Defense & Military
UK Royal Navy Seeks Next-Gen Airborne Early Warning Systems
Royal Navy modernizes carrier surveillance with drones and AI to counter hypersonic threats as Crowsnest system nears retirement.

The Evolution of Airborne Early Warning in UK Carrier Operations
Modern naval warfare demands advanced surveillance capabilities to maintain strategic dominance. For the Royal Navy’s Queen Elizabeth-class aircraft carriers, airborne early warning (AEW) systems serve as critical force multipliers. These floating fortresses require persistent 24/7 threat detection capabilities to protect £3.5 billion carrier strike groups from evolving anti-ship missiles and stealth aircraft.
The impending retirement of the Merlin helicopter-based Crowsnest system in 2029 – just five years after achieving full operational capability – has created an urgent capability gap. With peer adversaries developing hypersonic weapons and AI-driven swarm drones, the UK’s pursuit of next-generation AEW solutions reflects broader shifts in 21st-century maritime security strategies.
The Strategic Imperative for Modern AEW Capabilities
Current Crowsnest systems use mechanically scanned radar technology that struggles with modern low-observable threats. Unlike the US Navy’s E-2D Hawkeye with its 360-degree electronically scanned array (AESA) radar, the Merlin-based system offers limited detection ranges of approximately 200 nautical miles against fighter-sized targets.
Queen Elizabeth-class carriers’ STOVL configuration compounds these challenges. Without catapult launch systems, they cannot deploy fixed-wing AEW aircraft like the Hawkeye. This limitation forces the Royal Navy to explore alternative platforms that can operate within the carriers’ 700-foot flight deck constraints while matching NATO allies’ surveillance capabilities.
“The proposed system must detect threats at sufficient range to enable layered defense responses – from electronic warfare countermeasures to F-35B intercepts,” states the MoD’s technical requirements document.
Evaluating Potential Solutions
General Atomics’ Mojave drone emerges as a leading contender following its 2023 sea trials aboard HMS Prince of Wales. This 7,500-pound UAV can carry 3,200-pound payloads and stay airborne for over 25 hours – a significant upgrade from Merlin helicopters’ 5-hour endurance. However, integrating its 20-foot wingspan with carrier operations presents deck handling challenges.
Alternative proposals include Airbus’ Zephyr pseudo-satellite, which holds the unofficial endurance record of 64 days aloft. While promising for persistent surveillance, its 66-pound payload capacity limits sensor capabilities. The MoD’s £1.5 billion budget ceiling suggests a hybrid approach may emerge, combining multiple platforms for layered coverage.
Industry responses to the RFI will likely explore novel radar technologies. Thales UK’s proposed AESA system claims 40% greater detection range than Crowsnest’s mechanically scanned array. BAE Systems is reportedly developing AI-powered threat prioritization software to process sensor data from multiple platforms simultaneously.
Operational and Industrial Challenges
The 2032 implementation timeline coincides with the Royal Navy’s broader Future Maritime Aviation Force transformation. This ambitious plan aims to transition from STOVL to CATOBAR operations by 2040, potentially enabling future Hawkeye deployments. However, interim solutions must bridge this decade-long capability gap.
Defense analysts note that developing a STOL-capable AEW platform could influence the UK’s sixth-generation Tempest fighter program. Shared sensor architectures and AI processing systems might create synergies across multiple defense domains while supporting the MoD’s “networked battlespace” vision.
Workforce development presents another hurdle. The proposed system will require training over 150 specialists in drone operations and advanced radar maintenance. Industry partners must demonstrate how they’ll transfer these skills to Royal Navy personnel as part of any contract agreement.
Conclusion
The UK’s AEW modernization effort reflects broader trends in naval aviation – from increased drone integration to AI-enhanced sensor networks. Success requires balancing immediate operational needs with long-term strategic goals, particularly as carrier groups face increasingly sophisticated anti-access/area denial (A2/AD) systems.
As the MoD evaluates proposals, the chosen solution will likely set precedents for NATO’s approach to carrier-based surveillance. With China deploying advanced YJ-21 hypersonic anti-ship missiles and Russia developing AI-targeting systems, the stakes for effective airborne early warning have never been higher in modern naval warfare.
FAQ
Why is Crowsnest being retired after such short service?
The system uses aging radar technology and was always intended as an interim solution until more advanced platforms became available.
Can’t the UK install catapults on existing carriers?
CATOBAR conversion would cost £2-3 billion per ship and require over 3 years of dockyard time – impractical given current operational commitments.
How do drone-based systems compare to manned AEW aircraft?
Modern UAVs offer longer endurance and lower crew risks but require more robust datalinks and cybersecurity protections.
Sources: The Defense Post, Naval News, UK Defence Journal
Photo Credit: navalnews.com
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Defense & Military
GA-ASI Opens Dayton Facility to Support FQ-42A Vengeance Program
GA-ASI will open a 22,000-sq-ft innovation hub near Wright-Patterson AFB in Spring 2027 to support USAF uncrewed aircraft programs.

