Fujian vs Ford: China’s New Supercarrier Takes Aim at America’s Most Powerful Warship
A Deep Comparative Analysis of the Fujian and USS Gerald R. Ford as the World’s New Carrier Rivalry Intensifies
(DEFENCE SECURITY ASIA) — Aircraft carriers represent the apex of naval power projection and remain the most strategically valuable instruments in modern maritime warfare, functioning as floating sovereign airbases capable of shaping military, diplomatic, and geopolitical outcomes across entire oceans.
The accelerating militarisation of the Indo-Pacific has transformed these colossal warships into unambiguous symbols of national ambition, particularly for superpowers like the United States and China that now compete directly for influence from the South China Sea to the Caribbean Sea.

The USS Gerald R. Ford (CVN-78), commissioned in 2017 at an estimated program cost exceeding USD 17.5 billion (≈ RM 82.9 billion), stands as the world’s most technologically advanced aircraft carrier and the decisive backbone of U.S. global naval supremacy.
China’s Fujian (CV-18), commissioned on 5 November 2025 and valued near USD 6 billion (≈ RM 28.4 billion), marks Beijing’s most ambitious attempt yet to challenge American dominance by fielding a fully indigenous, CATOBAR-capable supercarrier designed to project power well beyond China’s littoral waters.
The Ford embodies mature, nuclear-powered blue-water dominance, while the Fujian represents China’s great leap toward a true peer-competitor capability, emerging at a moment of intensifying rivalries across the Taiwan Strait, the Western Pacific, and the Indian Ocean.
As of November 2025, the Ford is transitioning from Mediterranean operations to the Caribbean in support of U.S. hemispheric deterrence missions, while the Fujian has only just entered operational service following nine extensive sea trials that validated its electromagnetic catapult capability.
This comparative analysis examines these two maritime giants across design philosophy, propulsion and power, launch and recovery technology, air wing capacity, defensive architecture, operational readiness, and the wider geo-strategic implications for the Indo-Pacific.
1) The USS Gerald R. Ford: America’s Next-Generation Flagship
The USS Gerald R. Ford is the lead vessel of a new class intended to replace ageing Nimitz-class carriers and restore U.S. naval technological overmatch through transformative innovation in electrical power generation, aircraft operations, automation, and ship survivability.
Launched in 2013 and commissioned in 2017, the Ford measures 1,106 feet in length and displaces roughly 100,000 long tons, making it not only the world’s largest warship but also its most complex floating combat system.
The carrier’s pivotal innovations are the Electromagnetic Aircraft Launch System (EMALS) and Advanced Arresting Gear (AAG), which together raise peak sortie generation by approximately 25% relative to Nimitz-class benchmarks while reducing lifecycle stress on airframes and maintenance demands.
Two A1B nuclear reactors generate about 700 megawatts of electrical power—approximately triple the available electrical capacity of the Nimitz—creating growth margins for future directed-energy weapons, high-demand sensors, and next-generation unmanned aviation at scale.
Nuclear propulsion grants virtually unlimited range for two decades or more between refuellings, enabling persistent presence without the logistic umbilicals that constrain conventionally powered rivals.
A typical Ford air wing exceeds 75 aircraft, combining F-35C stealth strike fighters, F/A-18E/F Super Hornets, EA-18G Growlers, E-2D Advanced Hawkeyes, MH-60 helicopters, and the MQ-25 refuelling UAV to deliver layered lethality from sea control to deep precision strike.
After early technical friction—elevators, EMALS and AAG reliability—the Ford reached full operational maturity and has since executed long-endurance deployments spanning Europe, the Middle East, the Arctic, and now the Caribbean.
The 2023–2024 operating cycle showcased long-range responsiveness, with the strike group shifting from NATO waters to missile-threat environments before pivoting to high-latitude training, underscoring why nuclear endurance and a large, multi-mission air wing remain the irreducible heart of U.S. maritime power.
The Ford’s imminent Caribbean posture signals a renewed U.S. focus on Western Hemisphere deterrence while simultaneously telegraphing to Indo-Pacific audiences that Washington can surge combat-ready assets across multiple theaters in parallel.

2) The Fujian: China’s First True Supercarrier
The Fujian (CV-18), named after the coastal province facing Taiwan, is China’s third carrier but the first fully indigenous CATOBAR design, representing a generational break from the ski-jump predecessors Liaoning and Shandong.
Laid down mid-last decade at Jiangnan Shipyard, launched in June 2022, and commissioned in November 2025, the ship completed nine major sea trials between May 2024 and September 2025, validating electromagnetic catapult launches for the J-15T, J-35, and KJ-600.
Displacing 80,000–85,000 tons and measuring about 1,037 feet overall with a 249-foot beam, the Fujian is smaller than the Ford but is nonetheless the most powerful and sophisticated warship yet fielded by China.
