“The MQ-25 will represent our gateway to the unmanned systems into the air wing”, said Rear Adm. Michael Donnelly a remarkably straight forward summing up of where carrier aviation already is heading.
The significance of that course is that USS Nimitz is now approaching the stage in which the default solution presented by the Navy is to turn off the lights and commence taking out equipment, rather than questioning what else the hull can accomplish. The vessel will be officially decommissioned in May 2026, and the process involved will be irreversible: the carrier will be stripped through the Ship Terminal Off-load Program and then readied to start defueling and decommissioning work on the reactor. When that equipment is running, it is hard to insist that it should be disposed of.
But the unmanned roadmap of the fleet is now advanced enough that the more valuable question is what a carrier is when maximized to machines, networking, and electrical power as opposed to a more conventional air wing. Notable is the fact that the procedural muscle that is being built by the Navy to integrate the deck, command, and control, as well as the shipboard handling, is being done with Unmanned Carrier Aviation that combines the MQ-25 air vehicle with a carrier-based mission control architecture. Such a program is not the addition of one new aircraft only. It is redefining flight deck management of the unmanned fleet, its scheduling, launching, recovery, parking and commanding the fleet and keeping the manned sorties running.
A conversion concept of Nimitz uses that momentum rather than considering the ship as a relic. A “drone supercarrier” does not involve replacement of airplanes but rather redesigning the vessel as a control node on the move capable of moving unmanned mass forward. The flight deck would be the same, the internals would be different: less crewed-squadron maintenance space, more modular storage, automated movement corridors, and the ability to repair attritable airframes. Launch and recovery equipment would be being optimized to smaller, lighter aircraft-in addition to the pads and handling facilities to support vertical takeoff and landing drones-and mission planning and oversight would be in hardened, redundant control areas instead of scattering between pilot-ready rooms.
The most powerful engineering case is the case carriers can hardly ever receive credit in: power. The nuclear facility that was established by Nimitz was to support a floating airbase. Rebranded as an unmanned mothership, the same amount of energy can support large compute loads, more cooling, more high-duty-cycle communications all the kind of infrastructure unmanned operations will require when the ship is controlling swarms, stitching together sensor data and securing its own datalinks. The carrier environment is already becoming the mission-control stack of the Navy; the Unmanned Carrier Aviation Mission Control System (UMCS) at this point is defined as the system-of-systems that these missions demand, and there is an explicit description of how such a system can be used in the future as a carrier platform by other unmanned aircraft other than the tanker mission.
Even that tanker job does count. The MQ-25 will be useful in supplying the carrier air wing with airborne refuel, removing the need to have strike fighters “buddy tank”, and increasing the distance of the carrier. The advance of hardware is ever more palpable now: in early 2026, the first operational MQ-25A was able to complete its first taxi test, the autonomous movement of which is controlled by mission-control operators. This is despite the Navy not fully transforming Nimitz into a full time drone carrier but this is one indicator to show that unmanned deck choreography is a normalized practice and is not an experiment.
Modifying human footprint would also come with a refurbished Nimitz. A traditional carrier relies on thick deck crews, squadron support stores, and overhead day to day support of pilots and manned airplanes. An unmanned-heavy vessel compromises some of that with operators, maintainers who are concerned with fast component changes, data technicians, electronic warfare and cyber and signals detachments. The ship is brought nearer to a deployable data center that just happens to have a runway an “arsenal ship” argument that operates on the basis of fast refueling of drones and loitering munitions where the ship defense and the networking of the vessel is designed to have sufficient longevity to continue launching.
All of this does not resolve the underlying issue of the carrier: it remains a big and high value target that needs to act smart in a missile saturated environment. However, a Nimitz which is optimized to operate unmanned mass, range of sensing, electronic attack, and distributed control provides another exchange. Rather than gauging relevance based on the proximity of the ship to trouble, the gauge becomes the ability to produce unmanned capacity, in the form of the carrier air wing, and the ability to handle and regenerate unmanned capacity, also the carrier air wing, at a greater distance reorganizing remaining service life as a pilot project that can bring about the unmanned transition of the carrier air wing, instead of a scrapyard gate.
