German aerospace manufacturers OHB SE has secured a contract valued at nearly €1 billion ($1.17 billion) to develop and produce 18 medium Earth orbit (MEO) satellite platforms for the European Union’s IRIS² secure connectivity program.

Announced in a company press release on August 31, 2026, the agreement with satellite operator SES marks the first major manufacturing contract awarded under the IRIS² concession. The constellation represents the European Union’s third flagship space initiative, following Galileo and Copernicus, and aims to establish a sovereign, multi-orbit communications network for European governments and commercial users.

Technical specifications and production

The contract tasks OHB with delivering the MEO segment of the broader IRIS² architecture. Each of the 18 satellite platforms will feature a launch mass of 2.6 metric tons and a maximum power output of 15 kilowatts.

These 18 MEO platforms will form a critical layer of the planned 348-satellite constellation, which will operate across both low Earth orbit (LEO) and MEO to provide global coverage with reduced signal latency.

OHB SE Chief Executive Officer Marco Fuchs highlighted the strategic nature of the contract for the company and the continent.

“IRIS² will mark another significant step toward Europe’s independence. In an increasingly digital and highly mobile world, a resilient and autonomous communication infrastructure is indispensable. With Galileo and Copernicus, OHB has already helped shape two of Europe’s most important satellite programs. We are especially pleased to have been entrusted with the development of eighteen satellite platforms for IRIS², further expanding our role in Europe‘s strategic space infrastructure.”

The SpaceRISE consortium and program timeline

The European Commission selected the SpaceRISE consortium to develop and deploy the IRIS² infrastructure. The consortium includes major European satellite operators SES, EUTELSAT, and HISPASAT. Within this group, SES is leading the delivery of the MEO segment, which led to the direct contract with OHB.

The manufacturing award follows the official launch of the IRIS² implementation phase on August 6, 2026. The following day, the European Commission, the European Space-Agencies (ESA), and the SpaceRISE consortium signed an implementation agreement. That August 7, 2026 signing concluded seven months of negotiations regarding the multi-orbit network’s architecture and associated costs.

According to the current program schedule, the first IRIS² satellites are slated to launch in 2029. Initial connectivity services are expected to become available to government users in 2030.

AirPro News analysis

The nearly €1 billion award to OHB cements the industrial foundation for IRIS² (Infrastructure for Resilience, Interconnectivity and Security by Satellite). By utilizing a multi-orbit architecture, European planners are attempting to balance the low-latency benefits of LEO constellations with the broader coverage and established reliability of MEO platforms. We view this contract as a critical indicator that the European Union is moving aggressively from the planning phase to hardware production, prioritizing domestic aerospace contractors to ensure the resulting network remains entirely sovereign and independent of foreign commercial providers.

Sources: OHB SE

AeroVironment, Inc. (AV) will co-design and manufacture three autonomous Helicopters for the National Aeronautics and Space Administration (NASA) Jet Propulsion Laboratory (JPL) under a newly awarded Contracts for the upcoming SkyFall Mars mission. The agreement, announced in an August 27, 2026, press release, transitions the manufacturer’s extraterrestrial rotorcraft program from a single technology demonstrator into a standardized product line.

Targeted for a late 2028 launch, the SkyFall mission will mark the first deployment of a multi-rotorcraft team on another planet. The mission architecture relies on a novel deployment method designated the “SkyFall maneuver.” Under this profile, the instrument-carrying helicopters will be released directly from a carrier spacecraft into the Martian atmosphere, where they will separate, descend, and land autonomously without the assistance of a traditional dedicated lander.

Transitioning from demonstration to production

The SkyFall contract represents a direct evolution of the Ingenuity Mars Helicopter program, which concluded its operational mission in January 2024 after completing 72 flights at Jezero Crater. While Ingenuity was designed as a proof-of-concept technology demonstrator, the SkyFall platform is intended to establish a repeatable architecture for future planetary exploration.

AeroVironment initially revealed the SkyFall concept on July 24, 2025, proposing a fleet of six scout helicopters. The formally funded contract scales the initial mission deployment to three aircraft, which will be developed by the company’s MacCready Works advanced solutions team.

“With Ingenuity, AV and JPL proved we could fly on Mars. Now, with SkyFall, we’re taking AV’s high-volume uncrewed systems mindset into planetary exploration and showing that Mars helicopters can be built as a repeatable product line, not a one-off delivery.”

