Defense & Military
Northrop Grumman Beacon Testbed Advances Autonomous Defense Systems
Open-access ecosystem accelerates mission autonomy development with flight-proven hardware and collaborative software testing, aligned with DoD standards.
As the aerospace and defense sectors continue to evolve, the demand for autonomous systems capable of executing complex missions with minimal human intervention has surged. In response to this growing need, Northrop Grumman has introduced Beacon™, a next-generation autonomous testbed ecosystem. Announced on June 18, 2025, at the Paris Air Show, Beacon is designed to accelerate the development and deployment of mission autonomy software in an integrated and operationally relevant environment.
Beacon represents a significant step forward in the digital transformation of defense technologies. By combining proven flight hardware and software with open-access collaboration, Northrop Grumman aims to reduce the time and cost of delivering autonomous mission capabilities. This initiative not only reflects the company’s commitment to innovation but also aligns with broader industry trends emphasizing modular architectures, rapid prototyping, and cross-sector collaboration.
Beacon is built to serve as a flexible, scalable, and open-access testbed ecosystem that integrates Northrop Grumman’s flight-proven hardware and autonomous software with third-party mission software. This design allows partners to test and refine their autonomous solutions in a realistic, mission-relevant setting. The system is aligned with government reference architectures, ensuring compatibility with evolving defense requirements.
One of the core components of Beacon is the use of the Scaled Composites-built Model 437 Vanguard aircraft. This platform has been modified for optionally autonomous flight, enabling real-world validation of autonomy software. Its flexibility makes it ideal for testing a wide range of mission profiles, from surveillance to electronic warfare and logistics support.
Beacon’s digital ecosystem is equally advanced. It allows for rapid integration and deployment of software, significantly reducing development cycles. By leveraging Northrop Grumman’s integration expertise, partners can achieve faster readiness and lower risk in deploying new technologies.
“Beacon is sixth-generation autonomous software development. It’s backed by our decades of leadership in designing and building operational autonomous aircraft.”, Tom Jones, Corporate VP and President, Aeronautics Systems, Northrop Grumman Northrop Grumman’s approach with Beacon is notably collaborative. The ecosystem is designed to bring together new entrants in the AI and autonomy space with established industry players. This model fosters innovation by combining fresh ideas with the production and operational experience necessary for scalable deployment.
Multiple third-party partners have already committed to the Beacon ecosystem, with a series of flight demonstrations scheduled throughout 2025. These partnerships are essential to ensuring that Beacon remains a dynamic and evolving platform capable of adapting to new mission requirements and technological advances.
This collaborative model also supports government initiatives aimed at fostering public-private partnerships in defense technology. By creating a shared testbed aligned with Department of Defense (DoD) modular standards, Beacon promotes interoperability and agility in defense system development. Beacon was developed using internal R&D funding, part of Northrop Grumman’s $13.5 billion investment in research and infrastructure over the past five years. This level of investment underscores the company’s long-term commitment to autonomy and digital transformation in aerospace and defense.
The strategic use of internal funding also gives Northrop Grumman greater control over the pace and direction of development. It allows the company to innovate more freely and respond more rapidly to emerging needs without waiting for external funding cycles.
From a broader perspective, Beacon is a key component of Northrop Grumman’s strategy to maintain leadership in autonomous systems. It positions the company to meet the growing demand for AI-enabled mission capabilities while supporting the U.S. government’s emphasis on next-generation defense technologies.
One of the primary goals of Beacon is to improve the operational readiness of autonomous systems. By providing a testbed that closely mirrors real-world mission conditions, the ecosystem allows developers to identify and address performance issues early in the development cycle.
This approach significantly reduces the risk associated with deploying autonomous systems in the field. It also shortens the time required to transition from prototype to operational capability, which is critical in fast-evolving threat environments.
Furthermore, Beacon supports iterative development and continuous improvement. As new technologies and mission requirements emerge, the ecosystem can be updated and reconfigured to support ongoing innovation.
Beacon’s open-access architecture and alignment with government reference models make it a valuable asset for defense planners. It supports the DoD’s emphasis on modular, interoperable systems that can be rapidly adapted to changing needs.
