F-22 Pilot Controls Autonomous Fighter Drone From Cockpit in Milestone Flight Test
A U.S. Air Force F-22 Raptor pilot successfully directed an Anduril YFQ-44A Fury combat drone during a flight over California, marking the first time a crewed fighter has commanded a purpose-built Collaborative Combat Aircraft in the air.
By Layla Zaher
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The U.S. Air Force has proven that a single fighter pilot can command a semi-autonomous combat drone in flight without touching a remote control stick. During an October test over the Mojave Desert, an F-22 Raptor pilot successfully directed an Anduril YFQ-44A Fury drone through simulated combat tasks, validating a core operational concept for the military's future air fleet.[1][2][4]
The demonstration, which took place during the first week of October 2026 out of Edwards Air Force Base in California, marks the first time a crewed fighter has controlled a purpose-built Collaborative Combat Aircraft. The Air Force announced the milestone on October 16, confirming that the two aircraft took off separately before joining up in midair.[1][2][3]
Once in formation, the F-22 pilot transmitted an updated mission plan to the Fury using a tactical data link. Rather than flying the drone remotely, the pilot acted as an "airborne quarterback," issuing high-level tactical directives. The drone's onboard autonomy software then interpreted those commands and executed the necessary flight maneuvers entirely on its own.[1][2][4]
Shifting the Cognitive Load
The distinction between remote operation and tactical command is central to the Air Force's strategy. Operating a high-performance stealth fighter already demands immense cognitive bandwidth. If pilots had to manually fly accompanying drones, the workload would become unmanageable, particularly in single-seat aircraft like the F-22.[1][3]
By delegating the actual flying to the drone's software, the human pilot is freed to focus on the broader tactical picture. The pilot assigns objectives—such as searching a specific sector or engaging a target—and the uncrewed aircraft determines the optimal flight path, throttle settings, and sensor management required to achieve that goal.[1][4]
"This flight shows the power of crewed-uncrewed teaming and the advantage it provides our warfighters," Air Force Chief of Staff Gen. Ken Wilsbach said following the test. He emphasized that the service must test frequently and learn rapidly to deliver the capability to operational squadrons.[1][2]
The Air Force has not disclosed exactly how the F-22 cockpit was configured for the October flight. However, the service's fiscal 2026 budget request included funding for tablets, cables, and associated data-link hardware designed specifically to interface with the Raptor's existing avionics and enable drone control.[1]
Transitioning to Production Hardware
While the Air Force has tested crewed-uncrewed teaming before, those earlier flights relied on surrogate aircraft. In October 2025, an F-22 pilot directed a General Atomics MQ-20 Avenger over the Nevada Test and Training Range. However, the Avenger was a stand-in platform used to test the underlying software architecture and communications links.[1][3]
The October 2026 flight represents a critical transition to the actual hardware the military intends to buy. The YFQ-44A Fury, developed by Anduril Industries, is one of two designs selected for the first increment of the Collaborative Combat Aircraft program. The other is the FQ-42 Vengeance, manufactured by General Atomics.[1][5]
Mark Shushnar, Anduril's vice president of autonomous airpower, noted that the flight required the Raptor pilot to command the Fury through operationally relevant maneuvers directly from the cockpit. The successful integration proves that the pre-production drones can interface securely with the Air Force's most advanced stealth fighters.[2]
The Fury itself is a jet-powered drone designed from the ground up for semi-autonomous operations. According to Anduril, all of the aircraft's taxi and flight tests have been managed by onboard software since its inception, with human operators only monitoring the systems and retaining the ability to command a return-to-base if necessary.[4]
Building a 500-Drone Fleet
The successful F-22 test underpins a massive procurement effort designed to reshape American airpower. The Air Force intends to field 500 combat-ready, semi-autonomous drones by 2032, with an eventual goal of operating a fleet of 1,000 or more. These uncrewed aircraft will cost a fraction of a crewed fighter and can be produced much faster.[1][3]
In future conflicts, a single F-22 or F-35 could lead a formation of several armed drones into contested airspace. The uncrewed aircraft could fly ahead to absorb enemy radar emissions, jam air defense systems, or launch their own air-to-air missiles, all while the crewed fighter remains safely outside the threat ring.[4][5]
