The USS Gerald R. Ford is a 100,000-ton power plant that still gets graded on paperwork.
With a length of 1,092 feet and two Bechtel A1B reactors that produce significantly more electrical power than the last generation of carriers, CVN-78 was intended to be more than just a larger flight deck with a nuclear core. The ship was intended to be a systems integration wager: get planes faster, get weapons faster, launch and recover using electromagnetics rather than steam and hydraulics, and do it all with less manpower, which quietly fuels life-cycle costs. It’s this goal that is also why the Ford-class saga keeps coming back to one question: can the nation’s flagship really deliver the high-tempo performance the design intended when the carrier is driven hard for days, not just hours?
The Ford-class carriers did not materialize as a radical transformation of the carrier design, but the changes in configuration and equipment are nonetheless there. The island is reduced in size and moved aft, which helps to increase the deck space and is also supposed to help alleviate “traffic jams” among aircraft. The sensor package of the lead ship also placed a lot of eggs in one basket, namely an integrated, six-faced Dual Band Radar designed to offer continuous coverage without the churn of traditional rotating radars. This design choice was significant because it was part of the overall hypothesis of having fewer separate systems, fewer personnel, and better integration and sortie flow.
However, the hardware designed to unlock this flow has been the point of friction. The Advanced Weapons Elevators, electromagnetic lifts designed to move ordnance from magazines to the flight deck, were a gating factor in early readiness, and the ripple effect is simple: without the ability to move weapons at the required rate of speed, sortie generation rates will not increase regardless of how effective the air wing is. The publicly available record indicates that the program reached a milestone when the final advanced weapons elevator was determined to be fully operational, but the message was the same: new tools are only as good as their ability to perform when called upon.
The same questions about reliability have trailed the Electromagnetic Aircraft Launch System and the Advanced Arresting Gear. The Navy has pointed to the progress made, such as 8,000 launch and recovery operations completed by the launch and recovery system, but the write-ups on developmental and operational testing have continued to stress the data that is not in, the cost of sustainment, and the simple truth that demonstration events to show high-tempo performance take time, scheduling, and conditions. These are more important than any photo opportunity because they affect carrier performance when escorts, tankers, magazines, and maintenance personnel are all operating at the edge of their envelopes.
One of the cleanest reality checks on the Ford-class is that the integration risk did not end with the lead ship. The pressure of schedule on subsequent ships has continually been linked to the same critical-path systems. Navy budget documents for FY2026 trace changes in delivery dates for USS John F. Kennedy (CVN-79) to the certification of Advanced Arresting Gear and the continued work on weapons elevators.
When these occur, the math in the Navy’s fleet becomes brutal: Congress mandates that the Navy maintain no less than 11 operational aircraft carriers. In this regard, high-profile presence operations, particularly those characterized by deterrence, may cloud the true proof. A supercarrier can represent its power by presence alone, but the Ford-class program will ultimately be proven by its engineering results: availability for launch and recovery, weapons handling, repair without external support, and the ability to produce a representative rate of sorties without relying on constant support. Until then, the Ford-class program remains what it has been since its commissioning: a statement of intent afloat and still proving itself toward its most challenging proof point.
