Defense & Military
Netherlands Joins US Collaborative Combat Aircraft Program as First European Partner
The Netherlands becomes the first European nation to join the USAF’s Collaborative Combat Aircraft program, enhancing unmanned air systems and defense cooperation.

Netherlands Joins US Initiative on Unmanned Air Systems, Becoming First European Partner
In a significant move for transatlantic defense cooperation, the Netherlands has officially become the first European nation to join the United States Air Force’s (USAF) Collaborative Combat Aircraft (CCA) program. This strategic partnership, formalized on October 16, 2025, signals a major step forward in the evolution of air power, focusing on the integration of unmanned autonomous aircraft with manned fighter jets. The decision places the Netherlands at the forefront of developing next-generation aerial warfare capabilities, aiming to create a more potent and resilient air force for future challenges.
The agreement was solidified when Dutch State Secretary for Defence, Gijs Tuinman, signed a letter of intent at the Netherlands embassy in Washington D.C. This wasn’t merely a procurement deal; it represents a deep-seated commitment to long-term industrial and technological cooperation. The CCA initiative is designed to develop “loyal wingmen”, advanced UAV, that will fly alongside fighters like the F-35, acting as force multipliers. These autonomous platforms are intended to expand sensor range, carry additional munitions, and undertake high-risk missions, thereby enhancing the effectiveness and survivability of human pilots.
This collaboration aligns directly with the Netherlands’ Defence Strategy for Industry and Innovation, which was launched in April 2025. By embedding Dutch knowledge institutes and companies within the American research and development framework, the partnership aims to bolster the nation’s defense industrial base. It reflects a broader shift in military doctrine, where the future of air dominance is seen not just in the quality of individual aircraft, but in a networked “system-of-systems” that leverages the power of human-machine teaming.
The New Frontier: Deconstructing the CCA Initiative
The Collaborative Combat Aircraft program is a cornerstone of the USAF’s Next Generation Air Dominance (NGAD) strategy. It moves beyond traditional drone operations to envision a future where autonomous platforms are integral members of a combat team. These aren’t remotely piloted aircraft in the conventional sense; they are designed with a high degree of autonomy, enabled by AI and machine learning, to operate in complex and contested environments with minimal input from a human pilot.
What are Collaborative Combat Aircraft?
At its core, the CCA concept is about augmenting the capabilities of manned fighter aircraft. We can think of them as loyal wingmen that extend the pilot’s reach and tactical options. Their primary functions are to increase the combat mass of an air fleet, provide supplementary sensor data from different vantage points, and engage targets or perform electronic warfare tasks. This allows the manned fighter, such as the F-35, to maintain a more strategic, command-and-control role while the CCAs press into more dangerous areas.
This approach offers several distinct advantages. By offloading high-risk tasks to unmanned platforms, the program aims to significantly improve pilot survivability. Furthermore, CCAs are designed to be produced faster and at a lower cost than their manned counterparts. This “affordable mass” is critical in potential conflicts where the sheer number of assets can be as important as their individual sophistication. The USAF has stated a goal of fielding at least 1,000 of these unmanned aircraft to work in concert with its advanced fighter fleet.
The technological leap lies in the human-machine teaming aspect. Pilots will not be “flying” the CCAs with a joystick and screen; instead, they will be directing them through high-level commands, tasking them to perform specific missions like surveillance, escort, or attack. This requires a robust and secure data link, as well as advanced AI that can interpret commands and execute complex behaviors in a dynamic battlespace, all while collaborating with other manned and unmanned systems.
The U.S. Air Force is leaning into a new chapter of aerial warfare. It means collaborative combat aircraft, it means human-machine teaming.
The Key Players and Progress
The CCA program has moved from concept to reality with remarkable speed. In April 2024, the USAF selected two industry leaders, Anduril and General Atomics Aeronautical Systems (GA-ASI), to design, build, and test production-representative prototypes. These aircraft have received official designations, highlighting their formal integration into the Air Force’s development pipeline: the YFQ-42A from General Atomics and the YFQ-44A from Anduril.
The rapid progress was underscored by U.S. Air Force Chief of Staff Gen. David W. Allvin, who noted that prototypes that were “only on paper less than a couple of years ago” would be ready to fly. This accelerated timeline demonstrates a clear sense of urgency and a commitment to fielding this transformative capability quickly. The designation of these prototypes with the “YFQ” prefix is historically significant, as it marks the first time an unmanned collaborative aircraft has been given a fighter-series classification.
The current development phase represents “Increment 1” of the CCA program, with a final production decision expected in fiscal year 2026. However, the USAF is already planning for future increments. This iterative approach will allow for the integration of new technologies and capabilities over time. By joining the program at this relatively early stage, the Netherlands is positioned not only to acquire the technology but also to help shape its future development and ensure its interoperability with NATO systems.