General Atomics Aeronautical Systems, Inc. (GA-ASI) will establish a 22,000-square-foot innovation hub in Dayton, Ohio, expanding its local footprint sevenfold to support hardware and software development for United States Air Force (USAF) uncrewed programs.
Announced in a company press release on September 14, 2026, the Beavercreek facility is scheduled to open in Spring 2027. The expansion positions the manufacturers closer to key military acquisition and research centers at nearby Wright-Patterson Air Force Base (WPAFB), specifically the Air Force Life Cycle Management Center (AFLCMC) and the Air Force Research Laboratory (AFRL).
Prototyping and remote operations capabilities
The new facility will serve as a central hub for rapid prototyping, integration, and testing of next-generation Uncrewed Aircraft Systems (UAS). A key feature of the site will be a dedicated mission operations center, which will enable the remote flight control of GA-ASI aircraft directly from the Ohio location.
The project is expected to create 50 initial full-time jobs. The expansion builds upon GA-ASI’s existing presence outside WPAFB, which first opened in 2014.
Patrick Shortsleeve, Vice President of DoD Strategic Development at GA-ASI, stated that the expansion allows the company to bring its sensing and UAS expertise to a region known for advanced technology.
“This expansion will enable closer collaboration with local industry and more frequent interaction with our U.S. Air-Forces customer,” Shortsleeve said.
State and local economic partnerships
The development is a collaborative effort involving the State of Ohio, JobsOhio, the Dayton Development Coalition, and Synergy Building Systems. Ohio Governor Mike DeWine characterized the decision as a reflection of the state’s aviation heritage and workforce ingenuity.
J.P. Nauseef, President and CEO of JobsOhio, noted that the investment reinforces Ohio’s role in national defense infrastructure. Synergy Building Systems Vice President John Kopilchack also welcomed GA-ASI into the company’s defense portfolio, emphasizing a commitment to clients pioneering modern military solutions.
Aligning with the Collaborative Combat Aircraft program
The Dayton expansion follows a major production contracts awarded to GA-ASI by the USAF in June 2026 for the FQ-42A Collaborative Combat Aircraft (CCA). The uncrewed fighter jet is designed for semi-autonomous air-to-air operations alongside crewed aircraft.
According to reporting by Air & Space Forces Magazine, Air Force Secretary Troy Meink announced on September 14, 2026, that the FQ-42A has been officially named “Vengeance.” During the Air & Space Forces Association’s 2026 Air, Space & Cyber Conference, Meink outlined the service’s intention to field a minimum of 500 autonomous CCAs by 2032.
AirPro News analysis
We view GA-ASI’s physical expansion in Dayton as a direct operational response to the FQ-42A Vengeance production contract. By scaling its footprint directly outside the gates of WPAFB, the manufacturer is embedding its engineering and prototyping teams alongside the AFLCMC personnel responsible for managing the CCA program’s lifecycle. The inclusion of a mission operations center for remote flight control suggests GA-ASI intends to conduct active testing and demonstration flights integrated with AFRL research initiatives without requiring USAF personnel to travel to the company’s California or Nevada test sites.
Photo Credit: General Atomics Aeronautical Systems, Inc.
Defense & Military
G2E Consortium Wins GCAP ISANKE & ICS Development Contract
The G2E consortium secures an 18-month Edgewing contract to develop sensing and communications systems for the GCAP fighter.

The GCAP Electronics Evolution (G2E) consortium has secured an 18-month contract from the trinational joint venture Edgewing to develop the core sensing and communications architecture for the Global Combat Air Programme (GCAP) sixth-generation fighter.
Announced in a September 10, 2026, press release by Manufacturers S.p.A., the agreement funds the next development phase of the Integrated Sensing And Non-Kinetic Effects & Integrated Communications Systems (ISANKE & ICS). The system is designed to fuse high volumes of data across the aircraft’s sensors, providing pilots with a decisive information advantage in contested airspace when the fighter enters service, which is targeted for 2035.
Advancing the ISANKE & ICS Architecture
The 18-month contracts tasks the G2E consortium with maturing the electronics that will make the GCAP aircraft a sensor powerhouse. G2E comprises Leonardo S.p.A., Leonardo UK Ltd., ELT Group, Mitsubishi Electric Corporation, BAE Systems plc, and Japan Aircraft Industrial Enhancement Co. Ltd. (JAIEC).
Andrew Howard, Interim General Manager of the G2E Consortium, stated that the contract reflects the progress the group has made in transforming from separate national companies into a single international entity prepared to execute the next critical period of development.
“This is a significant milestone for the consortium, cementing GCAP Electronics Evolution as a strategic enabling partner within the GCAP enterprise,” Howard said.
The consortium teams are currently integrating with GCAP Agency and Edgewing partners at the programme headquarters in Reading, United Kingdom.
