A pilot flying an F-22 Raptor fighter has issued commands to a YFQ-44A Fury Collaborative Combat Aircraft (CCA) drone in a first-of-its-kind test. This is an important development for the U.S. Air Force’s CCA program, as its F-22s are set to be the first aerial ‘quarterbacks’ for these uncrewed aircraft once they enter operational service.

The Air Force and Anduril, Fury’s prime contractor, announced the “airborne tactical-control demonstration” today, but it occurred sometime earlier this month. An Anduril spokesperson confirmed directly to TWZ that this was a first for an F-22 and a pre-production YFQ-44A. Last month, the company disclosed tests involving Fury flying in formation with F-35 fighters, but stressed that the latter were not yet issuing commands to the former in mid-air. A Fury drone also launched an AIM-120 Advanced Medium-Range Air-to-Air Missile (AMRAAM) for the first time earlier this year.

The Air Force has orders in now for production of FQ-44As, as well as General Atomics’ FQ-42A Vengeance drones, under the first phase, or Increment 1, of its CCA program. The service is still planning to acquire additional CCAs, which could be of entirely different types, through a follow-on Increment 2. The goal now is to have a fleet of at least 500 Increment 1 CCAs by 2032. The recent test is part of efforts to lay the groundwork for an initial tranche of CCAs to start entering operational service around the end of the decade.

“During the demonstration, an F-22 pilot served as an airborne ‘quarterback,’ issuing high-level tactical directives to a single YFQ-44A,” according to a press release from the Air Force. “The aircraft’s onboard autonomy software interpreted and executed those directives in real time, conducting dynamic flight maneuvers and simulated combat tasks.”

“The event brought together personnel from the 412th Test Wing, 422nd Test and Evaluation Squadron, 309th Software Engineering Group, Experimental Operations Unit, F-22 System Program Office and the CCA Software Autonomy and Teaming Branch,” according to the Air Force release.

The Experimental Operations Unit (EOU) mentioned here is based at Nellis Air Force Base in Nevada and has been leading efforts to pave the way for future Air Force CCA operations.

The “Fury and an F-22 both took off [from] Edwards AFB [Air Force Base in California] and joined up midair,” according to a separate release from Anduril. “While in flight, the Raptor pilot sent an updated mission plan to Fury using a tactical data link, commanding Fury through operationally-relevant maneuvers from the cockpit of the crewed quarterback.”

Neither the Air Force nor Anduril provided further details on how the F-22 was configured for this test. Past Air Force budget documents have mentioned the need to integrate “tablets, cables, and associated materials” onto the Raptor for this purpose. A single Raptor is also expected to be able to manage multiple CCA drones simultaneously.

The Raptor’s prime contractor, Lockheed Martin, has certainly been working with the Air Force to develop the relevant control architectures and user interfaces for that fighter, as well as the F-35. In terms of in-cockpit user interfaces for controlling drones, known work to date has centered largely on the use of touchscreen tablet-like devices, but this is understood to just be a starting point. Though tablet-based interfaces are a workable option, questions and criticisms about increased workload, especially for pilots in single-seat fighters, have been raised in the past.

It is also worth noting here that General Atomics announced a similar demonstration involving a Raptor and an MQ-20 Avenger back in November 2025. General Atomics has been using the MQ-20 as a CCA surrogate in various types of testing. What the plan might be now to demonstrate the F-22’s ability to control an FQ-42A in flight is unclear. General Atomics has previously released a picture of a Vengeance drone flying in formation with, though not being directly controlled by, Air Force fighters.

In addition, Fury and Vengeance are set to make their debut in a large-scale exercise before the end of the year. Bringing the CCAs to the next iteration of Exercise Emerald Flag will give the Air Force further opportunity to test them in a more operationally relevant context alongside crewed fighters.

“We have not yet done a LFE [large-force employment exercise] with these [CCAs], for real. The first one is going to be Emerald Flag. That’s in December,” Lt. Col. Lyndon “OTTO” Bartlett, the EOU’s Director of Operations, said during a panel at the Air & Space Forces Association’s (AFA) 2026 Air, Space & Cyber Conference in September, at which TWZ was in attendance. “That’ll be our first tip [sic] dip of the toe in an actual force integration.”

The EOU, working together with other Air Force elements and industry partners, still has to answer a host of other outstanding questions unrelated to tactical operations. CCAs will be deployed, launched, recovered, supported, and otherwise operated in ways that are distinct from their crewed counterparts, and for which new policies and procedures will need to be developed. Just making sure human pilots have trust in their uncrewed wingmen operating as expected will be critical, underscoring the specific importance of the demonstration disclosed today. All of this applies equally to the U.S. Marine Corps and U.S. Navy CCA programs, which are being run in very close coordination with the Air Force’s efforts.

