A new stage for the Collaborative Combat Aircraft effort
The U.S. Air Force has taken another visible step toward integrating semiautonomous aircraft into frontline operations, this time through hands-on testing of Anduril’s YFQ-44A combat drone by airmen rather than by company specialists alone. According to Defense News and an Air Force release cited in the report, the service’s Experimental Operations Unit recently conducted a series of sorties with the jet-powered aircraft at Edwards Air Force Base in California.
The exercise matters because it moves the conversation around autonomous military aviation away from concept art and toward operational practice. The Air Force’s Collaborative Combat Aircraft, or CCA, program is meant to explore aircraft that could someday fly alongside crewed fighters. But the central question is not simply whether these systems can fly. It is whether military units can launch them, recover them, sustain them, task them in flight, and fit them into expeditionary operations under realistic constraints.
This latest test appears designed to answer exactly those questions.
From pilot substitute to operator workflow
One of the clearest details in the report is what the exercise no longer required. Defense News notes that the earlier concept involved fully human-piloted drones, but Jason Levin, Anduril’s senior vice president of engineering for air dominance and strike, said in a 2025 company release that there is now no hidden operator flying the aircraft with a stick and throttle behind the scenes.
That distinction is significant. It suggests the Air Force is not just evaluating remote piloting under a different label. It is testing an operational model in which personnel define missions, supervise the aircraft, and direct tasks without continuously flying the vehicle in the traditional sense. In practical terms, that changes the human role from constant pilot input to mission-level control and oversight.
The Defense News account gives a detailed picture of that workflow. Experimental Operations Unit personnel reportedly handled launch and recovery, aircraft turns between sorties, pre- and post-flight checks, clearances, weapons loading and unloading, and direct tasking during taxi and flight. They did so using a ruggedized laptop to upload mission plans, initiate autonomous taxi and takeoff, task the aircraft in flight, and manage data after landing.
That matters because the laptop is more than a gadget detail. It symbolizes an effort to reduce dependence on the fixed infrastructure associated with large established bases. If accurate at scale, that could make these aircraft more flexible in dispersed or contested operations.