Broader GCAP Funding and Development Timeline
The G2E award follows a series of major funding milestones for the trinational effort between the United Kingdom, Italy, and Japan. In July 2026, the GCAP Agency awarded a £4.6 billion contract to Edgewing to advance the next stage of the aircraft’s design and engineering.
That July agreement built upon an initial £686 million contract placed with Edgewing in April 2026. Concurrently, the UK Government confirmed an £8.6 billion Investments in the GCAP programme over four years as part of its Defence Investment Plan, securing the financial foundation required to meet the aggressive 2035 service entry target.
AirPro News analysis
We view the rapid succession of contract awards between April and September 2026 as a strong indicator of programmatic momentum. The £4.6 billion Edgewing contract in July provided the overarching financial framework, allowing sub-tier entities like G2E to secure their specific development timelines. The emphasis on the ISANKE & ICS architecture highlights a shift in sixth-generation fighter design, where electronic warfare, data fusion, and non-kinetic effects are prioritized equally with traditional aerodynamic performance. By co-locating the G2E consortium with Edgewing and the GCAP Agency in Reading, the programme is actively attempting to mitigate the communication and integration bottlenecks that have historically challenged multinational defense projects.
Sources: Leonardo S.p.A.
Photo Credit: Leonardo S.p.A.
Defense & Military
Boeing Wins $552M Navy Contract for MQ-25A Stingray Production
The U.S. Navy awarded Boeing up to $552M to begin low-rate initial production of the MQ-25A Stingray unmanned tanker.

The Boeing Company has secured a contract modification valued at up to $552,053,000 from the U.S. Navy to begin low-rate initial production of the MQ-25A Stingray. The award transitions the world’s first fully integrated, carrier-based unmanned aerial vehicle from its development phase into active production.
Announced by the U.S. Department of Defense on September 14, 2026, the undefinitized, fixed-price-incentive modification covers the delivery of three Lot One aircraft and funds advance acquisition of long-lead components for three Lot Two airframes. The MQ-25A is designed to provide organic aerial refueling capabilities to Carrier Air Wings, a role that will free up manned F/A-18E/F Super Hornets for strike missions and extend their operational service life.
Production scope and timeline
The modification to a previously awarded firm-fixed-price advance acquisition contract obligates $164,428,480 at the time of award. This includes $100,000,000 in fiscal 2025 aircraft procurement funds and $64,428,480 in fiscal 2026 funds. Naval Air Systems Command (NAVAIR) is the contracting activity.
Work will be distributed across multiple North-American facilities. The majority of the Manufacturing will take place in St. Louis, Missouri, which accounts for 56 percent of the contract scope. Other significant locations include Torrance, California; Indianapolis, Indiana; and Quebec, Canada. The Department of Defense expects the work under this specific modification to conclude in July 2031.
Program milestones and development hurdles
The contract award follows a series of recent program milestones. On April 25, 2026, the Navy completed the first successful test flight of a production-representative MQ-25A. Less than a month later, Acting Secretary of the Navy Hung Cao granted Milestone C approval, officially authorizing the program to enter the Production and Deployment phase.
Capt. Daniel Fucito, the Unmanned Carrier Aviation Program Manager, highlighted the significance of the award in a Navy statement.
“Awarding this first LRIP contract marks a pivotal transition from development to operational reality and is a testament to the focused effort of our joint government and industry teams.”
The transition to production comes after the program navigated several development delays. According to the Pentagon’s April 2026 Modernized Selected Acquisition Report, technical risks and a labor strike at Boeing contributed to pushing the expected initial operational capability (IOC) to 2029. This represents a four-year delay from the program’s original timeline. Initial deliveries from the Lot One contract are also expected to begin in 2029.
The total program of record calls for 76 air vehicles. Seven test aircraft are currently in production at Boeing facilities in St. Louis and a dedicated MQ-25 site in Mascoutah, Illinois. Official sources show a slight discrepancy in the exact valuation of the new contract, with the Department of Defense listing a not-to-exceed value of $552,053,000 and a concurrent Navy release valuing the Lot One award at $562,000,000.
AirPro News analysis
Moving the MQ-25A into low-rate initial production is a critical milestone for both the U.S. Navy and Boeing. For the Navy, fielding an unmanned tanker capable of delivering 14,000 pounds of fuel over 500 nautical miles fundamentally alters carrier strike group geometry. It relieves the F/A-18E/F fleet from the heavy burden of buddy-tanking, preserving flight hours on tactical fighters for their primary combat roles.
For Boeing, locking in the LRIP contract provides stability to a defense program that has faced intense scrutiny over schedule slips. While the 2029 IOC target reflects the reality of recent supply chain and labor challenges, transitioning from test articles to production airframes indicates that the core technical risks are now manageable. We expect the focus will now shift heavily toward production scaling and the integration of the Stingray into the carrier air wing’s daily operational rhythm.
Sources: U.S. Department of Defense
Photo Credit: Boeing
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