Defense & Military
Airbus Advances Helicopter Drone Teaming with HTeaming System
Airbus introduces HTeaming, a modular system enabling helicopters to control drones, enhancing mission safety and effectiveness.
A fundamental shift is occurring in the skies. The distinct roles of crewed helicopters and uncrewed aerial systems (UAS), or drones, are beginning to merge, creating a powerful new paradigm in aerial operations. This concept, known as Crewed-Uncrewed Teaming (CUC-T), is not merely about flying two different types of aircraft in the same airspace; it’s about creating a symbiotic relationship where the strengths of each platform are combined to achieve what neither could alone. For military, parapublic, and even civil missions, this collaboration is being hailed as a genuine “force multiplier,” poised to redefine mission effectiveness, safety, and situational awareness.
At its core, CUC-T leverages the sophisticated cognitive abilities and decision-making of human crews inside a helicopter with the persistence, expendability, and unique sensory capabilities of drones. This allows the helicopter to remain at a safe standoff distance while deploying a UAS into high-risk environments. These uncrewed partners can perform a range of critical tasks, from intelligence, surveillance, and reconnaissance (ISTAR) to search and rescue, disaster zone assessment, and even armed support. As this technology matures, we are witnessing a strategic evolution in how complex aerial missions are planned and executed, with major industry players like Airbus leading the charge.
Airbus is positioning itself at the forefront of this revolution with a clear, capability-driven strategy. The company’s approach is methodical and incremental, designed to build a robust foundation for the future of aerial collaboration. The initial goal is to perfect the teaming of a single helicopter with a single drone, ensuring seamless control and data exchange. From there, the vision expands rapidly, aiming for a future where multiple helicopters can manage and control several drones, including smaller, air-launched effects.
The strategy is not about adding a new product line but about fundamentally enhancing the capabilities of Airbus’ existing and future helicopter fleet. By integrating UAS control directly into the cockpit, the drone becomes a natural extension of the helicopter’s sensor suite and operational reach. This allows crews to see further, react faster, and operate more effectively without being placed directly in harm’s way. This synergy turns the helicopter-drone pair into a single, integrated weapons system, multiplying its effectiveness on the battlefield or in a crisis zone.
Early validation for this approach came from initiatives like the European MUSHER (Manned-Unmanned Teaming for Helicopter Emergency Reconnaissance) project. This project successfully demonstrated a high Level of Interoperability, where a drone could be controlled directly from a helicopter’s cockpit. A key finding was the ability to integrate systems from different manufacturers, highlighting the critical need for standardized communication protocols to ensure broad compatibility and flexibility in future operations.
“Crewed-uncrewed teaming is not just adding a new product line. It’s really to add a product which will enhance the rest of our products, multiplying their effectiveness.” – Victor Gerin-Roze, Head of UAS Business, Airbus Helicopters
Looking further ahead, Airbus envisions a future where direct, moment-to-moment control of each drone is no longer necessary. The ultimate goal is to enable autonomous mission tasking, where a helicopter crew can assign a high-level objective to a swarm of drones, and the drones themselves decide how to best achieve it. This involves real-time maneuvering and collaborative problem-solving by the uncrewed platforms, freeing the human crew to focus on broader strategic decisions and command functions.
Artificial Intelligence (AI) is the key enabler for this future. While AI is already being used in current systems, its role is set to expand dramatically. Future iterations will likely feature AI-driven collaborative decision-making, where the system can suggest optimal courses of action or manage the complexities of a drone swarm autonomously. This reduces the cognitive load on the crew, minimizes human error, and allows for faster, more effective responses in dynamic environments. The human remains the ultimate authority, but their role shifts from operator to mission commander.
To turn this strategic vision into a tangible product, Airbus unveiled its “HTeaming” solution in mid-2025. HTeaming is the brand name for the company’s modular, agnostic CUC-T system, designed to be the technological bridge between helicopter and drone. It is engineered to be flexible and user-centric, ensuring that this powerful new capability can be integrated smoothly into existing operational frameworks without overwhelming the crew. The HTeaming system is designed for adaptability. In its standalone version, it consists of a user-friendly tablet that serves as the human-machine interface, specialized UAS management software, a modem, and four antennas installed on the helicopter. This modular setup allows it to be deployed on a wide range of helicopters quickly. Alternatively, it can be fully integrated into a platform’s existing mission systems for a more seamless experience. A core principle of its design is minimizing crew workload. The interface is intuitive, ensuring that a standard helicopter crew can operate the system effectively without extensive specialized training.
