The US Navy F-35C Lightning II aircraft made its first-ever arrested landing and takeoff aboard its newest Ford-class aircraft carrier. This milestone marks a major step for the US jet that initially struggled with hook-related flaws that complicated landings during ground tests.
On 13 October, an F-35C from Air Test and Evaluation Squadron (VX) 23 (“Salty Dogs,” NAS Patuxent River) made the first arrested landing aboard the Pre-Commissioning Unit (PCU) John F. Kennedy (CVN-79).
The aircraft reportedly used the unique EMALS and AAG electromagnetic launch-and-recovery systems to perform arrested launches and recoveries from CVN-79 as part of Aircraft Compatibility Testing (ACT).
ACT lets engineers examine how the ship’s equipment interacts with specific aircraft types while gathering data to confirm those systems function as intended.
The US Navy released photos of the event showing two F-35C aircraft with tail numbers 401 and 403—one landing on the carrier deck, and the other flying with an inert Joint Direct Attack Munition (JDAM) bomb carried externally. Later, another set of images and a video were posted on social media, showing the F-35C launching from the deck of the John F. Kennedy on the second day of ACT.
The US Navy took the preliminary acceptance of the carrier on 29 September 2026, after sea trials the previous month. Preliminary acceptance allows at-sea testing, training, and proficiency building before the carrier is commissioned and put into service.
This arrested landing and subsequent catapult launch marked the first time any F-35C had operated from a Ford-class ship, the largest and most advanced fleet of aircraft carriers in the American armory.
The lead ship, USS Gerald R. Ford (CVN-78), has never embarked the F-35C for sustained operations because the carrier was reportedly delivered without the full set of modifications needed to sustain stealth-fighter operations due to cost-saving measures.
Earlier in June 2019, former Navy spokesman Capt. Daniel Hernandez said that although Ford-class carriers were built to launch and recover the F-35C fighter jet, they still needed upgrades such as stronger jet blast deflectors to protect the deck from hot exhaust during launches, as well as designated areas for aircraft operations.
Instead of the F-35C, the USS Gerald R. Ford hosts air wings mainly equipped with F/A-18E/F and Growler variants for its current combat posture.
The US Navy has flown the F-35C only from its Nimitz-class carriers so far. The aircraft completed its initial at-sea testing aboard the USS Nimitz in November 2014. USS Carl Vinson was the first to deploy the jet operationally, and USS Abraham Lincoln was the first to use it in combat.
However, the House Armed Services Committee’s Seapower and Projection Forces Subcommittee later ordered in FY2020 that the Navy must not accept the CVN-79 USS John F. Kennedy aircraft carrier until it can embark the F-35C. This makes the latest arrested landing and takeoff special.
This test is a key step in validating F-35C integration with the Ford class, especially because these carriers use electromagnetic catapults and advanced arresting equipment, replacing the Nimitz class’s steam-powered launch and conventional arresting systems.
Interestingly, however, this key milestone comes as US President Donald Trump has ordered the Pentagon to redesign a new aircraft carrier to replace electromagnetic catapults—designed for finer control, reduced airframe stress, higher sortie rates, and better support for a wider range of aircraft—with steam catapults.
In fact, the President signed a national security memorandum in August, giving the Pentagon leaders two months to come up with “a plan on the required measures to replace the Electromagnetic Aircraft Launch System and Advanced Weapons Elevators with steam and hydraulic systems for the construction of” the USS Doris Miller, also a Ford-class aircraft carrier.
Nonetheless, putting F-35C jets on USS John F. Kennedy is a major breakthrough for the US Navy’s upcoming combat posture as regional security threats multiply across theatres. The F-35C Lightning II brings stealth, advanced sensors, sensor fusion, and long-range strike capability that older fighters, such as the Super Hornet, lack.
The F-35C’s Leap is Admirable
More than a decade ago, the F-35C struggled with its arresting hook system (AHS), which had a well-documented design issue, as reports in 2012 noted, citing a leaked JSF Concurrency Quick Look Review dated 29 November, 2011.
