China Developing Fourth Nuclear Aircraft Carrier to Surpass U.S. Ford-Class Air Power.

China is advancing the construction of its fourth aircraft carrier, a nuclear-powered supercarrier expected to surpass the U.S. Navy’s Ford-class in size and onboard air power capacity, marking a major escalation in naval capability. This matters because a larger air wing and greater endurance would enable Beijing to sustain longer, more intense air operations across the Indo-Pacific, directly challenging U.S. maritime dominance.

The Chinese aircraft carrier is designed to deliver higher sortie generation, extended operational range, and continuous deployment without refueling limits. If realized, it would push China closer to parity in blue-water carrier warfare and accelerate competition in high-end naval aviation.

Related Topic: China starts building Type 004 nuclear aircraft carrier to rival U.S. Navy’s Ford-class

Satellite image published in December 2025 by PLA Military Updates on X shows China’s Type 004 nuclear aircraft carrier under construction at Dalian, with an estimated displacement of 110,000 to 120,000 tons and sea trials projected between mid-2028 and early 2029 (Picture source: PLA Military Update X account)

According to recent open-source information from China on April 24, 2026, the vessel’s hull is complete, and overall progress has reached approximately 25 percent as of early 2026. Expected to enter service around 2030, the platform would mark China’s first nuclear-powered carrier and a decisive shift toward sustained global naval operations.

With an estimated displacement of 120,000 tons, the future Chinese carrier would exceed the U.S. Ford-class, which displaces about 100,000 tons. This increase in size is not only symbolic but operationally significant, as it suggests greater onboard fuel storage, expanded weapons capacity, and the ability to support a larger and more diverse air wing, directly impacting sortie endurance and combat persistence.

The projected Chinese air wing of up to 105 aircraft would also surpass the typical Ford-class deployment of around 75 aircraft. This mix, reportedly including J-35 stealth fighters, J-15T multirole naval aircraft, and KJ-600 AEW&C platforms, indicates a strong emphasis on layered air dominance, long-range strike capability, and enhanced battlespace awareness. In comparison, the Ford-class relies on F-35C stealth fighters, F/A-18E/F Super Hornets, and E-2D Advanced Hawkeye aircraft, forming one of the most integrated and combat-proven carrier air wings currently in service.

A critical area of convergence is launch technology. The U.S. Ford-class is equipped with the Electromagnetic Aircraft Launch System, enabling higher sortie generation rates and reduced aircraft stress. China is expected to field a similar electromagnetic catapult system on its new carrier, building on experience from the Type 003 Fujian. If fully matured, this would allow China to match U.S. capabilities in launching heavier aircraft with greater efficiency, including AEW platforms essential for long-range detection and command and control.

Nuclear propulsion represents another key parity objective. The Ford-class carriers benefit from virtually unlimited range and sustained high-speed operations, giving the U.S. Navy unmatched global responsiveness. China’s move toward nuclear propulsion would replicate this advantage, eliminating one of the major operational limitations of its current fleet and enabling continuous deployments far from home ports without logistical interruption.

However, despite these projected similarities in size and raw capacity, the U.S. Ford-class retains critical qualitative advantages. These include a more mature ecosystem of carrier strike group integration, advanced combat systems, superior deck automation, and decades of operational experience in high-intensity naval warfare. Systems such as the Dual Band Radar, advanced weapons elevators, and integrated power systems enable the Ford-class to optimize sortie generation and resilience under combat conditions.

China’s approach appears focused on achieving near parity in platform metrics, size, air wing volume, and endurance, while rapidly closing technological gaps in launch systems and aviation integration. This suggests a strategic intent not only to match but to eventually compete with U.S. carrier strike groups in contested environments, particularly in the Indo-Pacific theater.

Over the past decade, China has significantly accelerated the expansion of its carrier fleet and broader naval capabilities. Starting with the refurbished Liaoning, followed by the domestically built Shandong and the more advanced Fujian equipped with electromagnetic catapults, Beijing has demonstrated a rapid learning curve in carrier design, construction, and operations. Parallel investments in escort vessels, such as Type 055 destroyers, advanced submarines, and integrated anti-access and area-denial systems, have reinforced the survivability and combat effectiveness of future carrier strike groups.

This sustained modernization effort directly affects the balance of power in Asia. A nuclear-powered Chinese supercarrier supported by a modern escort fleet would enable a persistent presence in contested areas such as the South China Sea, Taiwan Strait, and beyond into the Western Pacific. For the United States, this represents a growing challenge to freedom of maneuver, as Chinese carrier groups could operate with extended air coverage, layered defenses, and long-range strike capabilities designed to hold U.S. assets at risk.

