Defense & Military
RAF Deploys StormShroud EW Drones for Manned-Unmanned Teaming
UK’s Royal Air Force introduces electronic warfare drone to disrupt enemy systems alongside fighter jets, leveraging lessons from Ukraine and GCAP partnerships.
RAF Unveils StormShroud: A New Era of Electronic Warfare Drones
The Royal Air Force (RAF) has taken a significant step forward in modern aerial warfare with the unveiling of its new electronic warfare drone, StormShroud. Designed to operate alongside manned fighter jets like the F-35B and Eurofighter Typhoon, this drone represents a strategic evolution in the U.K.’s approach to contested airspace and electronic warfare capabilities.
As global threats become more sophisticated and the electromagnetic spectrum increasingly contested, the integration of unmanned systems into frontline operations is no longer a futuristic concept—it’s a necessity. StormShroud is not just a drone; it’s a tactical enabler designed to jam enemy radar, disrupt integrated air defense systems, and enhance the survivability of RAF pilots. With this move, the RAF joins a growing list of nations embracing manned-unmanned teaming concepts in their air combat doctrines.
This development aligns with broader trends in defense modernization, particularly within the Global Combat Air Programme (GCAP), a trilateral initiative between the U.K., Italy, and Japan. It also reflects lessons learned from recent conflicts, including the war in Ukraine, where electronic warfare and drone capabilities have proven decisive.
StormShroud and Its Role in RAF’s Future Combat Strategy
Design and Capabilities of StormShroud
StormShroud is based on the Tekever AR3 platform, a propeller-driven drone known for its operational success in Ukraine. Unlike jet-powered drones like the U.S. Air Force’s Collaborative Combat Aircraft (CCA), StormShroud is designed for a more specific role: electronic warfare. It carries a payload developed by Leonardo, a prominent defense technology firm, tailored to jam radars and disrupt enemy communications.
While it does not possess the advanced autonomy or direct control features of U.S. CCAs, StormShroud is pre-programmed to fly specific routes and execute jamming operations. This makes it ideal for high-risk missions in contested environments, where human pilots would face elevated danger. The RAF categorizes StormShroud as a tier two drone—attritable but not disposable—striking a balance between cost-effectiveness and capability.
Stacie Pettyjohn, Director of the Defense Program at the Center for a New American Security, emphasized that StormShroud is “intended to be used as a stand-in jammer or decoy that would be employed with F-35Bs or Typhoons operating inside of enemy air defenses.” It is not a “loyal wingman” in the traditional sense but serves as a tactical complement to manned assets.
“StormShroud provides cheap, precise mass and has been rapidly developed and fielded. It reflects a pragmatic approach to integrating drones into frontline operations.” — Stacie Pettyjohn, CNAS
Strategic Importance and Operational Context
The introduction of StormShroud marks a pivot in RAF doctrine toward a more distributed, networked approach to aerial combat. By offloading high-risk tasks to unmanned systems, the RAF can preserve its human pilots for mission-critical decision-making while still engaging and degrading enemy air defenses.
This strategy is not isolated. It forms part of the U.K.’s broader modernization under the Integrated Review of Security, Defence, Development and Foreign Policy (2021), which emphasized autonomous systems and future air capabilities. The Ministry of Defence has allocated £2.3 billion toward future combat air programs, a portion of which supports drone development.
StormShroud is currently operated by the RAF’s 216 Squadron, a unit tasked with integrating cutting-edge technologies into operational concepts. Its deployment will also inform future iterations of the Autonomous Collaborative Platforms (ACP) family, which could include long-range strike drones and more survivable tier three systems.
Lessons from Ukraine and Global Implications
The RAF’s choice of the Tekever AR3, a platform proven in Ukraine, signals a shift toward using real-world conflict data to shape procurement and design. In Ukraine, drones have been instrumental in both reconnaissance and electronic warfare, highlighting their value in modern conflicts where traditional air superiority is challenged.
Globally, over 20 countries are investing in autonomous military systems, according to the International Institute for Strategic Studies. The U.S. is advancing its CCA program, Russia is developing the Sukhoi S-70 Okhotnik-B, and Australia is collaborating with Boeing on the Airpower Teaming System. The RAF’s StormShroud initiative places the U.K. firmly in this competitive arena.
