficit in these specific neutrons signals the presence of underground ice. NASA notes that the NSS detects these variations, allowing scientists to map water concentrations without needing to drill into the surface.
“A Lockheed Martin instrument, roughly the size of a desktop printer, will help future missions locate and characterize near-surface materials that could be critical to sustaining a human presence when we get there,” the company stated in its release.
The instrument was developed jointly by NASA’s Ames Research Center and Lockheed Martin’s Advanced Technology Center (ATC) in Palo Alto, California.
Meeting the Demand for Lunar Instruments
As the cadence of lunar missions accelerates, the demand for reliable resource-mapping tools has grown. To date, Lockheed Martin has delivered five NSS instruments for various lunar expeditions.
To keep pace with this demand, the company has streamlined its Manufacturing process. According to the press release, the instruments are produced exclusively at the Palo Alto facility using a “build-to-print” approach. By building exact copies of previous matured designs rather than engineering components from scratch, the team achieves significant cost savings and schedule efficiency. This process results in a fast production timeline of approximately 12 months per unit.
In addition to the 2028 LUPEX mission, NASA plans to deploy NSS instruments on other upcoming lunar rovers, including the MoonRanger micro-rover developed by Carnegie Mellon University. Together, these missions will build a comprehensive map of the Moon’s water resources.
AirPro News analysis
The Delivery of the Neutron Spectrometer System underscores a critical shift in space exploration strategy: the move toward in-situ resource utilization (ISRU). For decades, space missions have relied entirely on resources brought from Earth, a model that is financially and logistically unsustainable for permanent lunar bases or crewed missions to Mars.
By mapping exactly where water ice is located and determining its abundance, instruments like the NSS are laying the groundwork for a specialized lunar economy. If future astronauts can reliably harvest lunar ice to synthesize rocket propellant and sustain habitats, the Moon will transition from a destination into a vital staging ground for the broader exploration of our solar system.
Frequently Asked Questions
What is the LUPEX mission?
The Lunar Polar Exploration (LUPEX) mission is an uncrewed lunar lander and rover project led jointly by JAXA and ISRO. Planned to launch no earlier than 2028, it will explore the Moon’s South Pole to search for water and other resources.
How does the Neutron Spectrometer System find water?
The NSS detects water by measuring neutrons that are knocked loose from the lunar surface by cosmic rays. Since hydrogen (a primary component of water) absorbs medium-energy neutrons, the instrument can locate underground ice by detecting drops in the number of these escaping neutrons.
Sources
Sources: Lockheed Martin, NASA
Photo Credit: Lockheed Martin
Space & Satellites
Airbus, Thales Alenia Space, and RADMOR Partner on Poland’s Defense Satellite
Airbus, Thales Alenia Space, and RADMOR collaborate to develop a secure geostationary defense satellite for Poland’s Ministry of Defence under the EU Readiness 2030 plan.
This article is based on an official press release from Airbus.
On April 20, 2026, Airbus Defence and Space, Thales Alenia Space, and Polish technology firm RADMOR announced a strategic industrial cooperation agreement to develop a new geostationary defense telecommunications satellite for the Polish Ministry of Defence. According to the official press release, the partnership aims to deliver a highly resilient, end-to-end secure communications system for Poland’s armed forces.
The announcement took place in Gdansk, Poland, during a ceremony attended by Polish Defence Minister Władysław Kosiniak-Kamysz and French Minister of the Armed Forces Catherine Vautrin. The event coincided with celebrations of the fellowship day between Poland and France, highlighting the deep industrial ties between the two nations.
This collaboration represents a significant step in European defense integration. By combining the expertise of major European aerospace contractors with domestic Polish industry, the project seeks to bolster Poland’s national space sovereignty in an increasingly contested orbital environment.
Enhancing Poland’s Space Sovereignty
The new geostationary satellite is being developed as part of the European Commission’s “Readiness 2030” plan, which was initiated in 2025. As detailed in the Airbus press release, the system is designed to provide secure communications with a very high level of robustness and resilience.
With the return of high-intensity conflicts and emerging threats in space, the partners emphasize that the system will be fully cyber-secured across both its ground and space segments. The satellite will incorporate advanced anti-jamming technologies to ensure uninterrupted operational connectivity for military forces.
Industrial Cooperation and Expertise
The consortium brings together specialized capabilities from each of the three partners. Thales Alenia Space, a joint venture between Thales (67%) and Leonardo (33%), and Airbus Defence and Space will provide their extensive experience in military communications payloads, mission control, and satellite platform design. RADMOR will contribute its expertise in secure ground infrastructure and cybersecurity.
In the company’s press release, Hervé Derrey, President and CEO of Thales Alenia Space, highlighted the strategic importance of the project:
“We are proud to lead this strategic industrial cooperation, delivering cutting-edge secure communications capabilities to the Polish Ministry of National Defence. This geostationary satellite project will embody the highest standards of resilience, cybersecurity, and anti-jamming technologies, reflecting our commitment to strengthening European defence sovereignty.”, Hervé Derrey, President and CEO of Thales Alenia Space
Alain Fauré, Head of Space Systems at Airbus Defence and Space, also noted in the release that the partnership exemplifies European cross-border cooperation, fostering innovation and industrial competitiveness while building on Airbus’s decades-long relationship with Poland.
