When a sixth-generation fighter is being advertised as a faster, stealthier follow-up of the F-22 or F-35, the biggest change in engineering is being overlooked: the cockpit is becoming a control room.
The Next-Generation Air Dominance crewed jet by the U.S. Air Force, commonly known as the F-47, has been positioned as a in-Mach flight system. That is significant, but it does not emphasize the actual shift in the manner of mission building and execution. The F-47 is meant to be a flying command-and-control node operating a so-called “family of systems”, which comprises the Collaborative Combat Aircraft (CCA) and the low-cost, attritable drones that will fly alongside manned fighters. The crewed jet is the quarterback of the mission in this construct where uncrewed aircraft are ordered to assume sensing, decoying, electronic warfare or weapons employment operations to ensure that it maintains the human in a stand-off position.
It was an old Air Force desire. The concept has been described over a decade ago by former Air Force Chief Scientist, Dr. Gregory Zacharias: drone operations are pushed up to the fighter cockpit, not through a ground operations center. The latency is the value proposition. When sensor data and tasking decisions travel aircraft to aircraft at speed the loop becomes shorter and the problem of “who sees what when” becomes less reliant on remote nodes and long relay chains.
One connectivity milestone at a time that technical road has been paved in public view. Similar flight-tested two-way translational data exchange was demonstrated between an F-22 and a F-35 in 2020, between two aircraft that were incompatible with each other in terms of secure language. It matched the same occasion with those fighters with an XQ-58A Valkyrie with a payload consisting of a gateway, highlighting the direction of the route as portions of the demonstration were unsuccessful. It was not simply the connection between platforms; it was the jamming information into cockpits in a form that the pilots can utilize, at the tactical edge.
Since then the CCA program has been transitioned into a more formal pipeline. In the year 2024, the Air Force narrowed down to two Increment 1 prototypes, the YFQ-42A and the YFQ-44A, and will make a decision to produce one in 2026. The size mentioned by the Air Force is still big since targets have been talked of up to 1,000 CCAs due to the fact that the concept is made in such a way that it will restore a sense of affordability of mass and spread the risk out among a large number of air vehicles instead of just a few that are very costly. Increment 1 is focused on air-to-air missions and weapon carrying, whereas subsequent increments have been mentioned in sensors and electronic warfare, indicating that wingman is more of a design space than the type of drone.
There are two facts that elucidate the real sense of “quarterbacking” in practice. First, the control issue ceases to be a drone, a pilot. It has been assumed that there can be two to five uncrewed aircraft to the crewed fighter and it has been tested and simulated by the Air Force that the number can be controlled by one crewed fighter. Second, the current manned platforms are being put on the stepping stone. The use of tablet-based conceptualized control and Crewed Platform Integration have been linked to the extension of CCA control to existing fighters with the F-22 likely to be among early integration prospects, which would provide a runway vehicle of training and tactics before the entire NGAD ecosystem reaches its full maturity.
This puts additional loading on the engineering side: severe networking, robust datalinks, non-overloading pilot interfaces, and autonomy capable of acting on intent without micromanagement. The ABMS experiments conducted by the Air Force have also demonstrated the reasons why automation is becoming drawn to the planning and coordination layer. In a DASH exercise of human-machine teaming, AI-based planning suggestions were reported to be as much as 90 percent faster than conventional technologies, and the most successful reportedly were 97 percent viable and tactical validity, indicating that the services are engineering to support decision making that matches that of distributed airborne groups.
Viewed through that prism, the headline characteristics of the F-47, speed, stealth, sensors, help up a larger role. The jet is being formulated to orchestrate uncrewed aircraft as extensions of its reach, magazines, and survivability as opposed to separate assets awaiting ciphering by the far off.