This “agnostic” approach means HTeaming is not limited to controlling only Airbus-made drones. It is being developed to integrate with and control various types of UAS, giving operators the flexibility to choose the best uncrewed platform for a specific mission. This versatility has been proven in numerous flight tests involving helicopters like the H135, H145, and H130 with different drone models. Airbus expects the HTeaming solution to be available for helicopter operators starting in 2026.
Airbus is actively collaborating with international partners to test, refine, and demonstrate the real-world value of HTeaming. In June 2025, the company signed an agreement with Singapore’s Defence Science and Technology Agency (DSTA) to explore CUC-T capabilities using the Republic of Singapore Air Force’s H225M helicopters and the Airbus Flexrotor UAS. This project aims to integrate HTeaming onto the H225M to enhance situational awareness, a collaboration described by DSTA’s Chief Executive as a “true force multiplier.”
Similar successful trials have been conducted with military partners in Europe. In May 2025, a flight test involving a Spanish Navy H135 helicopter and a Flexrotor UAS proved the system’s viability in a maritime environment. Further building on this, Airbus Helicopters España has partnered with Alpha Unmanned Systems to develop joint operations between manned helicopters and Alpha’s A900 unmanned helicopter, building on successful military exercises where the A900 was managed from an H135 cockpit. These partnerships are crucial for validating the technology and ensuring it meets the diverse needs of global operators.
The development of Crewed-Uncrewed Teaming, spearheaded by solutions like Airbus’ HTeaming, marks the beginning of a new era in aviation. It represents a paradigm shift from viewing helicopters and drones as separate assets to understanding them as components of a single, integrated system. This synergy promises to deliver unprecedented levels of mission effectiveness and safety, allowing operators to extend their reach and capabilities in ways that were previously impossible.
As we look toward HTeaming’s commercial availability in 2026 and beyond, the trajectory is clear. The future of complex aerial missions, whether for defense, law enforcement, or disaster response, lies in this powerful collaboration. The long-term vision of AI-driven, autonomous drone swarms managed from a helicopter cockpit may sound like science fiction, but it is the logical and ambitious next step in a journey that is already well underway, fundamentally reshaping the future of the skies.
Question: What is Crewed-Uncrewed Teaming (CUC-T)? Question: What is Airbus’ HTeaming solution? Question: What are the main benefits of helicopter-drone collaboration?
The Dawn of a New Aerial Alliance: Helicopters and Drones Teaming Up
Airbus’ Strategic Vision: From Incremental Steps to Autonomous Swarms
A Phased Approach to a New Capability
The Long-Term Vision: AI and Autonomous Swarms
HTeaming: The Technology Making Collaboration a Reality
A Modular and User-Focused Design
Validation Through International Partnerships
The New Era of Aerial Operations
FAQ
Answer: Crewed-Uncrewed Teaming is an operational strategy where a crewed aircraft, like a helicopter, directly controls and collaborates with one or more uncrewed aerial systems (UAS), or drones. This synergy combines the decision-making of the human crew with the persistence and sensor capabilities of the drone, acting as a “force multiplier” to enhance mission safety and effectiveness.
Answer: HTeaming is Airbus’ brand name for its modular system that enables helicopter crews to control drones directly from the cockpit. Unveiled in 2025, it can be a standalone unit with a tablet interface or fully integrated into a helicopter’s mission system. It is designed to be “agnostic,” meaning it can control various types of UAS, and is expected to be available to operators starting in 2026.
Answer: The primary benefits include increased safety for the crew, who can remain at a safe distance while sending drones into high-risk areas; enhanced situational awareness from the drone’s sensors; and greater mission effectiveness by leveraging the unique capabilities of both platforms. It allows for expanded operational reach in tasks like surveillance, search and rescue, and reconnaissance.
Sources
Photo Credit: Airbus
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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