More Than Just Drones: A Strategic Dutch Investment
The Netherlands’ decision to join the CCA program is a multi-faceted strategic investment that extends far beyond the acquisition of new military hardware. It is a calculated move to enhance national security, stimulate economic and technological growth, and solidify its role as a key innovator within the transatlantic alliance. This partnership is about co-development and future-proofing the nation’s defense capabilities in an era of rapid technological change.
Strengthening the Royal Netherlands Air Force
For the Royal Netherlands Air Force, the integration of CCAs with its F-35 fleet promises a substantial leap in combat effectiveness. The F-35 is already a powerful sensor and data-fusion platform, but pairing it with autonomous wingmen will amplify its strengths exponentially. CCAs can fly ahead to scout, use their own sensors to build a more comprehensive picture of the battlespace, and carry a wider variety of weapons, freeing the F-35 to orchestrate the engagement from a safer distance.
This new operational paradigm directly addresses the challenges of modern anti-access/area denial (A2/AD) environments, where penetrating enemy airspace is increasingly perilous. By sending unmanned systems into the most heavily defended zones, the air force can achieve its objectives while minimizing risk to its most valuable asset: its pilots. The cost-benefit analysis is also compelling; the ability to generate a larger, more distributed, and more expendable force provides tactical flexibility that would be prohibitively expensive to achieve with manned aircraft alone.
Beyond direct combat roles, this partnership ensures that the Netherlands remains at the cutting edge of air power doctrine. As human-machine teaming becomes the new standard, early adoption and integration provide invaluable experience for pilots, tacticians, and support personnel. It allows the air force to develop the tactics, techniques, and procedures necessary to maximize the potential of this new “system-of-systems” approach to warfare.
Fostering Industrial and Technological Growth
A central pillar of this agreement is the long-term benefit to the Dutch defense and technology sectors. The letter of intent is the first step toward integrating Dutch companies and research institutions into the CCA’s vast R&D ecosystem. This collaboration is a key objective of the Netherlands’ Defence Strategy for Industry and Innovation, aiming to create a self-sustaining cycle of innovation, production, and expertise within the country.
The Partnerships is not limited to the high-end CCA program. In a parallel initiative, the Netherlands Defence organization is working with General Atomics to co-develop smaller unmanned systems for Intelligence, Surveillance, and Reconnaissance (ISR) missions. Critically, this agreement includes provisions for production by a Dutch company, VDL, with the first systems expected to be in service by the following year. This provides a tangible, near-term example of the industrial benefits the government aims to secure.
By participating in the development of these advanced systems, the Dutch industrial base gains access to cutting-edge technologies in areas like artificial intelligence, autonomous systems, advanced manufacturing, and secure communications. This knowledge transfer can spur innovation across multiple sectors, enhancing the Netherlands’ competitiveness on the global stage and ensuring a greater degree of technological sovereignty in critical defense areas.
Conclusion: Charting a New Course in Air Power
The Netherlands’ entry into the U.S. Collaborative Combat Aircraft program is a landmark event. It marks a decisive step into the future of aerial warfare, one defined by the seamless integration of human and machine capabilities. As the first European partner, the Netherlands has secured a unique position to influence and benefit from one of the most ambitious military technology programs of our time. This is more than an alliance; it is a forward-looking Investments in national security, industrial strength, and technological leadership.
Looking ahead, this partnership will likely serve as a model for future transatlantic defense cooperation. As autonomous systems become more prevalent, interoperability and shared development will be crucial for maintaining a cohesive and effective NATO force. The lessons learned from integrating Dutch industry and military doctrine into the CCA program will inform how other allies approach the coming revolution in air power, ensuring that the alliance as a whole is prepared for the complex security challenges of tomorrow.
FAQ
Question: What is the Collaborative Combat Aircraft (CCA) program?
Answer: The CCA program is a U.S. Air Force initiative to develop autonomous, unmanned aircraft designed to fly alongside manned fighter jets like the F-35. These “loyal wingmen” act as force multipliers by carrying extra sensors and weapons and performing high-risk missions.
Question: Why did the Netherlands join the CCA program?
Answer: The Netherlands joined to enhance the capabilities of its F-35 fleet, strengthen its domestic defense industry through technological cooperation, and take a leading role in the future of unmanned aerial systems and human-machine teaming in air combat.
Question: Who are the main companies developing the CCAs for the U.S. Air Force?
Answer: For the first phase of the program, the U.S. Air Force selected Anduril and General Atomics Aeronautical Systems (GA-ASI) to design, manufacture, and test production-representative aircraft.
Sources
Photo Credit: Netherlands Ministry of Defence
Defense & Military
NH90 Software Release 3 Completes Maiden Flight in Italy
NHIndustries flew the NH90 Block 1 configuration on July 21, 2026, introducing the first airborne Link 22 data link on a helicopter.