Justin Bronk of the Royal United Services Institute noted, “Integrating electronic warfare drones with fighter jets represents a paradigm shift in air combat. These systems can act as force multipliers, allowing pilots to focus on mission objectives while drones handle high-risk tasks.”
Challenges and Future Opportunities
Technological and Ethical Considerations
While StormShroud offers clear tactical benefits, it also raises questions about autonomy, control, and rules of engagement. The drone is not designed for full autonomy but still operates without real-time pilot input, which may complicate accountability in combat scenarios.
Dr. Sarah Kreps from Cornell University cautions, “The ethical and operational challenges of manned-unmanned teaming are significant, but the potential to reduce pilot casualties and enhance mission success rates cannot be ignored.” As these systems evolve, so too must the legal and ethical frameworks governing their use.
Another challenge lies in interoperability. As NATO and allied forces increasingly adopt similar technologies, ensuring that systems can communicate and coordinate effectively will be essential to coalition operations.
Industrial and Economic Impacts
StormShroud’s development also has implications for the U.K.’s defense industry. Companies like Leonardo and BAE Systems stand to benefit from increased demand for AI-driven systems, secure communications, and electronic warfare capabilities. The Global Combat Air Programme will likely incorporate lessons from StormShroud into its broader design architecture.
This initiative also supports the U.K.’s goal of maintaining a competitive edge in the global defense market. By fielding drones that are both cost-effective and tactically relevant, the RAF can influence international standards and attract foreign investment and collaboration.
In the long term, the RAF envisions a fleet of drones with varying levels of capability and cost—ranging from expendable surveillance drones to survivable strike platforms. StormShroud is just the beginning of this layered approach to drone warfare.
Looking Ahead: Integration and Innovation
The RAF plans to integrate StormShroud into active service within the next decade, aligning with broader modernization timelines. Future iterations may include enhanced autonomy, longer range, and multi-role capabilities such as strike or logistics support.
The RAF’s commitment to innovation is clear. As Air Chief Marshal Sir Rich Knighton stated, “Autonomous collaborative platforms will revolutionise how we conduct a range of missions, from intelligence gathering to strike and logistical support.”
With continued investment and international collaboration, the U.K. is poised to play a leading role in shaping the future of air combat. StormShroud may be a modest beginning, but it represents a monumental shift in how wars will be fought—and won—in the skies.
Conclusion
StormShroud represents more than just a new drone—it symbolizes the RAF’s strategic transition toward integrated, multi-domain operations. By leveraging proven technologies and focusing on electronic warfare, the RAF is addressing current threats while laying the groundwork for future capabilities.
As global powers race to dominate the electromagnetic spectrum and redefine air superiority, the U.K.’s investment in manned-unmanned teaming ensures it remains a key player on the world stage. The road ahead will involve challenges in technology, ethics, and interoperability—but the direction is clear, and the momentum is building.
FAQ
What is StormShroud?
StormShroud is an electronic warfare drone developed by the Royal Air Force to fly alongside manned fighter jets and disrupt enemy radar and air defense systems.
How is StormShroud different from U.S. Collaborative Combat Aircraft?
Unlike the U.S. CCAs, StormShroud is not jet-powered or highly autonomous. It follows pre-programmed routes and is designed for electronic warfare, not direct combat support.
When will StormShroud be operational?
While no exact deployment date has been confirmed, the RAF aims to integrate StormShroud into active service within the next decade.
Sources:
Air & Space Forces Magazine,
U.K. Ministry of Defence Annual Report 2023,
Integrated Review 2021,
Royal United Services Institute,
BAE Systems,
International Institute for Strategic Studies,
Cornell University
Photo Credit: BreakingDefense
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Defense & Military
Lockheed Martin Signs 10-Year F-35 Framework for 850 Aircraft
A 10-year F-35 framework covers 850+ aircraft at 156/year, with Lockheed Martin committing $7B in self-funding pending Congressional approval.
Lockheed Martin Corporation and the U.S. Department of War have unveiled a 10-year framework agreement covering the production and sustainment of at least 850 F-35 Lightning II aircraft. Announced on October 22, 2026, the arrangement aims to replace the traditional annual contracting cycle with a long-term procurement model designed to stabilize the defense industrial base and generate volume-based cost savings.
In a press release issued by the manufacturer, Lockheed Martin detailed that the framework spans production Lots 21 through 30 and maintains a continued production rate of 156 aircraft per year. The agreement also mandates a minimum $7 billion private investment from Lockheed Martin to support the program, according to reporting by Breaking Defense.
