The F-22 Raptor Controls an Autonomous Wingman in Flight for the First Time

In early October 2026, a U.S. Air Force F-22A Raptor pilot took airborne tactical control of an autonomous YFQ-44A Fury Collaborative Combat Aircraft during a flight demonstration over the American Southwest. According to The Aviationist, citing official Air Force announcements, this marks the first time a crewed fighter has directed an unmanned wingman in real time from the air - not from the ground.

What Is the Collaborative Combat Aircraft Program?

The Collaborative Combat Aircraft (CCA) program is the Air Force’s effort to develop unmanned fighters capable of operating alongside crewed aircraft in contested airspace. The concept - sometimes called “loyal wingman” - has been in development for decades, but recent advances in onboard autonomy, data-link reliability, and affordable computing power moved it from concept to hardware.

The Air Force’s earlier Skyborg program built the foundational autonomy stack: the software architecture that allows an unmanned aircraft to fly, navigate, and respond to commands without constant human input. That work fed directly into the CCA program.

The CCA program selected two competing prototypes: the YFQ-44A Fury, built by Northrop Grumman, and the YFQ-42A, built by General Atomics. Both are jet-powered platforms sized as genuine combat aircraft - not small drones. Both carry the Q designation in Air Force naming conventions, classifying them as unmanned fighters. That word choice is deliberate. The Air Force named them fighters because that is the role they are designed to fill.

Why the Airborne Control Milestone Matters

Prior to the October 2026 test, all CCA demonstrations involved ground-based control elements - a crew on the ground communicating with the aircraft through a data link. That model has real tactical limitations: the data link spans long distances, introduces latency, and gives the ground crew a filtered picture of the airspace rather than the full situational awareness a pilot in the fight has.

Placing control in the hands of an airborne pilot changes the tactical equation fundamentally. The analogy is the E-3 AWACS or the E-2C Hawkeye - platforms built on the principle that airborne command-and-control, with better sensor geometry and communications, multiplies what a force can do.

When the Raptor pilot commanded the Fury in October, he was not operating a remote-controlled aircraft from a distance. He was directing a wingman - operating in the same airspace, subject to the same threat environment, responding to the same real-time tactical picture.

How the Raptor-as-Controller Architecture Works in Practice

Consider a typical intercept scenario: a threat aircraft is detected at long range. The Raptor pilot tasks the Fury to move ahead and gather sensor data on the contact. If the threat probes, the Fury collects intelligence while the Raptor holds back. If the threat engages, the Fury absorbs the first move - at the cost of an unmanned airframe rather than a human life.

This value proposition scales across mission types: strike support, electronic warfare, suppression of enemy air defenses. The CCA absorbs risk that historically required putting crewed pilots in harm’s way.

Why the F-22 Was Chosen for This Test

The F-22A Raptor has been in service since 2005. It is an extraordinarily capable air-superiority fighter, but it was designed before networked warfare was fully developed. Its proprietary Inter Flight Data Link (IFDL) communicates within a Raptor flight, but does not natively interface with several standard military data-link protocols used by other assets - a limitation discussed extensively in open-source military aviation literature.

The F-35, by contrast, was designed from the outset with a more capable and interoperable data-link architecture.

The Air Force chose the harder problem on purpose. If the CCA control architecture functions from an F-22 - with its known communication constraints - it is robust enough to function from anything in the inventory. The F-35, the B-21 Raider, and next-generation platforms all start from a better position than the Raptor as a CCA controller. The October test validated the foundation before moving to easier platforms.

The Economics Behind the Strategy

The F-22A program cost approximately $67 billion for a fleet of 187 aircraft - a per-tail cost exceeding $300 million when full program expenditure is factored in. The Air Force never received the numbers originally planned because the aircraft was too expensive to procure in quantity.

The CCA is designed to change that math. With per-unit cost targets that make CCAs affordable at far greater scale, the Air Force can accept combat attrition in unmanned airframes that would be strategically unacceptable in a crewed fleet. A single F-35 controlling two or three CCAs in a tactical situation effectively multiplies its offensive capability. Across hundreds of crewed fighters, that multiplication effect is substantial. The Air Force has discussed fielding CCAs in numbers that eventually exceed the crewed fighter fleet - whether the budget supports that ambition will play out over the next decade, but the strategic logic is sound.

The Global Context: Who Else Is Doing This

The U.S. program did not develop in isolation. Boeing Australia developed the MQ-28 Ghost Bat as a loyal wingman demonstrator for the Royal Australian Air Force, moving further in development than most outside observers recognized. The Ghost Bat flew, demonstrated autonomous flight, and helped establish that the loyal wingman concept was operationally viable.

China has been developing its own unmanned wingman technology. Various configurations of what appears to be a low-observable unmanned platform have been associated with its J-20 fleet. Open-source intelligence suggests China is not far behind.

These parallel developments were a driving factor in the Air Force’s decision to accelerate the CCA program.

What This Means for Fighter Pilot Training and Doctrine

The CCA fundamentally changes what it means to be a fighter pilot. The current training pipeline centers on what one pilot in one aircraft can do, and how flights of two or four aircraft work together - human-to-human formation flying, intercrew communication, tactical maneuvering.

A pilot who will control CCAs in combat needs an additional skill set: tasking an autonomous wingman, understanding its capabilities and limitations, interpreting the data it sends back, and integrating that capability into real-time tactical decisions - all while flying and fighting his own aircraft under high g-load and threat pressure.

The control interface design is critical. It must be simple enough to use under stress, specific enough to be tactically useful, and reliable enough to trust. That design process is iterative, and it happens through exactly the kind of flight testing that occurred in October. The Air Force is building the training doctrine in parallel. That pipeline does not yet fully exist.

What This Means for Civil Aviation

The Federal Aviation Administration is actively building the regulatory framework for autonomous and highly automated aircraft in the national airspace. Advanced Air Mobility platforms - electric air taxis, cargo drones, urban logistics aircraft - are pressing for rules that allow increasingly autonomous operations.

The underlying questions in that regulatory process are structurally similar to the ones the Air Force is working through in the CCA program: how to certify autonomous behavior, how to maintain meaningful human oversight, how to handle edge cases the automated system wasn’t designed for.

Military aircraft operate outside FAA type certification. But the technology - autonomy algorithms, sensor processing, cooperative flight management - exists on a continuum. GPS was a military technology before it was in every panel-mounted navigator. Weather radar and modern avionics architecture both trace roots to defense development. The CCA program will likely follow some version of that same path over a longer timeline. The direction of travel is established.

Key Takeaways

• In early October 2026, an F-22A Raptor pilot commanded the YFQ-44A Fury CCA in flight - the first airborne tactical control of a Collaborative Combat Aircraft.
• Previous CCA tests relied on ground-based controllers; moving control to an airborne pilot eliminates latency, improves situational awareness, and changes the tactical calculus.
• The Air Force is running two competing CCA prototypes - Northrop Grumman’s YFQ-44A Fury and General Atomics’ YFQ-42A - in parallel to accelerate development.
• The economics are strategic: affordable CCAs fielded in large numbers can absorb attrition in combat while multiplying the capability of each crewed fighter.
• The autonomy and cooperative-flight technology in the CCA program will eventually influence civil aviation, following the same defense-to-civilian technology transfer path as GPS and modern avionics.