A U.S. Navy F-35C has made the first arrested landing for the type aboard a Ford class aircraft carrier, with the milestone taking place aboard the future USS John F. Kennedy (CVN 79) in the Western Atlantic on October 13, 2026. The milestone marks a major step in testing the Navy’s stealth fighter aboard its newest carrier class, following years of challenges integrating advanced launch and recovery systems.

Two F-35C test pilots assigned to Air Test and Evaluation Squadron 23 (VX-23), part of the Naval Air Warfare Center Aircraft Division (NAWCAD), flew to the carrier as part of an ongoing Aircraft Compatibility Testing (ACT) campaign. A team from the Patuxent River-based F-35 Integrated Test Force (ITF), detached to the ship, is conducting the evaluation using a specially instrumented example of the carrier-capable stealth fighter. The imagery released shows two jets, although only one is seen landing on the flattop. The other is seen carrying inert Joint Direct Attack Munition (JDAM) bombs externally.

The Navy took preliminary acceptance of the carrier from Newport News Shipbuilding on September 29, following successful acceptance trials in August. That development allows the ship and its crew to conduct at-sea testing and build underway proficiency while the shipbuilder completes final systems testing ahead of formal delivery, scheduled for spring 2027.

The test is an important step in validating the integration of the F-35C with the Ford class. The Navy’s newest carriers use electromagnetic catapults and advanced arresting equipment, replacing the steam-powered launch systems and conventional arresting machinery found aboard the preceding Nimitz class.

Aircraft Compatibility Testing assesses the operational capabilities of a ship’s aircraft launch and recovery equipment with U.S. Navy aircraft. The process helps engineers evaluate how the carrier’s systems interact with individual aircraft and collect data needed to validate their performance.

The F-35C is specifically designed for carrier operations, with larger wings, reinforced landing gear and a beefier tail hook compared with the Air Force’s F-35A. Its ability to launch from a carrier and recover through an arrested landing is central to its role in the Navy’s carrier air wings, which also include F-35Cs operated by the U.S. Marine Corps.

The use of a specially instrumented aircraft is particularly relevant to the test campaign. Instrumentation allows test teams to record data during flight-deck operations, helping them assess system performance and identify any issues requiring further evaluation.

The first arrested landing aboard John F. Kennedy demonstrates that the ship has reached an important F-35C compatibility milestone. It does not, however, establish that all testing, certification, or operational qualification requirements have been completed.

The milestone comes against the backdrop of the Ford class program’s difficulties integrating some of its advanced aviation systems. The lead ship, USS Gerald R. Ford (CVN 78), introduced the Electromagnetic Aircraft Launch System (EMALS) and Advanced Arresting Gear (AAG), technologies intended to improve aircraft-launch flexibility, recovery performance, and overall sortie generation. Development and reliability challenges with both EMALS and AAG have contributed to delays in the class’s progress. In a 2019 report, TWZ highlighted concerns that Ford class carriers would not be ready to operate the F-35C for years.

USS Gerald R. Ford was designed and built before the F-35C’s full carrier-integration requirements were sufficiently mature, so the Navy deferred several upgrades to a later modernization period rather than delaying the ship’s delivery. Following congressional pressure, the Navy adopted a single-phase delivery approach for USS John F. Kennedy, incorporating these modifications during construction instead.

The USS Gerald R. Ford completed its Aircraft Compatibility Testing in January 2020, following 16 days at sea, during which the crew launched and recovered 211 aircraft, testing five different airframes — but the F-35C was not included.

Beyond EMALS and AAG, integrating the F-35C on Kennedy requires modifications to the carrier’s maintenance infrastructure and support systems. These include specialized spaces for handling the aircraft’s sensitive mission systems and classified data, computer networks and interfaces linking its maintenance and logistics systems with the Navy’s existing infrastructure, and facilities and equipment to support the upkeep of its low-observable coatings and materials. The Navy has also identified the need for more robust jet blast deflectors (JBDs), which protect flight-deck personnel and equipment from the F-35C’s intense engine exhaust.