NHIndustries has commenced the flight test and qualification campaign for the NH90 Software Release 3 configuration following the upgraded helicopters maiden flight in Italy on July 21, 2026. In a press release issued on August 3, 2026, the manufacturer confirmed the successful flight of the standard, also known as Block 1, which introduces the world’s first airborne Link 22 tactical data link integrated onto a helicopter.
Technical enhancements in the Block 1 configuration
The Software Release 3 (SWR3) upgrade represents a substantial capability enhancement for the NH90 program. The integration of the Link 22 tactical data link allows for secure, beyond-line-of-sight communications without relying on satellite infrastructure. This capability is designed to improve interoperability among allied military forces in contested electromagnetic environments.
Alongside the data link, the SWR3 configuration includes several sensor and system upgrades. The aircraft features the LEOSS-T Electro-Optical Observation System, as well as the OTS-90 Mark II and FLASH sonars for anti-submarine warfare applications.
The July 21 maiden flight was conducted using an SH90, the Italian Navy (Marina Militare) designation for the Nato Frigate Helicopter (NFH) variant. NHIndustries described the event as a major milestone in the evolution of the NH90 program.
“Software Release 3 represents one of the most significant capability upgrades introduced to the NH90 in recent years,” the company stated.
Development timeline and fleet integration
The first flight occurred just over two years after the initial development agreement was finalized. On June 13, 2024, NHIndustries and the NATO Helicopter Management Agency (NAHEMA) signed a contract valued at more than €600 million to develop and deliver the SWR3 standard.
New production aircraft are already slated to receive the Block 1 upgrades directly from the assembly line. On December 9, 2025, the Royal Netherlands Air and Space Force signed a contract for three additional NH90 NFH helicopters. Leonardo will assemble these airframes in Italy, and they will be delivered with the SWR3 features embedded.
Preparing for next-generation requirements
While the Block 1 flight test campaign is just beginning, NHIndustries and NAHEMA are concurrently planning the platform’s long-term evolution. On April 20, 2026, the parties signed a €15 million contract for an NH90 Block 2 architecture study. This study is intended to define the technical foundations required to keep the helicopter effective on the battlefield into the 2040s.
AirPro News analysis
We view the successful first flight of the SWR3 configuration as a demonstration of steady execution for the NH90 modernization roadmap. By fielding the Link 22 system on a rotorcraft, NHIndustries is addressing a critical NATO requirement for resilient data sharing in environments where satellite communications may be degraded or denied. The concurrent work on the Block 2 architecture study also indicates to us that NAHEMA and the partner nations are actively investing in the platform’s long-term viability, ensuring the NH90 remains a core component of European anti-submarine and tactical transport operations for the next two decades.
Photo Credit: NHIndustries
Defense & Military
Lockheed Martin AI Flies 27 Live Intercepts on X-62 VISTA
Skunk Works AI executed 27 autonomous intercepts using live infrared sensor feeds on the X-62 VISTA at Edwards AFB.

On August 4, 2026, Lockheed Martin Skunk Works and the U.S. Air Force Test Pilot School announced the successful demonstration of sensor-driven AI autonomy on a fighter aircraft at Edwards Air Force Base in California. The test series transitioned airborne AI from simulated environments to real-time, on-board sensor streams, validating the technology’s ability to execute combat-critical maneuvers against a live target.
In a press release issued by Lockheed Martin Corporation, the company detailed how its AI agents utilized live targeting data from an operational sensor to autonomously pilot the X-62 Variable In-flight Simulation Test Aircraft (VISTA). The AI successfully maneuvered the aircraft into tactical intercept positions against a live T-38 target aircraft, marking a critical step toward the U.S. military’s objective of AI-augmented air dominance.
Live sensor integration and flight testing
The Test-Flights campaign consisted of eight flights, during which the AI system executed 27 autonomous air intercepts against the T-38. The integration of the AI agents with the X-62 VISTA, including comprehensive ground testing, was completed in a three-month timeframe.
The system relied on the Lockheed Martin Legion Pod, which provided classified infrared search and track feeds directly to the autonomous agents. This allowed the AI, generated through Lockheed Martin’s “Supermassive” capability, to process real-world data and command the aircraft in real time without relying on pre-programmed simulation parameters.
“Our autonomous agents consumed classified infrared search and track feeds and executed combat-critical maneuvers in real time. This achievement marks a decisive advance toward delivering AI-augmented air dominance for the United States,” said Ron Fehlen, Vice President and General Manager of Lockheed Martin Skunk Works.
Closing the sensor-to-action loop
The collaboration between Skunk Works and the U.S. Air Force Test Pilot School (TPS) has utilized the X-62 VISTA as a foundational testbed for autonomy programs over the past three years. The recent tests demonstrate the ability of artificial intelligence to reliably close the sensor-to-action loop aboard an operational combat aircraft.