The platform also aligns with broader government strategies focused on integrating AI and autonomy into national defense. These strategies prioritize speed, scalability, and resilience, qualities that Beacon is specifically designed to deliver. As governments around the world look to maintain technological superiority, platforms like Beacon will play a crucial role in ensuring that autonomous systems are not only innovative but also reliable and mission-ready.
The unveiling of Beacon reflects a larger trend in the aerospace and defense sectors toward open innovation and ecosystem-based development. Companies are increasingly recognizing that collaboration is essential to keeping pace with technological change.
By creating a shared space for testing and development, Beacon lowers the barriers to entry for smaller firms and startups, encouraging a more diverse and dynamic innovation landscape. This has the potential to accelerate the adoption of breakthrough technologies and reduce reliance on traditional, slower procurement cycles.
Looking ahead, Beacon may serve as a model for other sectors seeking to integrate autonomous systems. Its emphasis on interoperability, rapid deployment, and collaborative development positions it as a forward-looking solution in a rapidly evolving field.
Northrop Grumman’s Beacon™ Autonomous Testbed Ecosystem represents a strategic leap forward in the development of mission-ready autonomous capabilities. By combining proven flight systems with an open, digital testbed, the company has created a platform that accelerates innovation while reducing risk and development time.
As the defense and aerospace sectors continue to prioritize autonomy and AI integration, platforms like Beacon will become increasingly vital. They not only enable faster technology maturation but also foster the kind of cross-industry collaboration that is essential for meeting the complex challenges of modern defense operations.
What is Northrop Grumman’s Beacon™? What aircraft is used in the Beacon ecosystem? Who can participate in the Beacon ecosystem? How does Beacon support government defense initiatives?
Northrop Grumman’s Beacon™: A New Era in Autonomous Mission Capability Testing
Beacon™ Autonomous Testbed: Purpose and Architecture
Design and Capabilities
Collaboration and Industry Integration
Investment and Strategic Significance
Implications for the Future of Autonomous Systems
Operational Readiness and Risk Reduction
Alignment with Government and Defense Priorities
Broader Industry Trends and Opportunities
Conclusion
FAQ
Beacon is an autonomous testbed ecosystem designed to accelerate the development and deployment of mission autonomy software in an integrated and operationally relevant environment.
The system utilizes the Scaled Composites-built Model 437 Vanguard aircraft, modified for optionally autonomous flight, as its primary test platform.
Beacon is open-access and designed to include third-party partners, including new entrants and established industry leaders in the autonomy and AI space.
Beacon aligns with U.S. Department of Defense modular standards, supporting rapid innovation and operational readiness in line with government priorities.
Sources
Photo Credit: Northrop Grumman
Defense & Military
Embraer and Saab Unveil First Gripen E Fighter Produced in Brazil
Embraer and Saab unveiled the first Gripen E fighter jet assembled in Brazil, enhancing local defense manufacturing and fulfilling a 2014 contract.
This article is based on an official press release from Embraer.
On March 25, 2026, Embraer, Saab, and the Brazilian Air Force (FAB) marked a historic milestone in Latin American aerospace by unveiling the first Gripen E fighter jet manufactured on Brazilian soil. The rollout ceremony took place at Embraer’s industrial complex in Gavião Peixoto, São Paulo State, officially introducing the first supersonic fighter aircraft ever produced in the country.
According to the official press release, the event drew high-profile attendees, including Brazilian President Luiz Inácio Lula da Silva, Swedish Ambassador Karin Wallensteen, and top executives from both Embraer and Saab. The presentation of the aircraft highlights a successful technology transfer program and elevates Brazil into a select group of nations capable of manufacturing advanced combat aircraft.
The newly unveiled Gripen E is the result of a deeply integrated Brazilian and international supply chain. Embraer’s Gavião Peixoto facility handles the final assembly, utilizing aerostructures manufactured at Saab’s plant in São Bernardo do Campo. According to Embraer, 14 additional aircraft will be built using this exact production model under the current FAB contract.
Before being handed over to the customer, the newly assembled fighter will undergo rigorous functional and production flight testing. Once cleared, it will join the First Defense Group (1st GDA) stationed at the Anápolis Air Force Base.