Earlier F-35C integration work aboard Nimitz class carriers included JBD modifications to improve heat resistance and cooling, while planning for John F. Kennedy explicitly included both JBD upgrades and changes to maintenance spaces and information systems.

The latest test represents progress toward resolving the compatibility question, although the full scope of the remaining work will depend on the results of the ongoing evaluation.

The development also comes as China advances its own carrier aviation capabilities. Unlike the U.S. Navy, its Fujian aircraft carrier has demonstrated electromagnetic catapult launches and arrested recoveries involving several aircraft types, including the J-35 stealth fighter.

In contrast to the U.S. Navy, which accumulated decades of experience with steam-powered catapults before adopting electromagnetic launch technology, China chose electromagnetic catapults for its first catapult-equipped carrier.

Although China’s demonstrations aboard Fujian and the F-35C compatibility testing aboard Kennedy involve different aircraft, ships, and stages of development, both underscore the technical demands of integrating advanced aircraft with modern carrier launch and recovery systems.

For the U.S. Navy, the immediate priority is to demonstrate that the Ford class can reliably support its intended aircraft. The F-35C’s first arrested landing aboard Kennedy is a significant step in that process, with further testing — not least an EMALS takeoff — needed before the milestone can begin to translate into an operational capability.

Contact the author: thomas@thewarzone.com

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Rafael USA and Leonardo DRS have presented a capability that would allow fighting vehicles equipped with legacy Tube-launched, Optically tracked, Wire-guided (TOW) missile launchers to fire Rafael’s Spike LR2 anti-armor missiles. The effort builds on a demonstration dating back to 2021, with the companies now presenting a more mature adapter solution designed to integrate the Israeli-made missile into existing platforms.

Roman Palaria, Rafael’s vice president for marketing and business development in its land and naval division, discussed the system in an interview with TWZ at the Association of the U.S. Army’s (AUSA) main annual convention. He explained that the earlier demonstration, part of Project Convergence 2021, used a version of the adapter that had not yet reached its final configuration. Leonardo DRS, Rafael’s U.S. partner, subsequently developed the mechanical and electrical components needed to connect the Spike LR2 to the TOW launcher and the vehicle’s existing systems.

The approach is intended to avoid replacing the launcher or radically overhauling the vehicle’s gunner station. Instead, the adapter provides the mechanical interface for loading the Spike LR2 missile and the electrical connections needed to communicate with the vehicle. Additional electronic components are installed within the vehicle to support the missile’s functions.

“We’re doing minimum changes to the vehicle,” Palaria said, describing the goal of making the integration as seamless as possible for the operator.

The Bradley infantry fighting vehicle is a prominent potential application, although the companies say the capability could extend to other platforms that use TOW launchers. The Army has operated TOW-equipped vehicles for decades, creating a substantial installed base of launch systems that could potentially benefit from the approach. As for the Bradley, the Army effort to replace its TOW missiles has been a long one, but is yet to produce any real results.

Spike LR2 was successfully test-fired from M2A4 Bradley equipped with Multi-Purpose Missile Launcher (MPML), developed by Rafael and DRS. Adapters allow the system to remain compatible with existing TML/UTML launchers. Spike LR2 has also been proposed for the CCMS-H and XM30. pic.twitter.com/KB9EYwi6BI

— Ronkainen (@ronkainen7k15) October 13, 2026

After a missile is fired, its launch tube remains in the launcher and can be removed to accommodate another missile.

The central attraction of the system is the ability to combine existing launcher infrastructure with the Spike LR2’s unique engagement capabilities.

During Project Convergence 2021, two Spike missiles were fired from a TOW launcher, and both reportedly hit their intended targets. The adapter now being presented reflects subsequent development work by Leonardo DRS, including refinement of the mechanical interface and vehicle electrical integration.

The system is designed to preserve the vehicle’s existing TOW capability while adding the option to use Spike LR2. That would give commanders another missile option without necessarily requiring wholesale replacement of installed launcher equipment. The extent to which individual vehicles could use both missile types would depend on the completed integration and applicable qualification requirements.