When it comes to the recent test involving the F-22 and the YFQ-44A, “this achievement demonstrates what is possible when we are aligned with industry on a shared imperative: delivering capability to the warfighter at unprecedented speed,” Secretary of the Air Force Troy Meink said in a statement today. “We are driving urgency into every part of acquisition from rapid integration and flight learning to disciplined assessment, so we can turn promising technology into combat capability at the pace the threat demands.”

“This flight shows the power of crewed-uncrewed teaming and the advantage it provides our warfighters,” Air Force Chief of Staff Gen. Ken Wilsbach also said. “We must test often, learn fast, and give commanders what they need, when they need it.”

“The U.S. Air Force’s CCA program is the fastest moving, most mature CCA program anywhere in the world, and will be the first to field operational aircraft,” Mark Shushnar, Anduril’s Vice President of Autonomous Airpower, said as well. “Getting there demands that Anduril and the U.S. Air Force work together to prove out the capability, define the operational procedures, and build trust between operators and their semi-autonomous wingmen.”

With all this in mind, an F-22 issuing orders to a YFQ-44A in mid-air is an important new sign of what is on the horizon for the U.S. Air Force, though there is still work to be done.

Contact the author: joe@twz.com

The post F-22 Pilot Controls FQ-44 Fighter Drone From The Cockpit For The First Time appeared first on TWZ.

The Canadian Forces Snowbirds brought the Canadair CT-114 Tutor’s aerobatic career to a close on Friday, October 16, with a final home-base demonstration at 15 Wing Moose Jaw, Saskatchewan. The private event, which was livestreamed, honored the Canadian-built jet trainer that defined the team for more than half a century, as well as the aircrew and support personnel who kept the increasingly demanding aircraft flying.

This Friday, join us in saying farewell to the CT-114 Tutors.

Watch the last airshow on Friday, October 16, 2026 live on our Facebook page.

The live stream will begin at 2 p.m. (EDT). pic.twitter.com/I2Tr3buq5D

— Royal Canadian Air Force (@RCAF_ARC) October 13, 2026

While Friday’s performance marks the end of the Tutor’s aerobatic display career with the team, a Grey Cup flyover in Calgary on November 15 remains on the schedule.

Speaking to MooseJawToday on October 15, Snowbirds team lead Maj. Maciej “Match” Hatta described the Tutor’s final season as an emotional milestone for the squadron, as well as an opportunity to recognize the families and support personnel who sustain the team during its annual touring season.

Hatta has a long personal history with the aircraft. He flew with the Snowbirds from 2014 to 2017, subsequently worked on testing the Tutor’s avionics upgrades, and returned this year to lead the team through its final season with the jet. Despite having flown around 30 different aircraft as a test pilot, he has a particular attachment to the Tutor.

“This is still my favorite airplane to fly,” he said.

Hatta recalled flying a maintenance test sortie alone the previous day, enjoying the opportunity to look out over the wings without the near-constant radio communications involved in leading a formation display. He also noted the differences between individual aircraft in the fleet.

“They all have their own personality,” Hatta said. “Some of them howl a little more than others. Some get hotter inside. Some have poor air conditioning.”

Lt.-Col. Guillaume Paquet, commanding officer of No. 431 Air Demonstration Squadron, Royal Canadian Air Force (RCAF), said the final season has prompted strong reactions from spectators, many of whom have grown up watching the Snowbirds perform in the Tutor.

“The reality is we’ve been touring this country for 55 years, so everyone has a story, a childhood memory,” Paquet said.

Golden Hawks To Snowbirds

Canada’s military aerobatic tradition dates back to 1929, when the biplane Armstrong Whitworth Siskin helped establish the country’s formation-flying heritage. The modern era began in 1959 with the creation of the Golden Hawks, formed to mark the 50th anniversary of powered flight in Canada and the 35th anniversary of the RCAF. Flying gold-painted Canadair-built F-86 Sabre fighters, the team initially was intended to operate for a single season. Its popularity led to several more years of performances across Canada and the United States before it was disbanded after the 1963 season amid the high costs of maintaining it.

Canada’s centennial celebrations in 1967 brought a new demonstration team, the Golden Centennaires, which flew CT-114 Tutor jet trainers at 100 airshows across Canada and the United States. The Tutors would subsequently become the foundation of the Snowbirds. In 1969, Colonel O.B. Philp, newly appointed commander of No. 2 Canadian Forces Flying Training School at Moose Jaw, Saskatchewan, encouraged instructors to practice formation aerobatics using surplus Tutors left over from the Centennaires program. Initially presented as training and proficiency flying, the formations soon attracted public attention and gradually evolved into an established demonstration team.