Company leadership emphasized the broader implications of the rollout. In the press release, Bosco da Costa Junior, President and CEO of Embraer Defense & Security, highlighted the collaborative effort:
“…it symbolizes the strength of a partnership built on trust, long‑term vision, and true cooperation.”
The foundation for this manufacturing achievement was laid in 2014 when the Brazilian government signed a comprehensive contract with Saab. The agreement covers the development and production of 36 Gripen fighters, specifically 28 single-seat Gripen E models and eight two-seat Gripen F variants.
Deliveries from Sweden began in 2020, and the press release notes that at least 10 aircraft have already been handed over to the Brazilian Air Force. The Gripen fleet is already active; since February, the fighters have been executing Quick Reaction Alert (QRA) missions from the Anápolis Air Force Base to safeguard the airspace over Brazil’s federal district. Micael Johansson, President and CEO of Saab, noted the strategic importance of the local production capability, stating in the release:
“…developing, within Brazil, the capability to produce a high-tech supersonic fighter aircraft – fully capable of executing air superiority missions…”
We view the successful rollout of a domestically assembled Gripen E as a transformative moment for Embraer and the Brazilian defense sector. By proving it can assemble and integrate a sophisticated, network-centric supersonic fighter, Embraer significantly enhances its high-end military manufacturing portfolio. This capability not only fulfills Brazil’s immediate national security and airspace defense needs but also positions the Gavião Peixoto facility as a potential regional export and maintenance hub for South America. As neighboring countries evaluate their aging fighter fleets, we believe Brazil’s proven production line could offer Saab a strategic foothold for future Latin American sales.
Where was the first Brazilian-made Gripen E produced? How many Gripen fighters did Brazil order? How many more Gripens will be built in Brazil?
Production and Strategic Partnership
Details of the Gavião Peixoto Facility
Contract History and Operational Status
The 2014 Agreement
AirPro News analysis
Frequently Asked Questions
The aircraft was assembled at Embraer’s industrial complex in Gavião Peixoto, São Paulo State, using components including aerostructures from Saab’s facility in São Bernardo do Campo.
Under a 2014 contract, the Brazilian government ordered 36 Gripen fighters, comprising 28 single-seat Gripen E jets and 8 two-seat Gripen F jets.
According to the Embraer press release, 14 additional aircraft will be produced at the Gavião Peixoto facility under the current contract.
Sources
Photo Credit: Embraer
Defense & Military
Japan Expands F-35B Fleet with Delivery to Nyutabaru Air Base
Japan received three F-35B fighters at Nyutabaru Air Base, advancing its goal to deploy eight F-35Bs by fiscal year 2025 end.
In late March 2026, the Japan Air Self-Defense Force (JASDF) received three additional F-35B Lightning II stealth fighters at Nyutabaru Air Base in Miyazaki Prefecture. According to social media account @thef35 on X, the delivery highlights that procurement
“momentum continues” for the Japanese defense forces.
This latest arrival is a critical milestone. Based on defense research data, the delivery keeps Japan’s Ministry of Defense on track to meet its goal of deploying an initial batch of eight F-35Bs by the end of fiscal year 2025, which concludes on March 31, 2026. Japan received its first three F-35Bs on August 7, 2025, ferried by U.S. pilots, and officially activated the fleet for frontline service during a ceremony on February 7, 2026.
The integration of the Short Take-Off and Vertical Landing (STOVL) aircraft represents a historic shift in Japan’s defense posture. Defense reports indicate Japan plans to acquire 147 F-35s in total, 105 conventional F-35As and 42 F-35Bs, making it the largest operator of the fifth-generation fighter outside the United States.
While the F-35Bs are operated by the JASDF, defense analysts note their primary strategic value lies in their integration with the Japan Maritime Self-Defense Force (JMSDF).
To accommodate the STOVL aircraft, Japan has been modifying its two largest warships, the Izumo-class helicopter destroyers JS Izumo and JS Kaga. According to defense research, these modifications include reshaping the bows into a rectangular configuration and applying heat-resistant deck coatings capable of withstanding the F-35B’s powerful lift fan.