The Spike LR2 offers capabilities that differ substantially from those of the legacy TOW missile. Palaria cited a maximum range of approximately 5.5 kilometers (3.4 miles) and highlighted the missile’s day/night imaging seeker, which provides video to the operator during flight. The longest-range TOW missile versions max out at around 4.5 kilometers (2.8 miles).

In contrast, Spike LR2’s imaging capability supports engagement of targets beyond the operator’s direct line of sight, as well as observation of the target area during the missile’s approach. Depending on the engagement, the operator can acquire a target through the missile’s seeker, adjust the engagement, or select a different target while the missile is in flight.

These features contrast with the traditional TOW’s semi-automatic command to line-of-sight (SACLOS) guidance, in which the gunner tracks the target through the launcher’s observation system and guides the missile throughout its flight. Spike LR2’s onboard imaging provides a different set of options for engagements in which direct observation is limited or target conditions change after launch. This can also include striking targets behind cover.

Palaria also described the LR2’s two warhead options. The first of these is a tandem-charge anti-tank warhead, which Rafael claims is able to penetrate any modern main battle tank. It consists of a precursor warhead and the main warhead, which are designed to penetrate the reactive armor, and the main armor, respectively.

The second option is a multi-purpose configuration. It has a programmable fuze, which allows the missile to be employed against different target types. Depending on the selected mode, the warhead can be configured for direct-impact or timed-detonation effects, for example, detonating above the ground for anti-personnel missions, or penetrating a building, in which case the first charge will make a hole in a wall, and then the second charge will go inside and explode after a short delay.

The adapter offers a potential route to adding new missile capabilities to existing Army vehicles while limiting changes to their launcher hardware and crew interface.

Operator training would obviously be necessary. Although the gunner would continue using the vehicle’s existing console and displays, Palaria acknowledged that Spike LR2 introduces additional functions, controls, and engagement procedures.

For the Army, the proposition is straightforward: retain a familiar launcher architecture while potentially adding a missile with greater reach, onboard imaging, and more flexible engagement options that exceed line-of-sight tracking. The adapter’s significance lies in making that combination possible without starting from a clean sheet.

Whether that capability becomes a fielded upgrade will depend on the Army’s requirements, testing, integration decisions, and procurement plans. But the widespread uptake of the Spike series of missiles around the globe, combined with the very large existing TOW missile operator base, means the adapter solution could well be of interest to customers outside the U.S. Army, too.

Contact the author: thomas@thewarzone.com

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AEVEX Corp. has publicly shown its Specter jet-powered drone for the first time at the Association of the U.S. Army’s (AUSA) annual meeting in Washington, D.C., where TWZ is in attendance. The aircraft is the latest development from a company that has played a significant role in the U.S. military’s one-way attack drone efforts. Most notably, it built the secretive Phoenix Ghost family that was rushed to Ukraine in 2022.

AEVEX announced Specter in September, describing it as a high-speed, low-cost, jet-powered autonomous platform designed for high-risk operational environments. The aircraft is being developed around a modular architecture, with ground-launched and air-launched variants planned. Its interchangeable nose section is intended to accommodate different payloads, including kinetic warheads, electronic warfare equipment, intelligence, surveillance and reconnaissance (ISR) systems, and other future capabilities.

That flexibility is central to how AEVEX is pitching the aircraft. The company is aiming for an adaptable system that can be configured for different operational needs while remaining affordable enough to be used basically as a cruise missile in combat applications.

The aircraft’s external configuration features a prominent V-shaped lower fuselage, high-mounted, unswept trapezoidal wings, a v-tail and rear-mounted conformal engine intakes. Clearly, low observability was one design driver for Specter, with the goal of balancing survivability with low-cost likely factored in heavily. AEVEX has not publicly discussed Specter’s low-observable characteristics.

The company has also not disclosed key performance and technical details, including the aircraft’s range, payload capacity, communications architecture, terminal targeting methods or the extent of its autonomous capabilities.

“We’re really excited to kind of really up our stats on range and speed,” Craig Anders, an AEVEX representative, told TWZ at AUSA, describing Specter’s turbine engine. The aircraft is being designed to reach speeds in the sub-Mach range, he said.

