As Beijing accelerates its carrier programme in the Indo-Pacific, the US Navy is about to field a second next‑generation supercarrier, the USS John F. Kennedy, signalling that Washington still has room to expand at sea.
A new nuclear giant steps out into the Atlantic
The future USS John F. Kennedy (CVN 79) completed its first sea trials in late January 2026 off the American East Coast. These initial tests checked the basics: nuclear propulsion, flight deck operations, combat systems and, crucially, its new electromagnetic catapults.
The Kennedy is the second ship of the Gerald R. Ford class, the most advanced and most controversial carrier programme in US history due to its cost and delays. With this ship edging towards commissioning, the US Navy moves from experimental phase to real operational depth in its newest carrier generation.
The United States will soon field two Ford‑class nuclear supercarriers, each displacing around 100,000 tonnes and carrying roughly 5,000 sailors.
Only its sibling, USS Gerald R. Ford (CVN 78), matches the Kennedy’s sheer scale. No Chinese, Russian or European navy currently operates anything comparable in tonnage, power generation or aviation capacity.
Inside the ship: power for the next 50 years
At the heart of the Kennedy sit two A1B nuclear reactors. They produce far more electrical power than the ageing Nimitz‑class carriers they are replacing.
This surplus energy is not only about pushing 100,000 tonnes of steel through the waves at over 30 knots. It is designed as a long‑term energy bank for future systems that do not yet fully exist at scale.
More electricity means stronger radars, heavier electronic warfare suites and, eventually, room for lasers or other directed‑energy weapons.
That design choice gives the Ford class something that China’s current conventionally powered carriers lack: the capacity to absorb power‑hungry technologies over decades without fundamental redesign.
Electromagnetic catapults change the flight rhythm
The headline innovation on the Kennedy is EMALS, the Electromagnetic Aircraft Launch System. It replaces the familiar steam catapults that have launched US jets since the Cold War.
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Instead of a blast of steam, a carefully controlled electromagnetic field accelerates the aircraft along the deck. The acceleration curve can be tuned to the weight and fragility of each airframe, from heavy fighters to lighter drones.
- Smoother acceleration reduces stress on aircraft structures.
- Less maintenance between launches shortens the turnaround time.
- More consistent power delivery supports higher sortie rates.
The US Navy claims that, in crisis conditions, a Ford‑class carrier can generate around 25% more sorties than a Nimitz‑class ship. In a high‑intensity conflict in the Western Pacific, that could translate into dozens of extra combat missions each day.
At the other end of the flight deck, the Advanced Arresting Gear brings the same logic to landings. It uses water turbines and advanced controls rather than simple hydraulic systems, adapting more easily to lighter unmanned platforms and heavier strike aircraft.
A quiet message to Beijing
Across the Pacific, China’s navy has grown at a pace that alarms planners in Washington, Tokyo and Canberra. Beijing now operates three carriers: Liaoning, Shandong and the far larger Fujian, currently on sea trials.
Liaoning and Shandong use ski‑jump ramps based on Soviet designs. Their air wings are limited in range and payload because jets must take off under their own power. Fujian, China’s first catapult carrier, closes part of that gap with its own electromagnetic launch systems.
Beijing may be catching up in carrier numbers, but the US still leads on nuclear endurance, electrical power and operational experience.
Chinese engineers are reportedly working on a future nuclear‑powered carrier, often referred to as Type 004. If current plans hold, China could have five or six carriers in service by the mid‑2030s.
Yet the US still enjoys a deep advantage. Ford‑class carriers can operate for decades without refuelling their reactors, relying on a global network of supply ships for aircraft fuel and munitions. Chinese carriers must refuel their own propulsion systems far more frequently, tying them to friendly ports and replenishment routes.
What 5,000 sailors and a floating airbase can do
The Kennedy is built to host a sophisticated mix of crew, aircraft and support staff, roughly 5,000 people when the air wing is embarked. The ship’s design assumes operations in dense, hostile environments filled with long‑range missiles, submarines and swarms of drones.
Its future air wing is central to that mission:
| Role | Main aircraft |
| Stealth strike and air defence | F‑35C Lightning II |
| Airborne early warning | E‑2D Advanced Hawkeye |
| Electronic warfare | EA‑18G Growler |
| Aerial refuelling (uncrewed) | MQ‑25 Stingray |
The F‑35C gives the carrier group a stealthy spearhead against modern Chinese air defences. The MQ‑25, once fully operational, is intended to extend that reach by refuelling jets at long range, keeping them on station or launching them deeper inland.
The Hawkeye’s radar and the Growler’s electronic warfare kit knit the force together, spotting threats and blinding enemy sensors. The carrier is less a lone ship than the floating core of a network extending hundreds of miles in every direction.
Industrial pressure and American shipyard politics
All of this rests on a single US shipyard. Newport News Shipbuilding in Virginia is the only place on earth currently capable of designing and building US nuclear carriers.
The Ford programme keeps that ecosystem alive: welders with decades of experience, nuclear propulsion specialists, software engineers, logistics planners. Once those skills vanish, they are extremely hard to rebuild.
The production pipeline currently looks like this:
- USS Gerald R. Ford (CVN 78) – in active service.
- USS John F. Kennedy (CVN 79) – finishing trials before commissioning.
- USS Enterprise (CVN 80) – under advanced construction.
- USS Doris Miller (CVN 81) – early industrial work underway.
For Washington, maintaining this drumbeat of construction is as much about strategic autonomy as about numbers on a fleet chart. China’s state‑owned shipbuilders churn out warships at scale. The US relies on a smaller, more specialised industrial base that cannot easily pause and restart.
Why an extra carrier changes daily deterrence
On paper, the US Navy already fields more carriers than any other navy. In practice, at any given moment, several are in refit, training or transit. Only a fraction are ready to surge into a crisis.
Each additional operational carrier gives Washington more flexibility to respond to a Taiwan flashpoint, a South China Sea standoff or a sudden crisis in the Gulf.
When one supercarrier heads into a lengthy overhaul, another can slot into its patrol pattern. That continuity sends a quiet but constant signal: the US can sustain carrier‑based air power without relying on vulnerable land bases in allied countries.
For allies such as Japan, South Korea or Australia, that matters. A US carrier strike group can operate in contested waters while domestic politics in host nations debate access for land‑based aircraft.
Key terms and scenarios worth watching
Several technical labels around the Kennedy shape how it will be used:
- EMALS: An electromagnetic rail system that launches aircraft with adjustable force rather than fixed steam power.
- Advanced Arresting Gear: A landing system that uses digital controls and water turbines, allowing a wider mix of aircraft types.
- Sortie rate: The number of flights a carrier can generate per day. It directly reflects how much combat power a ship brings.
Analysts often run war‑game scenarios in the Western Pacific. In one typical model, China fires barrages of anti‑ship ballistic missiles aimed at US carriers approaching the region. A Ford‑class ship, with its advanced sensors, escorts and potentially future defensive lasers, tries to stay just outside the densest threat rings while still launching long‑range F‑35C strikes, refuelled by MQ‑25 drones.
In that setting, the Kennedy’s extra power, higher sortie rate and nuclear endurance give planners more room to manoeuvre. The ship still faces real risks from long‑range missiles, submarines and cyber attacks, but it increases the number of credible options on the table for US decision‑makers.
For now, the completion of sea trials is just one milestone on a long road to full combat readiness. Yet as the USS John F. Kennedy edges towards commissioning, it already serves as a floating reminder to Beijing: in the carrier game, the United States still has serious capacity left in reserve.