The F-22 has been designated as the "threshold platform" for the program, meaning it will be the first fighter equipped to control the drones operationally. Because the Raptor carries its weapons internally to maintain stealth, relying on external wingmen allows the formation to bring significantly more firepower to an engagement.[1]
Earlier this year, a Fury drone successfully launched an AIM-120 Advanced Medium-Range Air-to-Air Missile during a live-fire test. When paired with the F-22's unmatched sensor fusion and stealth capabilities, an armed drone effectively serves as a flying, autonomous magazine that the human pilot can direct against aerial targets.[1]
Scaling the Autonomous Force
With the single-drone control concept validated, testing will now expand in complexity. The next phase of the program will require a single fighter pilot to manage multiple drones simultaneously, testing the limits of both the autonomy software and the human operator's situational awareness in a dynamic environment.[2][5]
The Fury and Vengeance drones are scheduled to participate in Exercise Emerald Flag in December 2026. Military officials have described the upcoming event as the first large-force exercise that will fully integrate the new autonomous wingmen into complex, multi-domain combat scenarios alongside a variety of crewed platforms.[1][2]
As the software matures, the Air Force plans to extend control capabilities to other aircraft in its inventory. Future integration targets include the F-35A Lightning II, the F-15EX Eagle II, and the Next Generation Air Dominance fighter, ensuring the entire tactical fleet can leverage autonomous wingmen.[3]
"This achievement demonstrates what is possible when we are aligned with industry on a shared imperative," Air Force Secretary Troy Meink said following the test. The October flight over the Mojave Desert proves that the foundational technology for a networked, semi-autonomous air fleet is now airborne and responding to commands.[2]
Key points
- An F-22 pilot issued tactical directives to an Anduril YFQ-44A Fury drone via a data link during a flight out of Edwards Air Force Base.
- The drone's onboard autonomy software interpreted the commands and executed dynamic maneuvers and simulated combat tasks independently.
- The test marks the first time an F-22 has controlled a pre-production Collaborative Combat Aircraft, moving beyond earlier trials with surrogate drones.
- The U.S. Air Force aims to field 500 combat-ready autonomous wingmen by 2032 to operate alongside crewed fighters.
Open questions
- The Air Force has not disclosed exactly how the F-22 cockpit was modified to control the drone, or what the pilot's interface looks like.
- It remains unclear how the tactical data link between the fighter and the drone will hold up against heavy electronic warfare and jamming in a real combat scenario.
- The military has not specified the exact unit cost of the YFQ-44A Fury, only stating that CCAs will cost a fraction of a crewed fighter.
Timeline
April 2024
The U.S. Air Force selects Anduril and General Atomics to develop designs for the first increment of the Collaborative Combat Aircraft program.
October 2025
An F-22 pilot successfully controls a surrogate drone, the MQ-20 Avenger, over the Nevada Test and Training Range.
June 2026
The Air Force awards engineering and manufacturing development contracts to advance the Fury and Vengeance drone designs.
October 2026
An F-22 pilot directs a pre-production YFQ-44A Fury drone in flight for the first time over the Mojave Desert.
- U.S. Air Force Leadership
- Views autonomous wingmen as an essential, cost-effective way to rapidly expand combat mass and protect human pilots in highly contested airspace.
- Defense Industry Contractors
- Emphasizes the maturity of onboard autonomy software and the ability to rapidly iterate pre-production hardware to meet military timelines.
- Military Aviation Analysts
- Focuses on the practical challenges of the quarterback model, particularly managing pilot cognitive load and securing tactical data links against jamming.
Perspectives this story doesn't cover
- Adversary military planners analyzing the U.S. shift toward autonomous combat mass.
- Ethics advocates concerned about the delegation of lethal combat tasks to autonomous software.
Sources
[1]The War Zone (TWZ)Military Aviation AnalystsF-22 Pilot Controls FQ-44 Fighter Drone From The Cockpit For The First Time
Read on The War Zone (TWZ) →
[2]Air & Space Forces MagazineU.S. Air Force LeadershipF-22 Pilot Directs CCA in Flight as 'Airborne QB'
Read on Air & Space Forces Magazine →
[3]The AviationistMilitary Aviation AnalystsF-22 Controls Collaborative Combat Aircraft In Flight For The First Time
Read on The Aviationist →
[4]Defence Industry EuropeU.S. Air Force LeadershipU.S. Air Force says F-22 pilot directed Anduril YFQ-44A Fury through flight maneuvers and simulated combat tasks in airborne test
Read on Defence Industry Europe →
[5]The EurAsian TimesDefense Industry ContractorsUSAF Puts F-22 Raptor in the “Quarterback” Seat for First Flight Test Controlling Anduril's YFQ-44A Fury
Read on The EurAsian Times →
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