Anders also elaborated on how Specter is intended to carry more than a conventional warhead. “This thing is going to have the ability to carry cameras and different types of non-kinetic effect payloads,” he said, describing it as a “multi-mission, multi-domain fighter.”

Despite that broader mission set, attrition remains a core part of the concept. Anders said the idea was for the aircraft to be attritable, with a relatively low price tag allowing commanders to send it farther into dangerous areas without putting more expensive capabilities at risk.

The distinction is important. Specter is not being presented simply as a disposable munition, nor as a high-end unmanned combat aircraft. Instead, AEVEX appears to be pursuing a middle ground: a jet-powered platform that can perform one-way attack missions but also support reconnaissance and provide other effects in high-threat areas, depending on its configuration. It is also meant to be built economically at scale.

AEVEX is developing Specter with Divergent, an engineering and manufacturing company known for its digital production processes and metal additive manufacturing. The partnership is intended to help make the aircraft easier to manufacture at scale while supporting changes to its design and configuration.

Anders said Divergent works with AEVEX engineers on the aircraft’s digital design and produces its fuselage. AEVEX is responsible for the internal systems, mission integration, flight characteristics and navigation science, he explained.

The manufacturing approach is a significant part of the program’s affordability ambitions. AEVEX says Divergent’s Digital Manufacturing and Production System (DAPS) is being used to support scalable production and manufacturability. However, the companies have not disclosed Specter’s projected unit cost or demonstrated that it can yet be produced at the volumes and prices the concept ultimately requires.

AEVEX is also drawing on its CompassX autonomy architecture and experience delivering thousands of autonomous systems. The company says Specter’s open interfaces and software-defined capabilities are intended to allow the platform to evolve as operational requirements change, rather than being optimized around one fixed mission.

Specter remains in development, with its first flight planned for December 2026. Anders said the initial flight would be a basic test, with early test aircraft fitted with landing gear so they can be recovered and reused for work on flight characteristics and handling. It isn’t clear if a truly reusable gear-equipped operational version is eyed for the future. Regardless, further testing could include tuning the aircraft’s dive profile.

The planned initial configuration uses a ground launch assisted by a rocket, or rocket-assisted takeoff (RATO), system. An air-launched version is also on the roadmap, Anders said, with that capability expected to follow in the relatively near term.

AEVEX is pursuing several potential military applications. Anders identified the U.S. Army’s Family of Affordable Mass Missiles (FAMM) effort as a primary focus, while noting that the service has its own high-speed requirements. He also said the company is looking at opportunities associated with Rapid Dragon and other programs.

In FY 2027, the US Air Force is requesting $55 Million in discretionary and $300 Million in mandatory (reconciliation) funds for the Family of Affordable Mass Missile (FAMM) to procure 1,000 All Up Rounds covering both the Palletized (FAMM-P) and Lugged (FAMM-L) variants. The… pic.twitter.com/EgVaefmJgY

— Air-Power | NatSec Ledger (@NatSecLedger) April 22, 2026

Those comments indicate the range of applications AEVEX hopes Specter could address, not that the aircraft has been selected for any of them. Its performance, cost and ability to meet specific requirements will need to be demonstrated as development and testing progress.

Specter’s intended combination of jet propulsion, attritability and modular payloads could offer an enticing balance. It is not being presented as a higher-end ‘exquisite’ cruise missile, but neither is it limited to carrying a single payload type. The challenge for AEVEX will be delivering enough speed, range and mission flexibility to make the aircraft useful across multiple roles without pushing its price beyond what operators can justify for procuring it in large numbers.

A stealthy weapon that is jet-powered like Specter, one that can be configured for various types of one-way missions, could bridge the gap between far more advanced and costly autonomous aircraft and cruise missiles and lower-end one-way attack drones. There have been other concepts that are similar to Specter, we are living in a low-cost cruise missile explosion of sorts, but the company’s unique pedigree of innovation and fast fielding in the one-way attack munition space could give Specter additional credence.

Contact the author: thomas@thewarzone.com

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