Shifting procurement strategies
The framework agreement marks a departure from the year-by-year purchasing model that has characterized the F-35 program since its inception. By establishing a decade-long baseline, the U.S. government intends to allow the manufacturer and its supply chain to plan capital investments and bulk material purchases with greater certainty. The strategy is intended to reduce logistics bottlenecks and improve mission-capable rates across the global fleet.
The announcement coincides with Lockheed Martin reporting its third-quarter 2026 financial results. During the earnings period, the company noted it remained in active negotiations with the U.S. government on production contracts for F-35 Lots 20 and higher, with the explicit goal of transitioning to a stabilized procurement model.
Michael P. Duffey, Under Secretary of War for Acquisition and Sustainment, highlighted the strategic intent behind the long-term commitment.
We have fundamentally changed how we stabilize the American defense industrial base to produce at speed and scale. This agreement with Lockheed Martin proves it. By aligning financial incentives with actual performance, we are ensuring our warfighters are equipped with the lethal capabilities they need to fight and win.
Lockheed Martin Chairman, President and CEO Jim Taiclet stated that the extended horizon enables the company to address supply chain vulnerabilities.
This multiyear framework strengthens the way we can plan and invest in the F-35 enterprise. With the greater certainty that comes from the U.S. government’s transformative approach to F-35 production and sustainment, we can make the upfront investments needed to expand capacity, improve efficiency, and build a more resilient supply chain. That’s good for the taxpayer, good for our suppliers and, most importantly, good for the United States and its allies.
Program history and operational footprint
The F-35 Lightning II is a fifth-generation stealth multirole fighter developed to replace legacy tactical aircraft, including the F-16 and F/A-18. The program originated from the Joint Strike Fighter (JSF) competition, which saw the X-35 prototype win the development contract in 2001. The aircraft completed its first flight on December 15, 2006.
Lockheed Martin produces the aircraft in three primary variants to meet different operational requirements. The F-35A is designed for conventional takeoff and landing, the F-35B features short takeoff and vertical landing capabilities, and the F-35C is engineered for carrier-based operations. The U.S. Air Force declared Initial Operational Capability (IOC) for the F-35A in August 2016.
The F-35 is currently the most-produced fifth-generation fighter globally. It is operated by the U.S. military and approximately 20 allied nations. The new framework agreement follows a major programmatic milestone achieved on March 12, 2024, when the U.S. Department of Defense officially approved Milestone C and Full Rate Production. That decision formally recognized that the manufacturer had demonstrated control of the manufacturing process alongside acceptable performance and reliability metrics.
Congressional hurdles and next steps
While the framework outlines the structure for the next decade of F-35 production, it is not yet a finalized, funded order. The total contract value and the per-aircraft price were not disclosed in the October 22 announcements.
The execution of the agreement remains strictly contingent upon the U.S. Congress granting multiyear procurement authority and passing the associated appropriations. In the coming months, the F-35 Joint Program Office (JPO) and Lockheed Martin will work to finalize specific contract terms, pricing structures, and delivery schedules ahead of a formal contract award.
AirPro News analysis
The transition from annual procurement to a decade-long framework represents a maturation phase for the F-35 program following its March 2024 Full Rate Production milestone. By securing a 10-year horizon, Lockheed Martin gains the leverage needed to negotiate bulk material purchases and secure lower-tier suppliers, which have historically been choke points for aircraft availability and sustainment.
We view the $7 billion self-funding requirement as a critical compromise. The U.S. Department of War is offering unprecedented revenue predictability, but in return, it is forcing the prime contractor to shoulder the upfront capital expenditure required to fix lingering sustainment bottlenecks. If successful, this framework could serve as a blueprint for future major defense acquisition programs, provided the U.S. Congress is willing to surrender the granular oversight inherent in annual budget approvals.
Photo Credit: Lockheed Martin
Defense & Military
AFRL and SpaceX Test Rocket Cargo Delivery With Starfall Capsule
AFRL and SpaceX tested military cargo delivery via a Starfall reentry capsule on Oct. 20, 2026, under the Rocket Cargo Vanguard program.
The Air Force Research Laboratory (AFRL) and Space Exploration Technologies Corp. (SpaceX) successfully tested point-to-point military cargo delivery using a Starfall reentry capsule launched from Cape Canaveral Space Force Station in Florida on October 20, 2026.