The formation grew from four aircraft in 1970 to seven in 1971, when the Snowbirds name was adopted following a competition among schoolchildren. Two solo aircraft were added in 1972, establishing the team’s familiar nine-aircraft format. That year, its pilots were assigned to demonstration flying on a full-time basis. The team’s Tutors were modified to support solo operation from the right-hand seat and the demands of inverted flight during aerobatic displays. In 1974, the Tutors received their distinctive red, white, and blue paint scheme, and the team was authorized to perform a fully aerobatic display.

The Snowbirds subsequently achieved full squadron status as No. 431 Air Demonstration Squadron, becoming one of the most recognizable symbols of Canadian military aviation. Their officially stated mission was to demonstrate the professionalism, teamwork, and flying skills of the Canadian Armed Forces to audiences across North America.

However, the Tutor’s final years were marked by a series of serious accidents and renewed scrutiny of its aging systems.

In October 2019, a Snowbirds aircraft crashed in Georgia after an engine fuel-delivery failure, with the pilot surviving an ejection that was itself affected by a parachute malfunction. In May 2020, another Tutor crashed shortly after takeoff near Kamloops, British Columbia, killing the Snowbirds public affairs officer and seriously injuring the pilot; investigators determined that a bird strike had triggered an engine compressor stall. The fleet was temporarily grounded following that accident, with operations resuming under additional restrictions in August 2020.

A further accident at Fort St. John, British Columbia, in August 2022 prompted another fleet-wide operational pause after an engine failure during takeoff; investigators identified an improperly assembled oil filter as the cause. The aircraft returned to service the following month.

Subsequent safety measures included restrictions on certain aerobatic maneuvers and formations, minimum runway-length requirements, and limits on flying over water or performing some maneuvers outside gliding distance of a suitable landing surface.

At the same time, the persistent engineering challenges involving the Tutor’s airframe, engines, and ejection system were all factors in its retirement, with the RCAF concluding that further life-extension work was no longer practical.

Developing Canada’s Jet Trainer

Canadair Limited of Montreal began developing the CL-41A Tutor in the mid-1950s as a high-performance jet trainer to prepare RCAF pilots for the Canadair-built F-86 Sabre. The all-metal, low-wing, single-engine aircraft featured side-by-side seating and duplicate flight controls, allowing instructors to monitor students closely and take control when necessary. Two prototypes were built, with the first making its maiden flight on January 13, 1960, with Canadair test pilot Ian MacTavish at the controls.

Following an extensive testing and demonstration program, Canadian Minister of National Defence D.S. Harkness announced an order for 190 production aircraft on September 11, 1961. Deliveries began in 1963, with each aircraft reportedly costing approximately C$425,000 (around $394,000). Powered by a General Electric J85-CAN-40 turbojet built under licence by Orenda, the aircraft entered RCAF training service in late 1964 under the designation CT-114 Tutor.

As well as the RCAF, the Tutor found one other military operator in Malaysia. The Royal Malaysian Air Force received 20 examples designated the CL-41G Tebuan (meaning “Wasp” in the Malay language), which served between 1967 and 1986 in the ground-attack role.

The Tutor served as the RCAF’s primary jet trainer for decades, accumulating more than one million flight hours before its training role ended in 2000. It was replaced by the CT-156 Harvard II and CT-155 Hawk. The aircraft nevertheless remained in military service with the Snowbirds.

The Next Chapter

The Tutor’s retirement will bring an end to a long chapter in Canadian military aviation, but the Snowbirds are expected to continue flying with a new aircraft type. In May of this year, the Department of National Defence announced plans to replace the CT-114 with the CT-157 Siskin II, based on the Pilatus PC-21 turboprop trainer. The new demonstration capability will remain at 15 Wing Moose Jaw and is expected to become operational in the early 2030s.

Today the Government of Canada announced a commitment to purchase a future RCAF air demonstration capability. After more than six decades of service 2026 will mark the final season for the CT‑114 Tutor aircraft fleet which has represented Canada with dignity and pride since 1971. pic.twitter.com/iqRNE8d8H3

— Royal Canadian Air Force (@RCAF_ARC) May 19, 2026

The Siskin II has already been procured under Canada’s wider Future Aircrew Training (FAcT) program, for advanced fixed-wing and jet preparation. It is one of five aircraft types being procured under a 25-year, C$11.2-billion (approximately $7.9 billion) contract awarded to SkyAlyne in 2024. The other four types are the CT-102B Astra II (Grob G 120TP) for basic pilot training; CT-157 Siskin II for advanced fixed-wing and jet preparation; CT-145E Expeditor II (Beechcraft King Air 260) for multi-engine training; CT-153 Juno (Airbus H135) for helicopter training; and CT-142Q Citadel (De Havilland Canada Dash 8-400) for training air combat systems officers and airborne electronic sensor operators.

Paquet, the No. 431 Air Demonstration Squadron boss, said all Tutors are to be flown to IMP Aerospace in Trenton, Ontario, by March 31, 2027, where they will be disposed of. Some aircraft are expected to be preserved in museums or mounted on pedestals for public display, while others will be used as training aids for aircraft maintenance apprentices in Borden, Ontario.