These upgrades were put to the test recently. In October 2024, a U.S. Navy and Marine Corps F-35B successfully conducted the first landing and takeoff trials on the modified JS Kaga off the coast of San Diego, California. This milestone effectively proved the vessel’s capability to operate as a light aircraft carrier, returning fixed-wing carrier aviation to the Japanese fleet for the first time since World War II.
Japan’s acquisition of the F-35B is widely viewed by defense researchers as a direct response to a tightening regional security environment, particularly the rapid military modernization and maritime maneuvers of China in the East and South China Seas. Nyutabaru Air Base is strategically located on Kyushu, Japan’s southernmost main island. Defense reports highlight that this positions the F-35B fleet in close proximity to the Nansei Islands chain, which stretches toward Taiwan and includes the Japanese-administered Senkaku Islands. The STOVL capability allows Japan to project air power from the sea and operate from shorter, austere runways on remote islands.
Under its post-WWII pacifist constitution, Japan has historically maintained a strictly defensive military posture. The deployment of carrier-capable stealth fighters represents a shift toward what defense analysts term “active deterrence.” To navigate political sensitivities regarding offensive capabilities, the Japanese government officially classifies the Izumo and Kaga as “multi-functional destroyers” rather than aircraft carriers.
Despite the strategic momentum, the domestic rollout of the F-35B fleet has faced logistical and political hurdles.
According to defense research data, Japan is constructing a dedicated runway and training facility on the uninhabited island of Mageshima, located roughly 160 kilometers south of Nyutabaru. This facility is intended for F-35B Field Carrier Landing Practice (FCLP) and vertical landing drills.
However, the Mageshima project has been delayed until approximately 2029 or 2030. Consequently, routine vertical landing training must be conducted at Nyutabaru Airports in the interim. This temporary arrangement has triggered protests and concerns from local residents in Miyazaki Prefecture regarding severe aircraft noise pollution.
We view the successful delivery of these F-35Bs as more than just a national defense upgrade for Japan; it is a foundational step for allied interoperability in the Indo-Pacific. By operating the F-35B from modified destroyers, Japan ensures seamless integration with U.S. Navy and Marine Corps forces, as well as other allied operators like the United Kingdom and Italy. This opens the door for future cross-decking operations, where allied jets can land on Japanese ships and vice versa, creating a highly flexible, distributed maritime strike capability that complicates adversary planning in the region.
According to defense procurement data, Japan plans to acquire a total of 147 F-35 military-aircraft, consisting of 105 F-35A conventional takeoff variants and 42 F-35B STOVL variants.
The F-35B features Short Take-Off and Vertical Landing (STOVL) capabilities, allowing it to operate from amphibious assault ships, light aircraft carriers, and short or austere runways. To align with its post-WWII pacifist constitution, which limits offensive military capabilities, Japan officially classifies the modified Izumo-class vessels as “multi-functional destroyers” rather than aircraft carriers.
Sources: @thef35, Defense Research Report
Japan Expands F-35B Fleet with Latest Delivery to Nyutabaru Air Base
Strategic Shift: The “Lightning Carriers”
Vessel Modifications and Sea Trials
Geopolitical Drivers and Regional Defense
Defending the Nansei Islands
Domestic Challenges and Infrastructure
Local Impact at Nyutabaru
AirPro News analysis
Frequently Asked Questions (FAQ)
How many F-35s is Japan buying?
What makes the F-35B different?
Why are Japan’s carrier-capable ships called destroyers?
Photo Credit: Lockheed Martin
Defense & Military
GKN Aerospace Delivers First Upgraded RM12 Engine to Swedish Armed Forces
GKN Aerospace delivers the first upgraded RM12 engine under a £32 million programme enhancing Sweden’s Gripen C/D fighter fleet performance and endurance.
This article is based on an official press release from GKN Aerospace.
GKN Aerospace has officially delivered the first upgraded RM12 engine to the Swedish Armed Forces, marking a critical milestone in the RM12 Enhanced Performance (RM12EP) programme. The delivery is part of a broader initiative to modernize the propulsion systems of Sweden’s JAS 39 Gripen C/D fighter fleet.