The commercial rideshare mission advances the Department of the Air Force’s Rocket Cargo Vanguard program, an initiative designed to evaluate the viability of using large commercial liquid-propellant rockets to transport heavy military materiel globally in under one hour. The test focused on evaluating payload survivability and recovery systems during atmospheric reentry and splashdown.
Payload survivability and capsule specifications
In a press release detailing the October 20 launch, AFRL confirmed that the Starfall capsule carried specialized agile cargo pods designed by military researchers. These pods were equipped with instrumentation to measure temperature, shock, and vibration throughout the launch, reentry, and recovery phases. The data collection is critical for validating that sensitive military electronics and medical supplies can survive the extreme thermal and acoustic environments generated during atmospheric reentry.
The payload included representative mission equipment to simulate a real-world tactical delivery. Inside the pods, engineers packed a satellite communications tracker, batteries, a reverse osmosis desalinator, survival gear, and emergency medical equipment. The mission also included a fit check of a UNI-PAC III life raft inside the capsule, evaluating the system’s potential for future maritime rescue operations.
According to technical specifications reported by The Defence Blog, the uncrewed SpaceX Starfall reentry capsule is designed as a squat disk measuring approximately 3.1 meters (10 feet) in diameter and 2.5 feet thick. The vehicle has an approximate total weight of 2,100 kilograms (4,600 pounds) and is capable of returning up to 1,000 kilograms (2,200 pounds) of payload to Earth under a parachute recovery system.
Brig. Gen. Douglas P. Wickert, Department of the Air Force Technology Executive Officer and AFRL commander, highlighted the operational focus of the test.
“Today’s launch was another demonstration of how AFRL is partnering with industry to burn down risk, collect hard data and deliver war-winning technologies for the operational force,” Wickert stated.
Regulatory clearance and the Rocket Cargo Vanguard program
The October 2026 test builds upon regulatory and technical milestones achieved earlier in the year. The San Antonio Express-News reported that the Federal Aviation Administration (FAA) concluded an environmental review in June 2026, determining that landing Starfall reentry vehicles in the Pacific Ocean would have no significant environmental impact. This regulatory clearance paved the way for SpaceX to test the uncrewed discs for both military Cargo aircraft delivery and commercial in-space manufacturing returns.
The planned splashdown zone for the Starfall capsule is located approximately 700 nautical miles off the United States West Coast in the Pacific Ocean. SpaceX previously flew the first Starfall demonstration mission in June 2026 following the FAA approval.
The Rocket Cargo program operates as an AFRL Vanguard initiative. The Air Force Research Laboratory serves as the primary scientific research and development center for the Department of the Air Force, and Vanguard programs are specifically structured to rapidly advance emerging weapon systems and warfighting concepts through prototyping and experimentation. The primary objective of the Rocket Cargo effort is to determine the viability of using commercial space launch architecture to deliver materiel anywhere on the globe on tactical timelines.
Unlike smaller cargo delivery efforts, the initiative is designed to carry heavy payloads per launch. Potential applications identified by military planners include routine military resupply, expeditionary operations, disaster relief, and rapid responses to chemical, biological, radiological, and nuclear hazards.
Future testing and operational readiness
The successful fit check of the UNI-PAC III life raft during the October 20 launch establishes a foundation for specialized mission profiles. Future tests are expected to involve dropping rescue kits directly to downed aircrew or stranded maritime personnel located far from established military bases.
Despite the successful launch, the Rocket Cargo program remains firmly in the research and development phase. AFRL and its commercial partners must complete extensive additional testing before establishing operational readiness. Future efforts will focus on evaluating system reliability, payload protection during extreme reentry heating, landing and recovery logistics, cost per flight, and overall mission repeatability.
Wickert noted the broader significance of the milestone for the research laboratory. “Any day you launch a rocket is a good day, but today was more than just another big rocket launch,” he said.
AirPro News analysis
The successful integration of AFRL cargo pods into the SpaceX Starfall capsule represents a material step toward operationalizing space-based logistics. For decades, the United States military has relied on traditional airlift platforms like the Boeing C-17 Globemaster III and Lockheed Martin C-130 Hercules for rapid global mobility. While highly capable, these aircraft require permissive airspace and established runway infrastructure, both of which are increasingly vulnerable in contested environments.