“They’re not going to be flying. They’re not going to be flyable,” Paquet said.

Snowbirds team lead “Match” Hatta hopes to contribute his test-pilot experience to the transition, including testing the replacement aircraft and developing the new demonstration program.

“I would love to contribute to the team in terms of seeing them through the transition,” he said. “If I’m able to use my test background as well in helping that out, testing the new show, testing the new airplanes, and passing it on to a new boss down the road, then I’d love to do that.”

For Paquet, the immediate priority is completing the final display season without incident before turning to the next phase of the team’s history.

“I will definitely be emotional. The only thing I’m hoping for is that all the planes land safely, bring everybody home, and then we can check the box and say it was an extremely successful season. I brought everybody home, and we’ll move on to the next chapter.”

After more than six decades since its development began, the Tutor leaves behind a legacy spanning generations of military pilots and millions of spectators. Its final Snowbirds aerobatic display represents not simply the retirement of an aging aircraft, but the end of a long tradition in which the little jet trainer was one of the country’s most recognizable symbols of military flying and aerial performance.

Contact the author: thomas@thewarzone.com

The post Canada’s Snowbirds Say Farewell To The CT-114 Tutor Jet appeared first on TWZ.

The U.S. Navy has taken delivery of the first C-130J-30 Hercules airframe destined to become an E-130J Phoenix II, the service’s next-generation aircraft for maintaining communications with its nuclear ballistic submarines. The aircraft will now undergo extensive mission-systems integration before it can begin testing for the Take Charge and Move Out (TACAMO) mission.

The @USNavy's future TACAMO aircraft is here.

The C-130J-30 Super Hercules keeps strategic command and control connected when it matters most.

Four engines. Long endurance. Proven reliability. pic.twitter.com/huX0qlzKkm

— Lockheed Martin (@LockheedMartin) October 16, 2026

Lockheed Martin handed over the newly built aircraft at its facility in Marietta, Georgia, on October 15. The delivery marks the start of the transition from the Navy’s aging E-6B Mercury fleet to the turboprop-powered E-130J, which is intended to provide a survivable communications link between national leadership and U.S. Navy nuclear ballistic missile submarines, including the ability to send them orders to launch strikes while they are submerged.

“Today’s delivery from the historic Marietta line represents far more than a new airframe; it marks the foundation of our future strategic deterrence posture,” Capt. Roger Davis, program manager for the Navy’s Airborne Strategic Command, Control, and Communications program office (PMA-271), said in a statement.

“Through our close partnership with Lockheed Martin and our industry team, we are ensuring our nation maintains an unshakeable communications lifeline to our ballistic missile submarine fleet.”

The aircraft is the first of three C-130J-30s initially procured by the Navy in September 2024. It will be transferred to Northrop Grumman, the E-130J program’s prime contractor and mission-systems integrator, for conversion. Collins Aerospace is providing the very low frequency (VLF) communications system, a key component of the TACAMO mission.

TACAMO aircraft provide a means for the president, secretary of defense, and U.S. Strategic Command to communicate with nuclear forces, including submarines submerged at sea. The mission is designed to preserve the ability to transmit emergency action messages even if conventional communications infrastructure is disrupted or destroyed.

The E-6B accomplishes this in part through a long, trailing wire antenna that enables VLF transmissions to submerged submarines. The E-130J will receive a comparable system as part of its conversion.

Hardening against the effects of electromagnetic pulse (EMP), which occurs during the detonation of nuclear warheads, is another key requirement for these planes.

The Navy plans to acquire 31 E-130Js, nearly doubling the 16 E-6Bs currently in service. That total includes six developmental aircraft and 25 production examples, although it remains unclear how many of the developmental aircraft will ultimately be available for operational use.

The larger planned fleet should provide additional aircraft to support training, maintenance, and operational demands. However, the transition also brings technical challenges. The Government Accountability Office (GAO) has previously warned that integrating the specialized mission equipment into the smaller C-130J-30 airframe could affect operational availability and create additional engineering and manufacturing difficulties.

In the past, TWZ has discussed the potential operational readiness and other trade-offs that could come from selecting a C-130-based platform to replace the E-6B in the TACAMO role. As we wrote previously:

“It’s certainly worth pointing out that the E-6Bs, conversions of what were some of the last and most modern 707 airliners built, were larger and higher performance platforms than the EC-130Qs. The C-130J-30 is certainly a more capable aircraft than the C-130H on which the EC-130Q was based, but it won’t have the base speed and altitude capabilities of an airliner-sized multi-engine jet. Compared to the Mercuries, any TACAMO-configured C-130J-30 would not be able to get on station as quickly, or fly as high, limiting its ability to get above bad weather or establish a better line of sight for its communications systems.”