According to a company press release, the RM12EP programme is valued at approximately £32 million (SEK 400 million). The initiative focuses on increasing engine thrust, extending operational endurance, and improving overall efficiency to ensure the legacy fighter aircraft remain highly capable in modern operational environments.
The successful handover of the first enhanced engine underscores GKN Aerospace’s nearly century-long partnership with the Swedish Air Force. As the type certificate holder for the RM12 engine, the company continues to play a central role in maintaining Sweden’s aerial defense readiness.
The RM12EP upgrade introduces significant technical improvements to the existing powerplants. In its official statement, GKN Aerospace noted that the enhancements include the installation of improved turbine hardware alongside updated engine control software. These modifications are specifically designed to boost engine thrust and extend the operating time of the engines, while simultaneously reducing life cycle costs for the Swedish Armed Forces.
The RM12EP programme was originally launched in 2019. It represents a long-term strategic effort led by GKN Aerospace to ensure that the Gripen C/D remains a cost-efficient and highly capable platform, even as newer generations of fighter aircraft enter service.
All upgrade work for the RM12 engines is being conducted at GKN Aerospace’s specialized facility in Trollhättan, Sweden. The company maintains comprehensive responsibility for the development, manufacturing, system support, and maintenance of both the RM12 engine, which powers the Gripen C/D, and the newer RM16 engine, which is utilized in the advanced Gripen E/F models.
The delivery of the first upgraded unit was achieved through extensive cross-functional collaboration. GKN Aerospace highlighted that the milestone involved coordination across engineering, production, quality assurance, procurement, and logistics departments. Furthermore, the project relies on key partnerships with industry leaders GE and Saab. Additional upgraded engines are scheduled to be delivered continuously to the Swedish Armed Forces in accordance with the programme’s planned timeline. “This first upgraded engine delivery represents an important step forward in enhancing the performance and endurance of the Gripen system. As type certificate holder for the Gripen C/D engine and with a partnership with the Swedish Air Force that spans nearly a century, we are proud to continue supporting Sweden’s operational capability and future readiness.”
We note that the delivery of the first upgraded RM12 engine highlights a broader trend in global defense procurement: the necessity of extending the operational lifespan of proven legacy platforms. While the Swedish Air Force is actively transitioning to the next-generation Gripen E/F, maintaining a robust and capable fleet of Gripen C/D aircraft remains essential for national security and regional stability.
By investing £32 million into the RM12EP programme, Sweden is ensuring a cost-effective bridge between aircraft generations. The enhancements to thrust and endurance not only improve the tactical capabilities of the Gripen C/D but also optimize maintenance schedules and reduce long-term operational costs. This dual-track approach, upgrading existing assets while procuring new ones, allows the Swedish Armed Forces to maintain a high state of readiness without compromising on technological advancement.
Furthermore, keeping the upgrade work localized at the Trollhättan facility secures domestic aerospace expertise and supply chain resilience. As geopolitical tensions in Europe remain a focal point for defense ministries, the ability to independently maintain and upgrade critical defense infrastructure is a significant strategic advantage for Sweden.
The RM12 Enhanced Performance (RM12EP) programme is an upgrade initiative led by GKN Aerospace for the Swedish Armed Forces. Launched in 2019, it aims to improve the thrust, endurance, and efficiency of the RM12 engines powering the JAS 39 Gripen C/D fighter aircraft.
According to GKN Aerospace, the programme is valued at approximately £32 million, which equates to SEK 400 million.
All development, manufacturing, and maintenance work for the RM12 engine upgrades is carried out at GKN Aerospace’s facility in Trollhättan, Sweden.
The RM12EP programme involves strong collaboration between GKN Aerospace and key industry partners, including GE and Saab.
The RM12EP Upgrade Programme
Technical Enhancements
Production and Partnerships
Strategic Implications for the Swedish Air Force
AirPro News analysis
Frequently Asked Questions
What is the RM12EP programme?
How much is the RM12EP programme worth?
Where is the upgrade work being performed?
Who are the key partners in this programme?
Sources
Photo Credit: GKN Aerospace
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