The carrier mounts three electromagnetic catapults fed by a medium-voltage direct current (MVDC) integrated power system that Chinese naval engineers claim offers more stable energy distribution and reduced conversion losses than alternating-current launch architectures.
China selected conventional propulsion—steam turbines and diesel generators—over nuclear reactors to simplify construction and compress development schedules, accepting reduced global endurance to accelerate the pace of carrier production.
Fujian’s projected air wing includes roughly 40 fixed-wing aircraft plus helicopters: the J-15T multirole fighter, the stealthy J-35, the KJ-600 AEW&C aircraft, and Z-20 variants for ASW and utility roles.
The J-35 represents China’s boldest attempt to field a true fifth-generation carrier-borne jet, with ongoing integration expected through 2026–2027 as the platform matures across flight envelopes, weapons loads, and sensor suites.
The KJ-600 finally gives China a fixed-wing AEW&C capability comparable in mission role to the American E-2D, dramatically expanding the detection ranges and airspace control a Chinese carrier strike group can wield.
The Fujian is viewed in Beijing not merely as a warship but as a strategic flagship intended to undermine American operational dominance, complicate intervention in the Taiwan Strait, and buttress China’s growing far-seas posture.
3) Design, Propulsion & Air Operations: Power, Persistence, and Deck Tempo
In raw physical dimensions, the Ford’s ~100,000-ton displacement and expansive 1,092×256-foot deck area give it greater aviation fuel reserves, larger weapons magazines, and more room for efficient deck choreography than Fujian’s 1,036×249-foot deck footprint.
The Ford’s island is positioned aft to maximise deck efficiency and integrates a powerful suite of radar and sensor systems, optimised for simultaneous surveillance, tracking, and fire-control functions.
Fujian’s island is more compact, with two starboard elevators optimised for sortie generation across a smaller but highly modern deck layout, supported by the ship’s MVDC electrical backbone.
The Ford’s A1B nuclear reactors bestow unmatched energy reserves and endurance, making the carrier largely independent of fuel logistics for over two decades and enabling prolonged global deployments.
The Fujian’s conventional propulsion limits endurance but enhances fleet production rates, allowing China to field additional carriers faster and at lower cost than nuclear-powered equivalents.
Electromagnetic launch and recovery systems mark a decisive shift toward future naval aviation on both ships, but the Ford already holds thousands of operational EMALS and AAG cycles under genuine deployment conditions.
Fujian has validated EMALS during trials but must still build multi-year operational reliability under high-tempo conditions before matching the Ford’s proven launch record.
China’s adoption of electromagnetic catapults for all three launch lanes signals intent to support heavy AEW&C aircraft, carrier-capable stealth fighters, and larger unmanned systems that will become central to its future carrier aviation doctrine.

4) Air Wing, Defences & Survivability: Capability Density vs. Accelerated Catch-Up
Carrier combat power is determined by sortie density, mission variety, deck efficiency, and the resilience of the supporting battle network, and on these measures the Ford still leads by a substantial margin.
A Ford air wing exceeding 75 aircraft allows concurrent execution of air superiority, deep strike, electronic attack, ASW, and intelligence missions, all underpinned by the F-35C’s advanced sensor fusion and low-observability.
The MQ-25 tanker drone further extends the striking radius of both the F-35C and F/A-18E/F fleets, enabling missions deeper into contested areas while allowing the carrier to remain outside high-risk missile envelopes.
Fujian’s ~40 fixed-wing complement represents a monumental upgrade for China’s naval aviation but inherently limits the scale and concurrency of high-tempo missions compared to Ford-class operations.
The J-35 will be China’s premier tool for projecting stealth airpower at sea, but the fuller ecosystem of datalinks, hardened C4ISR networks, and electronic warfare capacity remains under development.
The KJ-600 AEW&C platform provides the PLAN with a critical leap in surveillance and targeting capability, enabling far wider maritime domain awareness and better battle management than helicopter-based AEW systems.
Defensively, the Ford layers RAM, ESSM, Phalanx CIWS, and advanced EW suites across a hull designed to withstand shock and damage from high-intensity combat, underscored by the carrier’s successful shock trials.
Fujian’s defences likely include HHQ-10 missiles, Type 730/1130 CIWS, and PLAN-standard EW architecture, but its overall damage resilience is not expected to match U.S. nuclear carrier standards.
In saturation-attack scenarios, the Ford benefits from deeper missile magazines across the carrier strike group, superior network-centric coordination, and decades of experience rehearsing multi-axis raid responses.
5) Cost, Readiness & Indo-Pacific Strategy: Quantity vs. Quality, Presence vs. Parity
Cost profiles reveal divergent philosophies: the Ford-class surpasses USD 17.5 billion (≈ RM 82.9 billion) due to advanced technologies and nuclear propulsion, while the Fujian’s approximate USD 6 billion (≈ RM 28.4 billion) price tag reflects iterative design and conventional power.