“At the same time, as the Navy itself has noted, the C-130J-30 platform does immediately open up the ability to use a larger number of air bases, airports, and airfields, including austere ones that the E-6B cannot operate from. This could be very useful in a contingency scenario where an opponent may have destroyed or otherwise rendered unusable many well-established bases, as well as larger secondary dispersal sites, which include large commercial airports. Being able to fly from smaller, tertiary locations could help to ensure that the TACAMO mission continues without significant disruption under such circumstances. This is also true during peacetime, as targeting the TACAMOs on the ground would be much harder if they could easily operate from and sit alert at a much larger number of airports.”

“A C-130J-30 configured for the TACAMO mission would certainly have a mid-air refueling capability, and the Hercules is already a platform that has demonstrated the ability to loiter over particular areas for long periods of time. Unlike the Boeing 707, the C-130J is still in production, as well, meaning that TACAMO aircraft based on this plane would be inherently easier to maintain and support logistically, and may also be easier to convert to this specialized configuration to begin with. As time goes on, the J looks set to increasingly become the default base C-130 model across the U.S. military, as well. Compared to the long out-of-production 707-based E-6, support for the C-130J is already distributed across the U.S. and beyond. Training C-130J crews is even an easier proposition.”

The E-130J also represents a return to the Hercules family for the Navy’s TACAMO mission. The EC-130Q performed the role from 1963 to 1993, before the E-6A Mercury took over. The E-6B subsequently added an airborne command post mission known as Looking Glass, supporting U.S. strategic forces beyond the submarine communications role.

The Navy’s current plan is for the E-130J to assume the TACAMO mission, while the Air Force pursues a separate effort to replace the Looking Glass airborne command post capability.

Following its delivery, the first E-130J airframe will enter mission-systems modification, ground testing, and developmental flight testing. The aircraft is not yet an operational TACAMO platform, and further integration and testing will be required before the Navy can begin fielding the new fleet.

The transition is intended to preserve one of the most critical links in the U.S. nuclear command, control, and communications architecture as the E-6B fleet becomes increasingly difficult to sustain.

Contact the author: thomas@thewarzone.com

The post First C-130J For Navy’s New E-130J Phoenix II Ballistic Submarine Communications Fleet Delivered appeared first on TWZ.

America’s adoption of long-range one-way attack munitions like the Low-Cost Uncrewed Combat Attack System (LUCAS) is evolving quickly. Training on how to fold these relatively low-cost, but potentially highly destructive systems into a joint force playbook for targeting adversaries on land and at sea, from the Pacific to Europe, and anywhere in between, continues.

How exactly LUCAS drones, and other types to come, will be used in future fights globally was highlighted during a panel at the Association of the U.S. Army’s (AUSA) main annual symposium earlier this week, at which TWZ was in attendance. The discussion was centered on how Army training is changing to meet the extreme combat demands of the future.

The U.S. military first announced it had begun fielding LUCAS, which was reverse-engineered from the Iranian-designed Shahed-136, in December 2025. This came just months after TWZ laid out a detailed case for why the U.S. military should start acquiring Shahed-136 clones in large volumes. LUCAS made its official combat debut in the opening phases of major combat operations against Iran earlier this year. The pusher-propeller, combustion-engine-powered kamikaze drones, which are employed from static launchers that can be positioned on the ground or installed on ships, and with the help of a small rocket booster, were subsequently praised as “indispensable” by America’s top commander in the Middle East.

With all that in mind, “long-range strike drones like LUCAS, how is that fitting into your planning and training?” our Howard Altman asked the panelists at AUSA.

“We’ve taken our Bayonet Academy, as we call it, a training area at JBLM [Joint Base Lewis-McChord in Washington State], and have started incorporating the employment of long-range one-way attack. Like, how do I maintain it? How do I employ it? How does that then get orchestrated in order to achieve that effect?” Maj. Gen. Bernard Harrington, head of the 7th Infantry Division, responded. “So we see that playing a key role in order to be able to achieve that effect at mass, … [and] in an affordable manner, while also being able potentially to preserve something that’s more exquisite for something that requires an exquisite munition.”

Earlier this year, the Army brought the 7th Infantry and the 1st Multi-Domain Task Force together under the umbrella of what it now calls the Multi-Domain Command-Pacific (MDC-PAC). Maj. Gen. Harrington is also now the commander of MDC-PAC, and has talked previously about how he sees uncrewed capabilities as critical to overwhelming adversaries in future conflicts. The service’s MDTFs, of which there are now four, have been at the leading edge of fielding new long-range strike and other advanced capabilities.

In his response to Altman’s question, Harrington elaborated more on how he sees long-range one-way attack munitions like LUCAS factoring specifically into future fights in the Pacific, such as one against China. The Chinese People’s Liberation Army (PLA) has already established extensive anti-access and area denial (A2/AD) bubbles in the Western Pacific and is continuing to expand on that strategy.