Stacy Kubicek, Vice President and General Manager of Lockheed Martin Sensors and Global Sustainment, emphasized the importance of seamless data integration between hardware sensors and software agents.
“Our ability to provide reliable sensor data is critical, but the real advantage comes when that data can connect seamlessly with AI to take action. This project demonstrates how sensing and autonomous AI can come together as a force multiplier to make faster, more informed action in complex environments,” Kubicek stated.
Future upgrades and network integration
Following the successful intercept demonstrations, Lockheed Martin outlined plans to implement a Mission Systems Upgrade for the X-62 VISTA. This planned enhancement is designed to enable broader integration of combat systems, sensors, and airborne AI agents within a next-generation mesh network.
AirPro News analysis
We view the transition from simulated data to live, classified infrared search and track feeds as a major threshold in military aviation autonomy. While previous X-62 VISTA flights proved that AI could safely fly a fighter aircraft using pre-programmed or simulated parameters, injecting live sensor data introduces the unpredictability of real-world combat environments. The rapid three-month integration timeline also suggests that the underlying software architecture is maturing to a point where new capabilities can be fielded at a pace closer to commercial software development than traditional aerospace procurement cycles. The upcoming Mission Systems Upgrade will likely serve as a critical proving ground for the collaborative combat aircraft (CCA) concepts currently under development by the U.S. Air Force.
Sources: Lockheed Martin / PR Newswire
Photo Credit: Lockheed Martin
Defense & Military
MQ-4C Triton and P-8A Poseidon AI Teaming Demonstrated
Northrop Grumman and Boeing demonstrated automated manned-unmanned teaming between the MQ-4C Triton and P-8A Poseidon.

Northrop Grumman Corporation and The Boeing Company successfully demonstrated automated manned-unmanned teaming between the MQ-4C Triton and the P-8A Poseidon in a laboratory setting in San Diego, California, on August 5, 2026. The jointly funded technology demonstration utilized artificial intelligence and open systems architecture to enable direct machine-to-machine intelligence sharing and mission planning between the two maritime patrol platforms.
In a press release issued by Northrop Grumman, the company detailed how the integration allows the uncrewed MQ-4C and the crewed P-8A to exchange data without requiring direct manual operator intervention. This capability is designed to reduce operator workload and accelerate decision-making for commanders overseeing maritime reconnaissance and anti-surface warfare operations.
Advancing crewed-uncrewed maritime operations
The MQ-4C Triton provides high-altitude, long-endurance maritime intelligence, surveillance, reconnaissance, and targeting. The P-8A Poseidon serves as the primary manned multi-mission maritime patrol aircraft for the United States Navy (USN). While the two platforms were originally designed to operate in concert, this demonstration establishes a framework for direct control and automated tasking of the Triton by P-8A crews.
Jane Bishop, Vice President and General Manager of the Global Surveillance Division at Northrop Grumman, stated that the two aircraft form the backbone of the maritime patrol and reconnaissance force for the USN. She noted that the platforms deliver complementary capabilities unmatched by other systems.
“This demonstration underscores the flexibility of our systems, our unwavering industry investment and the strength of our industry relationships. Our commitment to pushing the boundaries of advanced technology ensures that the U.S. and allied nations operators maintain an unparalleled edge against evolving maritime threats,” Bishop said.
Open architecture and artificial intelligence integration
The technological foundation of the August 5 demonstration relies on Open Mission Systems (OMS) and the Universal Command and Control Interface (UCI). These standardized frameworks allow the Department of Defense (DoD) to rapidly integrate artificial intelligence into existing fleets. By automating the data exchange between the platforms, the system reduces bandwidth demands and lowers latency during data transfer.
Lower latency and reduced bandwidth consumption are critical factors in contested maritime environments. The ability of a P-8A crew to seamlessly task an MQ-4C Triton via machine-to-machine interfaces expands tactical possibilities for allied forces. This aligns with broader Pentagon strategies emphasizing software-defined, interoperable capabilities across different military branches.
AirPro News analysis
We view this laboratory demonstration as a necessary stepping stone toward fully autonomous collaborative combat aircraft and sensor networks. The transition from conceptual manned-unmanned teaming to standardized machine-to-machine tasking addresses one of the primary bottlenecks in modern maritime patrol: data saturation. By shifting the burden of data routing and basic mission planning from human operators to artificial intelligence, the USN can maximize the endurance of the MQ-4C while leveraging the on-scene command capabilities of the P-8A. The next critical milestone will be transitioning this architecture from a laboratory environment in San Diego to live flight testing over open water.
Sources: Northrop Grumman
Photo Credit: Northrop Grumman
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