Jeff Rodrian, Head of MacCready Works at AeroVironment, noted that the public-private Partnerships builds on Ingenuity’s success to create a platform NASA can apply to various science missions over multiple future launch windows.

Corporate expansion and Manufacturing scale

The NASA JPL contract award coincides with a period of significant manufacturing expansion for AeroVironment, driven largely by its terrestrial defense portfolio. On August 26, 2026, the company announced a $51 million Orders from the U.S. Army for Switchblade 600 Loitering Munitions.

To support the growing demand across its uncrewed systems divisions, AeroVironment confirmed on August 24, 2026, that it is investing $100 million in a new unified campus in Moorpark, California. The facility will consolidate five existing locations, positioning the Manufacturers to scale production for both its military contracts and its specialized space exploration hardware.

AirPro News analysis

We view the SkyFall contract as a critical validation of AeroVironment’s strategy to bridge high-volume defense manufacturing with bespoke space exploration hardware. By standardizing the Mars helicopter platform, NASA and JPL can integrate rotorcraft into future science missions without redesigning the aerial vehicle from scratch for every launch window. The concurrent $100 million facility consolidation in Southern California suggests the manufacturer is actively preparing the industrial base required to support both its high-demand terrestrial defense contracts and its expanding planetary exploration portfolio. The shift from a six-aircraft concept in 2025 to a three-aircraft funded contract in 2026 likely reflects standard mission scoping and payload mass constraints typical of interplanetary mission planning.

Sources: AeroVironment, Inc. (SkyFall Contract)

The National Aeronautics and Space Administration (NASA) successfully launched the Nancy Grace Roman Space Telescope aboard a Space Exploration Technologies Corp. (SpaceX) Falcon Heavy rocket on August 30, 2026, initiating a flagship astrophysics mission designed to survey the universe 1,000 times faster than the Hubble Space Telescope.

Liftoff occurred at 7:26 a.m. EDT (11:26 UTC) from Launch Complex 39A at NASA’s Kennedy Space Center in Florida. According to a press release issued by the agency, the observatory will travel one million miles over the next three months to reach the second Sun-Earth Lagrange point (L2), where it will investigate dark energy, dark matter, and exoplanets.

Launch and deployment timeline

The launch sequence proceeded without delay following a successful Launch Readiness Review completed on August 28, 2026, which officially cleared the Falcon Heavy for flight.

Following liftoff, the Falcon Heavy side boosters separated from the center core and safely returned to the launch site for refurbishment. At 7:33 a.m. EDT, seven minutes into the flight, ground control at NASA’s Goddard Space Flight Center began receiving telemetry data from the spacecraft.

The observatory separated from the rocket 31 minutes after launch. By 8:49 a.m. EDT, the telescope successfully deployed its solar panels and lower instrument sun shade, securing its power source and thermal protection for the journey ahead.

Mission capabilities and scientific objectives

The Roman Space Telescope represents a significant upgrade in observational capacity for NASA. The agency stated the observatory will transmit 1.4 terabytes of data back to Earth every day, marking the highest data rate of any NASA astrophysics mission to date.

During the three-month transit to L2, scientists will conduct a commissioning period to run the telescope instruments through a series of calibrations and tests. This phase must be completed before the primary Wide Field Instrument is activated. NASA anticipates releasing the first images from the telescope in early 2027.

NASA Administrator Jared Isaacman highlighted the program execution in a statement following the launch.

“Roman is exactly the kind of success story we want to see across NASA. Delivered ahead of schedule and on budget, this mission reflects more than a decade of dedication from the NASA workforce and our industry partners. Now, Roman will give us a new atlas of the universe, push the boundaries of discovery, and demonstrate what is possible when America’s space program pairs bold ambition with disciplined execution.”

Nicky Fox, Associate Administrator for the Science Mission Directorate, added that the large field of view and fast survey speeds will make the invisible visible and set a foundation for future searches for life.

AirPro News analysis

The successful deployment of the Roman Space Telescope on a commercial launch vehicle underscores the maturing reliance of NASA on commercial partners like SpaceX for high-value scientific payloads. The use of the Falcon Heavy, complete with booster recovery, demonstrates a shift in how deep-space observatories are delivered to orbit, contrasting with the expendable launch vehicles historically used for missions of this scale. We will monitor the commissioning phase closely, as the unprecedented 1.4 terabyte daily data downlink will test both the spacecraft communication arrays and the ground-based Deep Space Network infrastructure.

Sources: National Aeronautics and Space Administration (NASA)