“So as we start modeling out what it looks like to be able to penetrate a portion of the anti-access/area denial network in support of the joint task force in the PACOM [U.S. Pacific Command] area of operations, we started looking at, well, how do I bend – how do I achieve mass at a cost curve?” the 7th Infantry and MDC-PAC commander explained. “What effect am I really trying to achieve on a system in order to provide that window of opportunity for that joint force commander?”

“So maybe I don’t necessarily need to sink a ship, but if I take out certain systems on that vessel, well then it creates this temporal window opportunity,” he continued. “Then that joint force commander can surge in that carrier strike group or bomber task force.”

What the general is describing here is typically referred to as a mission kill. For years now, TWZ has repeatedly highlighted how long-range one-way attack drones and loitering munitions could be used in exactly this way against even larger warships. Damaging or destroying radars, communications antennas, and other subsystems could severely degrade a ship’s combat effectiveness and increase its vulnerability to follow-on attacks. The time and effort required for repairs could keep it sidelined for a protracted period of time.

“So when we started looking at that, we saw great value. That maybe I don’t have to use specifically or unmask an exquisite system to achieve that effect,” Harrington added. “If I can achieve [the] effect of mass utilizing lower cost systems, hey, maybe that will get me there. So we modeled that, and what we saw was, particularly with our unmanned surface vessels [USV], long-range one-way attack, long-range launch effects, the ability to synchronize and mass that could potentially get us to achieve that effect.”

As with long-range one-way attack drones, the adoption of kamikaze USVs by the U.S. military is evolving rapidly. America’s first use of this capability in real combat also came against Iran in July.

Yesterday, using multiple one-way attack surface drones, CENTCOM forces successfully struck a submarine and ship maintenance facility in Iran. Three Corsair unmanned surface vessels hit the port at Bandar Abbas Naval Base, marking the first time American forces have employed sea… pic.twitter.com/bOM2kmgRxz

— U.S. Central Command (@CENTCOM) July 13, 2026

The term “launch effects” that Harrington used here is a catch-all term the U.S. military now routinely applies to a diverse array of uncrewed aerial systems designed to be launched from other platforms in the air, on the ground, and/or at sea. This includes loitering munitions, but also designs configured for surveillance and reconnaissance, electronic warfare, signal relay, and other tasks. The lines separating long-range one-way attack drones, launched effects, and traditional cruise missiles and decoys are in many cases now very blurry.

None of this is limited to the Pacific region or the Middle East, either.

“So, in terms of launch effects, I think you mentioned LUCAS. Covenant’s out there. There’s other systems that are out there,” Brig. Gen. Steven Carpenter, head of Multi-Domain Command-Europe (MDC-E), another one of the panelists, also said in direct response to Howard Altman’s question. “In Europe, we like that, more than accepting risk in an area, maybe we’re disintegrating an anti-access/area denial bubble in the center, and then way up north, we’re going to go ahead and accept some risk there. We like to use those systems to create counter-fire parity, long-range fires parity with an adversary.”

Similar to the establishment of MDC-PAC, MDC-E was formed last year by blending together the 56th Artillery Command and the 2nd MDTF, both of which are forward-deployed in Germany.

The “Covenant” mentioned by Carpenter is a U.S.-Israeli company that has been developing a long-range strike weapon system called Anthem. It was just confirmed in September that the U.S. Army has been actively engaged in testing of Anthem. This includes a live-fire demonstration in Morocco earlier this year. You can read more about Anthem and the current plans for it here.

“The reason we like those types of systems is because they’re EMI [electromagnetic interference] resilient, they’re longer range, and they’re higher yield, so they can go ahead and destroy like SS-26 systems, SS-21 systems,” the MDC-E commander added.

SS-26 Stone and SS-21 Scarab are the NATO reporting names for Russia’s Iskander-M and the older Soviet-designed OTR-21 Tochka short-range ballistic missiles, respectively. They are both fired from road-mobile launchers. Russia and Ukraine have employed Tochka in the course of their ongoing conflict, though their role on both sides has steadily diminished amid shrinking inventories. Tochka is also increasingly limited in service elsewhere globally. Iskander-M is a much more capable design that has factored heavily into U.S. military planning in Europe for years now. The U.S. military has previously acknowledged that war in Ukraine has led to improvements to that missile that make it even more dangerous and difficult to intercept.

Long-range one-way attack munitions like LUCAS are well suited to striking surface-to-surface and surface-to-air missile launchers, along with other high-value and time-sensitive targets, as TWZ highlights regularly. It’s also worth noting that Iran’s Shahed-136, specifically, traces its roots back to pioneering Israeli developments in munitions of this kind, where the focus initially was explicitly on finding new avenues to neutralize hostile air defenses. Iran has shown Shahed-136s and other related designs being employed in exactly this way in large-scale exercises in the past, as seen in the video below.