The report noted that the stealth fighter couldn’t board a carrier because of these tailhook design issues.
It stated that the F-35C failed to engage the MK-7 arresting gear during particular tests at NAWC-AD (Naval Air Warfare Center – Aircraft Division) Lakehurst, with a poor score of 0 successes in 8 attempts.
This was despite testing at a regular airport, not a real carrier, where an aircraft may face inclement weather, a pitching deck, adjacent obstructions, low fuel, and no alternate airfields, among other challenges.
At the time, reports noted that the core issue was the short longitudinal distance—about 7 feet—between the main landing gear tires and the lowered tailhook point. Low-observability, or stealth, requirements drove this geometry, forcing the Arresting Hook System into a recessed bay with doors to preserve the aircraft’s outer mold line and minimize radar cross-section, according to the reports.
For comparison, the F/A-18 placed the main landing gear-to-tailhook distance at about 18.2 feet. Additionally, the tailhook point design had limited ability to scoop low-positioned cables.
A Lockheed Martin official later said the company traced the F-35C’s trouble catching a carrier’s arresting gear wires to the tailhook design. “The good news is that it’s fairly straightforward and isolated to the hook itself,” said Tom Burbage, the F-35 program manager at the time. “It doesn’t have secondary effects going into the rest of the airplane.”
Burbage said that the rest of the tailhook system design, including the bay and doors that hide the device and other auxiliary hardware, was sound. “What we are trying to do is make sure that we got the actual design of the hook is optimized so that it in fact repeatedly picks up the wire as long as the airplane puts itself in position to do that.”
He explained that the fundamental limitations of creating a stealth fighter also caused the hook issue, adding that the company faced the rare challenge of designing the first-ever naval stealth fighter jet with a tail-hook that had to be concealed when not in use.
He also noted that the tail hook had to be installed farther forward on the jet’s ventral surface than on other naval aircraft because it had to fit within the F-35’s outer mold line. As a result, the hook behaved differently than it did on previous fighters like the F/A-18.
The way the wires react as the jet passes over them is a dynamic factor in the F-35, and the wire responded in a sine wave pattern.
“The time differential between when the main gear rolls over the cable and the time the hook picks up the cable on a more conventional airplane is more time for that wave to damp out,” the spokesperson was quoted as saying. “In the case of the F-35, one of our design constraints is that the hook just has to be closer to the main landing gear than on a conventional aircraft because of the requirement to hide it inside the airplane,” he added at the time.
Later, engineering investigations identified three primary factors: the aircraft’s constrained geometry, a suboptimal hook-point shape, and inadequate hold-down performance. Additionally, it found that a faulty or inadequately validated wire-dynamics simulation model contributed to the original design assumptions.
The Joint Strike Fighter program addressed the issue by redesigning the hook point and improving the hold-down damper, along with other refinements such as improved upstroke damping and strength. The revised system underwent successful shore-based testing, including dozens of roll-in arrestments, enabling the first at-sea arrested landings on USS Nimitz in late 2014, followed by a rigorous testing regime.
Notably, Ford-class ships use the newer Advanced Arresting Gear (AAG) rather than the legacy MK-7 hydraulic system. However, the successful trap and launch close the loop on more than a decade of work that began with the original hook’s total failure.
As the EurAsian Times previously explained, the F-35C offers significantly greater range over other F-35 variants, larger internal weapons bays, and superior endurance, making it ideal for long-range operations from the vast ocean.
These stealthy warplanes are nearly invisible to enemy radars and can penetrate even the most advanced air-defense systems. They have advanced sensor fusion to create a shared battlespace picture for the entire air wing and can conduct precision strikes or intercept threats, as demonstrated by the Iranian drone shootdown earlier this year.
The F-35C can carry over 5,000 pounds of internal weapons or over 18,000 pounds of combined internal and external weapons. This lets the US Navy use external armaments to increase lethality when needed or operate in stealth when required.
Not just that, the aircraft can also operate as an intelligence, surveillance, and reconnaissance (ISR) asset, sharing information with all networked ground, sea, and air assets in the battlespace
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