In operational terms, a 120,000-ton nuclear-powered Chinese carrier with over 100 aircraft would significantly alter the dynamics of force projection. It would allow the PLAN to achieve higher sortie rates over longer durations, extend defensive perimeters through AEW coverage, and sustain strike operations at greater distances, capabilities that define modern carrier warfare.

For the United States, this development reinforces the importance of maintaining superiority not just in platform size, but in networked warfare, pilot training, and multi-domain integration. While China’s future carrier may approach or even exceed the Ford-class in physical scale and theoretical air wing capacity, the decisive factor will remain the effectiveness of combat integration and operational execution in real-world scenarios.

Ultimately, China’s fourth aircraft carrier represents a clear attempt to replicate and challenge the benchmark set by the Ford-class, signaling an intensifying competition in naval aviation where scale, technology, and operational doctrine will determine dominance at sea.

Beyond platform comparisons, the broader trajectory of China’s naval expansion over the last decade underscores a systemic effort to reshape maritime power balances. The People’s Liberation Army Navy has transitioned from a primarily regional force into the world’s largest navy by hull count, supported by rapid shipbuilding cycles, the modernization of naval aviation, and the integration of long-range missile systems, such as anti-ship ballistic missiles, designed to counter carrier strike groups.

For the United States, the emergence of a Chinese nuclear-powered carrier must be assessed within this wider operational ecosystem. The combination of large-deck carriers, dense surface escorts, submarines, and land-based anti-access systems creates a layered threat environment that complicates U.S. force projection in the Indo-Pacific. In a potential high-intensity scenario, U.S. carriers could face increased risk from coordinated air, surface, subsurface, and missile threats operating under an integrated command network.

Strategically, China’s investment in carrier aviation also supports its objective of securing sea lines of communication, protecting overseas interests, and demonstrating presence in distant theaters such as the Indian Ocean and, potentially, the Middle East. This evolution challenges the long-standing U.S. advantage in sustained naval air operations and requires continuous adaptation in U.S. doctrine, distributed maritime operations, and allied interoperability to maintain credible deterrence in the region.

Additional open-source details from Chinese reporting and satellite imagery analysis further suggest that the carrier’s overall length could exceed 340 meters, with a beam approaching 90 meters at its widest point and an expanded waterline width estimated at around 43 meters. Such dimensions would slightly surpass those of the Ford-class, reinforcing the emphasis on deck space optimization and aircraft handling capacity, which are critical for high-tempo flight operations.

Chinese sources also point to the possible use of high-strength HSLA-115 steel, reportedly offering improved structural resilience compared to previous carrier generations. Combined with a refined hull design featuring a U-shaped underwater structure and optimized angles above the waterline, these elements are intended to enhance stability, reduce hydrodynamic resistance, and sustain high-speed operations while carrying heavy air wings.

Further indications of nuclear propulsion include observed structural features consistent with reactor compartment layouts, as well as reports of land-based reactor testing in Sichuan province. Estimates suggest the carrier could be powered by twin pressurized water reactors in the 300 MW class, enabling extended endurance and sustained power generation for advanced onboard systems, including electromagnetic launch technology.

Open-source reports also indicate that the vessel could be equipped with up to four electromagnetic catapults, potentially increasing aircraft launch rates beyond those of current Chinese carriers. Some estimates suggest sortie generation could exceed 150 to 190 launches per day under optimal conditions, although such figures remain unverified and depend heavily on operational maturity and crew proficiency.

The embarked air wing is expected to center on the J-35 stealth fighter, with a reported combat radius of around 1,200 km, supported by J-15T aircraft capable of carrying anti-ship missiles for maritime strike missions. The KJ-600 AEW&C aircraft, with an estimated detection range exceeding 400 km, would provide critical airborne surveillance and command capabilities, enabling coordinated long-range engagements.

While some Chinese assessments claim performance advantages over the Ford-class in areas such as electromagnetic launch efficiency and sortie rates, these assertions remain difficult to verify and should be treated with caution. U.S. carriers benefit from decades of operational testing, real-world deployments, and continuous upgrades, factors that remain decisive in combat effectiveness beyond raw technical specifications.

Nevertheless, if even part of these projected capabilities are realized, China’s fourth aircraft carrier would represent a significant leap in naval aviation power, reinforcing Beijing’s ability to contest U.S. naval dominance and sustain high-intensity operations across the Indo-Pacific and beyond.

Written by Alain Servaes – Chief Editor, Army Recognition Group
Alain Servaes is a former infantry non-commissioned officer and the founder of Army Recognition. With over 20 years in defense journalism, he provides expert analysis on military equipment, NATO operations, and the global defense industry.