This differential suggests China can field more carriers quickly, while the United States maintains fewer but more capable nuclear carriers integrated into a global logistics ecosystem and a century-long carrier aviation heritage.
Operational readiness today is asymmetrical: the Ford has completed multiple global deployments, while the Fujian has just entered service and must still undergo the extensive combat-readiness certification process.
From a strategic perspective, China’s accelerating carrier program is designed to erode U.S. maritime dominance and complicate U.S. response timelines in the event of a Taiwan crisis or South China Sea confrontation.
The Ford’s global swing capacity, demonstrated by its sudden transition toward Caribbean waters during mounting regional tensions, highlights Washington’s capacity to project power across multiple theaters simultaneously.
China’s carrier expansion aims to achieve numerical and regional advantage by the early 2030s, with Fujian serving as the flagship of PLAN ambitions to operate confidently beyond the First Island Chain.
For Southeast Asia, the Indian Ocean Region, and allied democracies, the increasing regularity of both American and Chinese carrier deployments will reshape crisis signalling, maritime posture, and security cooperation.
The Titanic Contest for Maritime Dominance
The USS Gerald R. Ford remains the world’s most advanced, mission-flexible, and survivable aircraft carrier, combining nuclear endurance, superior air wing capacity, and multi-layered defensive depth.
The Fujian marks China’s most consequential step toward a blue-water naval force, coupling electromagnetic catapults, an emerging fifth-generation air wing, and a growing fleet of escorts into a credible challenge to U.S. maritime supremacy.
The Ford’s robust displacement, nuclear reactors, and hardened defensive systems provide durable advantages in sustained high-intensity conflict and global expeditionary operations.
The Fujian’s lower cost, fast production pace, and domestic technological leaps suggest that China intends to pursue numerical advantage through scale, iteration, and rapid operational learning.
Both carriers represent the strategic philosophies of their nations: one oriented toward global presence and alliance commitments, the other toward regional dominance and gradual outward expansion.
As the Indo-Pacific becomes the defining theater of 21st-century maritime competition, these supercarriers will shape the strategic landscape, influence regional calculations, and determine the future balance of naval power across the world’s most contested waters.
The contest between the USS Gerald R. Ford and China’s Fujian inaugurates a new era in which electromagnetic catapults, stealth airpower, AEW&C battle networks, and long-endurance operations will define victory at sea.
Their trajectories will determine not only the future of naval warfare but also the stability, security, and strategic alignment of the Indo-Pacific through 2035 and well beyond.
✅ Comparison Table: USS Gerald R. Ford vs. Fujian
| Category | USS Gerald R. Ford (CVN-78) | Fujian (CV-18) |
|---|---|---|
| Nation | United States | China |
| Commissioned | 2017 | 5 November 2025 |
| Estimated Cost | USD 17.5 billion (≈ RM 82.9 billion) | USD 6 billion (≈ RM 28.4 billion) |
| Displacement (Full Load) | ~100,000 long tons | ~80,000–85,000 tons |
| Length | 1,106 ft | ~1,037 ft |
| Flight Deck Beam | 256 ft | ~249 ft |
| Propulsion | 2 × A1B nuclear reactors | Conventional steam turbines + diesel generators |
| Electrical Power | ~700 megawatts | MVDC integrated power system (exact output not disclosed) |
| Range / Endurance | Virtually unlimited (20–25 years between refuel) | Limited by fuel; requires regular replenishment |
| Aircraft Launch System | EMALS (AC-powered) | EMALS (MVDC-powered) |
| Arresting Gear | Advanced Arresting Gear (AAG) | Electromagnetic arresting system (Chinese design) |
| Air Wing Capacity | 75+ aircraft | 40 fixed-wing + 12 helicopters (estimated) |
| Main Carrier Fighters | F-35C, F/A-18E/F | J-35 stealth fighter, J-15T |
| AEW&C Aircraft | E-2D Advanced Hawkeye | KJ-600 |
| Unmanned Systems | MQ-25 Stingray tanker | Future UAV integration planned |
| Defensive Systems | RAM, ESSM, Phalanx CIWS, advanced EW suites | HHQ-10 SAM, Type 730/1130 CIWS, PLAN EW suites |
| Deck Elevators | 3 advanced weapons elevators | 2 starboard aircraft elevators |
| Sortie Generation Rate | ~160 launches/day (surge) | Estimated lower due to smaller deck size & C4ISR maturity |
| Operational Status | Fully operational, multi-theater deployments | Newly commissioned; entering shakedown & integration phase |
| Strategic Role | Global power projection; multi-theater dominance | Regional power projection; A2/AD support; emerging far-seas capability |
| Industrial/Strategic Philosophy | “Fewer but more capable” nuclear supercarriers | “More carriers, faster” with iterative technological scaling |
— DEFENCE SECURITY ASIA