More recently, Iranian forces demonstrated just how effective these capabilities could be in a real-world context in retaliatory attacks on prized air defense radars on the opposite side of the Persian Gulf after the United States and Israel launched their open waves of strikes back in February. TWZ previously explored the far-reaching ramifications of this in a detailed feature that you can find here.

Overall, as we’ve previously written:

“When it comes to this class of drone, speed and advanced guidance concepts do not define its utility. Range and cost do. Survivability comes in numbers, and due to their smaller size, use of composite materials, and small internal combustion engine, as well as their slow speed. These attributes, along with their low-altitude flight profile, mean they possess a reduced signature and general level of detectability that can be a challenge for traditionally configured ground-based radars. Despite their smaller signature, the fact that they are still somewhat vulnerable to interception is actually a positive, but we will get to that in a moment.”

“Above all else, the Shahed-136 and other long-range one-way attack drones exist to put a relevantly-sized warhead on a target far from their launch position at the lowest possible cost. It was previously estimated that the Russian Shahed-136 variant costs around $50,000 per copy, with some estimates being far lower. This cost has also likely declined significantly since Russia has mastered the design and drastically ramped up serial production. By comparison, traditional cruise missiles with similar range have costs in the millions of dollars per round, so the price differential is very dramatic. The Shaheds are also just far easier to build and can be produced in much less time than a typical cruise missile.”

The ‘mass’ afforded by LUCAS and other long-range kamikaze drones also imposes problematic cost calculations for opponents when it comes to the air defense equation, and offers a way to rapidly drain an opponent’s stocks of vital interceptors. These are realities the U.S. military is currently grappling with after expending thousands of anti-air interceptors in conflict with Iran and in other crises in the Middle East in recent years, as well as supporting allies and partners, such as Ukraine.

LUCAS, specifically, is already in line to become even more capable through the introduction of a swarming capability, made possible by the Hivemind autonomy software package from Shield AI. As we’ve explained before:

“Using the software, multiple LUCAS drones will be able to share tasks and maneuver cooperatively, making saturation attacks even more effective. As well as the drones dynamically rerouting, avoiding air defenses, and otherwise adapting to changing battlefield conditions, an AI pilot makes it easier for missions to continue despite hostile jamming or loss of datalink connectivity. Indeed, using AI, drone swarms can maintain near-perfect combat efficiency even if it loses members. Drones can be configured with all different payloads, with the swarm’s makeup tailored to each mission, and the AI system can maximize their collective effectiveness at all times.”

The U.S. Army still has many questions to answer about how it will field LUCAS and other long-range one-way-attack drones on a more widespread basis, as well as train personnel to employ them. As evidenced by the establishment of the MDTFs, and now the MDC-PAC and MDC-E formations, the underlying force structure that will go along with all of this is still evolving, as well.

The remarks from Maj. Gen. Bernard Harrington and Brig. Gen. Steven Carpenter at AUSA this week show senior Army leaders are working hard now to lay the groundwork to answer these questions. A clear vision for how LUCAS and similar weapons will be employed in future fights against land-based and maritime threats is taking shape already.

Contact the author: joe@twz.com

The post The Army’s Plan For Employing LUCAS Kamikaze Drones Against Its Adversaries appeared first on TWZ.

Airbus recently put the demonstrator for its MQ-72C drone helicopter through the paces for the U.S. Army. The MQ-72C has been in development for several years now for a U.S. Marine Corps competition seeking a new uncrewed cargo-carrying Aerial Logistics Connector (ALC). The Marines see uncrewed logistics ‘connectors’ as key to future expeditionary and distributed operations, and a similar Army requirement could be on the horizon, especially to support long-range air assaults.

Jaysen Yochim, Senior Director for the ALC program at Airbus, talked about the demonstration for the Army with our Howard Altman at the Association of the U.S. Army’s (AUSA) main annual convention on Monday. Airbus is currently teamed with L3Harris Technologies, Shield AI, and Parry Labs on development of this drone helicopter for the Marines, as you can learn more about here.

The current iteration of the MQ-72C is based on the crewed UH-72B Lakota, which is in turn a variant of Airbus’ H145 twin-engine light helicopter. The Army operates crewed UH-72s today, but only in non-combat roles, including counter-drug and border patrol missions, and almost exclusively within the borders of the United States.

The MQ-72C demonstration for the Army, which Airbus self-funded, took place last week at Huntsville Executive Airport just outside of Huntsville, Alabama. The service has a major presence in the Huntsville area, which is focused heavily on supporting aviation and missile developments. As of April of this year, Airbus and its partners had already conducted four rounds of autonomous flight testing of the initial demonstrator version of this design, which is not in a fully uncrewed configuration.