By leveraging commercial space launch architecture, we see the Department of the Air Force attempting to bypass traditional anti-access and area denial networks entirely. A point-to-point delivery system capable of moving 1,000 kilograms of critical supplies anywhere on Earth in under an hour fundamentally alters tactical logistics. The reliance on a commercial partner like SpaceX underscores a broader procurement shift. Rather than funding bespoke military launch vehicles, the defense establishment is adapting commercial systems to military requirements, significantly reducing development timelines and taxpayer risk.
Photo Credit: Air Force Research Laboratory
Defense & Military
Do228 NXT Gains ARGOS-15 EO/IR Gimbal in GA-ATS Partnership
GA-ATS and HENSOLDT South Africa integrate the AI-enabled ARGOS-15 gimbal onto the Do228 NXT for ISR missions.
General Atomics AeroTec Systems (GA-ATS) and HENSOLDT South Africa have partnered to integrate the ARGOS-15 electro-optical/infrared (EO/IR) gimbal onto the Do228 NXT, expanding the aircraft’s intelligence, surveillance, and reconnaissance (ISR) capabilities.
Announced in a press release on October 22, 2026, the collaboration pairs the short take-off and landing (STOL) performance of the modernized twin-turboprop with HENSOLDT’s artificial intelligence-powered, multi-spectral imaging system. The integration provides special mission operators with a new sensor configuration designed for maritime patrol, border surveillance, and search-and-rescue operations in austere environments.
Expanding special mission configurations
Mounted in front of the retractable main landing gear, the 15-inch ARGOS-15 gimbal provides the Do228 NXT with a 360-degree unobstructed view. The system features a single Line Replaceable Unit (LRU) design and incorporates multi-spectral sensors, including thermal, daylight, and short-wave infrared (SWIR) cameras.
HENSOLDT officially launched the ARGOS-15 at the Africa Aerospace and Defence Expo on September 19, 2024. The system utilizes artificial intelligence for object detection, classification, and tracking. It succeeds the ARGOS-II, which has been integrated onto 34 different platforms worldwide. HENSOLDT South Africa, which employs approximately 800 people across four sites and serves as the group’s largest industrial site outside of Germany, specializes in electronic warfare, optronics, radar, and spectrum management. The subsidiary developed the ARGOS-15 to support complex targeting and surveillance requirements.
The addition of the ARGOS-15 aligns with a broader strategy by GA-ATS to offer multiple pre-integrated sensor options for the Do228 NXT. In August 2026, the manufacturer announced a similar partnership with TRAKKA Systems to offer the TrakkaCam TC-375 as an integrated equipment option, allowing operators to select the sensor package that best fits their specific mission profiles.
Modernizing a proven STOL platform
The Do228 NXT is the next-generation iteration of the Dornier 228, a utility aircraft originally manufactured between 1981 and 1998. GA-ATS, a German subsidiary of United States-based General Atomics, acquired the rights to the aircraft in 2020. The company, based in Oberpfaffenhofen, Germany, holds the type certificate for the Do228 and provides maintenance, repair, and overhaul (MRO) services for the aircraft and NH90 Helicopters.
The updated NXT program features a glass cockpit equipped with Universal Avionics displays, a digital autopilot, and Honeywell TPE331-10 engines. The aircraft is designed to operate from unpaved or short runways, maintaining a minimum patrol speed of 78 knots and a maximum speed of 260 knots for short ferry times. The platform can sustain a maximum patrol time of eight hours, making it suitable for extended surveillance missions.
GA-ATS officially rolled out the first Do228 NXT demonstrator aircraft on June 8, 2026, in Oberpfaffenhofen. The aircraft subsequently made its international debut at the Farnborough International Air shows in July 2026. The first production Do228 NXT is scheduled for delivery to an undisclosed humanitarian group launch customer in early 2027.
AirPro News analysis
The integration of advanced, AI-enabled sensors like the ARGOS-15 onto legacy-derived STOL airframes highlights a distinct trend in the special missions market. Operators are increasingly seeking cost-effective alternatives to larger, jet-powered maritime patrol aircraft. By offering multiple pre-integrated gimbal options from suppliers like HENSOLDT and TRAKKA Systems, we see GA-ATS positioning the Do228 NXT as a highly customizable, turnkey ISR platform. This modular approach lowers integration risks for operators and allows the aircraft to compete aggressively for border security and humanitarian contracts where infrastructure is limited but sensor requirements are stringent.
Photo Credit: General Atomics AeroTec Systems
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