AirPro News analysis
We observe that this trilateral agreement underscores a growing trend among European nations to secure sovereign space assets amid rising geopolitical tensions. The explicit mention of the European Commission’s “Readiness 2030” plan indicates that national defense initiatives are increasingly aligning with broader European Union security frameworks. By integrating RADMOR into the consortium, the project not only secures advanced technology from Airbus and Thales Alenia Space but also ensures that domestic Polish industry plays a critical role in maintaining and operating the secure ground infrastructure.
Frequently Asked Questions
What is the purpose of the new satellite?
The geostationary defense telecommunications satellite will provide secure, resilient, and cyber-secured communications for the Polish armed forces.
Who is building the satellite?
The satellite is being developed through an industrial cooperation agreement between Airbus Defence and Space, Thales Alenia Space, and Polish technology company RADMOR.
What is the “Readiness 2030” plan?
Initiated by the European Commission in 2025, the “Readiness 2030” plan is a strategic framework aimed at enhancing European defense capabilities and resilience, under which this satellite project is being developed.
Sources
Photo Credit: Airbus
Space & Satellites
Boeing Ships SLS Core Stage for NASA Artemis III Mission
Boeing ships the SLS core stage’s primary structure to Kennedy Space Center, advancing NASA’s Artemis III lunar mission planned for 2027.
This article is based on an official press release from Boeing.
Boeing has successfully rolled out the primary structure of the Space Launch System (SLS) core stage for NASA’s upcoming Artemis III mission. In a company press release, Boeing confirmed that the massive rocket component, referred to as the “Top Four-Fifths,” departed the Michoud Assembly Facility in New Orleans, Louisiana, and is now en route to Florida.
The Artemis III mission, currently estimated for launch in 2027, aims to test critical docking capabilities between the Orion spacecraft and commercial landers. This mission serves as a vital step in the broader effort to return astronauts to the lunar surface.
A Shift in Manufacturing Strategy
Accelerating the Artemis Manifest
For the first time in the Space Launch System program’s history, Boeing has shipped a core stage without its engine section attached. According to the official release, the Top Four-Fifths configuration includes the forward skirt, intertank, liquid oxygen tank, and liquid hydrogen tank.
This strategic change is designed to accelerate production timelines for future Artemis missions. By shipping the bulk of the core stage ahead of final engine integration, Boeing and NASA can streamline operations at the Kennedy Space Center.
“Moving the Top Four-Fifths shows how our production process improvements drive faster, more coordinated execution,”
noted Mike Cacheiro, vice president and program manager for Boeing’s Space Launch System program, in the press release. He added that the milestone reflects extensive teamwork aimed at advancing human space exploration.
The coordinated effort allowed the rollout to proceed exactly on schedule.
“One year ago, we set this plan to roll out on April 20 and held to that commitment,”
stated Jordan Falgoust, SLS IPT Senior Manager, emphasizing the team’s readiness to support NASA’s accelerated schedule.
The Journey to Kennedy Space Center
Vertical Integration Awaits
The core stage component has been loaded onto NASA’s Pegasus barge for a 900-mile (1,448-kilometer) maritime journey to the Kennedy Space Center in Florida. Once it arrives, the hardware will undergo vertical integration with the engine section.
According to industry estimates from NASA, the fully assembled core stage will stand 212 feet tall. The two massive propellant tanks will hold more than 733,000 gallons of super-chilled liquid propellant, which will eventually feed the four RS-25 engines required to push the Orion spacecraft into orbit.
AirPro News analysis
We view the decision to ship the SLS core stage in a modular “Top Four-Fifths” configuration as a significant maturation in Boeing’s Manufacturing approach. By decoupling the engine section integration from the Michoud Assembly Facility timeline, Boeing is effectively parallel-processing the rocket’s final assembly. This logistical pivot is crucial for maintaining the momentum of the Artemis program, especially as NASA targets a 2027 Launch window for Artemis III. We believe that streamlining these massive logistical bottlenecks will be essential if the agency hopes to achieve its long-term goals of sustained lunar exploration.
Frequently Asked Questions
What is the “Top Four-Fifths” of the SLS core stage?
It is the primary structure of the rocket’s core stage, consisting of the forward skirt, intertank, liquid oxygen tank, and liquid hydrogen tank, but excluding the engine section.
When is the Artemis III mission scheduled to launch?
According to Boeing’s press release, the Artemis III mission is currently estimated to launch in 2027.
How is the core stage transported?
The massive rocket component is transported via NASA’s Pegasus barge on a 900-mile journey from New Orleans to the Kennedy Space Center in Florida.
Photo Credit: Boeing
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