“We did a demonstration for the Army down in Huntsville, really to show all the capabilities that we’ve been able to develop so far on the Marine Corps-funded program,” Yochim said. “We had a total of five demonstration flights that we did down there, showing everything from the autonomous capability of the aircraft in a hover.”

This included “complex hovering patterns, both step turns and fly-through turns, similar to what you’d see on an airfield, to just show how it can be integrated onto an airfield inside of the existing routing structure and everything that exists on an airfield,” he continued. “We did multiple traffic patterns to demonstrate just a normal traffic pattern, like a normal day would be, but also traffic patterns or a flight with a no-fly zone popping up in the middle of the flight.”

The video below shows previous flight testing of the MQ-72C demonstrator.

In that latter instance, the MQ-72C had to “autonomously make decisions” about how it was “going to route itself around the no-fly zones” once they popped up, he added. The human operator did provide the initial flight plan. There was also a pilot on board during the autonomous flight demonstrations, but only as an added safety margin, and they “never had to take control of the aircraft once,” according to Yochim.

Though the demonstrator now has provisions for a pilot, the intention is for the MQ-72C to eventually operate in a completely uncrewed mode. The current version of the design has two LIDAR sensors, facing front and back, as well as an electro-optical camera at the nose end, to help with navigation and otherwise provide situational awareness while operating in the uncrewed mode.

Those sensors feed “imagery into the flight computer with HiveMind that’s interpreting that through its perception systems to make decisions on the go,” Yochim explained. HiveMind is an autonomy software package from Shield AI, which is in use on a growing number of other uncrewed platforms, as you can read more about here.

Yochim also talked about work that has already been done to start laying the groundwork for controlling the MQ-72C in the fully uncrewed mode. Parry Labs has been leading ground control station work.

“Over the summer is really where now the aircraft, rather than having a pilot inside the aircraft, or sorry, an autonomous operator inside the aircraft, using a gaming computer to tell the aircraft what to do, now the aircraft is receiving commands from a ground control station,” he told us. “That is that human in the loop, sending commands to the aircraft over Starlink, so that it has beyond line-of-sight. We’ve had flights that have been autonomously commanded from up to 70 miles away. All of that is stuff that’s happened in the last year. We also have where the aircraft can be commanded from both a ground control station like this and also with the Samsung tablet.”

SpaceX’s Starlink space-based network and its more secure, government-focused cousin, Starshield, are in increasingly widespread use across the U.S. military for communications and other purposes. At present, Starlink also dominates the commercial market for these services globally. Starlink and Starshield offer highly persistent and robust connectivity that is ideal for uncrewed aircraft command and control operations.

The current MQ-72C demonstrator also lacks certain features that are expected to be found on the final configuration. Plans for a set of clamshell doors at the nose notably still have yet to be realized. The UH-72 design already features clamshell doors at the rear of the fuselage, as seen below. The end goal is for the uncrewed version to have an open pass-through main cabin, offering major advantages for loading and unloading cargo, and doing so rapidly.

The nose door arrangement has been “designed. It’s been 3D rendered. It’s gone through some testing on that end, but not flight testing,” Airbus’ Yochim told us. “The flight testing, wind tunnel testing, things like that, take time, and it’s just not been the priority to get there with getting the aircraft ready.”

Yochim said that Airbus is now looking toward the 2029-2030 timeframe for integrating the nose doors. This is tied, in part, to the Marine Corps’ ALC program, where delayed funding has shifted the schedule to the right. On that front, the Marine Corps is aiming for demonstration of this capability in an operationally relevant context next year. The Airbus-led team is also not the only one under contract for that program, with Near Earth Autonomy and Honeywell also working on a design based on the Leonardo AW139 helicopter. The expectation is that the Marines will eventually pick a single ALC design to actually acquire.

In the meantime, Airbus is clearly eyeing other opportunities, including with the U.S. Army. The company’s main arm in Europe is also now pitching a functionally identical U145 drone helicopter based on the current generation H145 design.

At @ILA_Berlin, we introduce the Airbus U145: an uncrewed, fully autonomous variant of the H145. Optimised for cargo with no cockpit, an integrated nose door, and full autonomy, its first flight is set for late 2026. https://t.co/MbodUxYxyI pic.twitter.com/2EnMXzog6c

— Airbus Helicopters (@AirbusHeli) June 8, 2026

Airbus did the “demonstration to just show the Army the capabilities that we’ve been developing with the Marine Corps,” Yochim told us. “So the Marine Corps has been funding the program up to now, and so the message we are giving the Army is this is how far your sister unit [sic; service] has been able to get us with the funding that we’ve had. It’s already product that’s out there. It’s already product that’s working.”

As mentioned, the Marines see ALC as part of a larger family of uncrewed logistics ‘connectors,’ in the air and on the surface, which will be critical to supporting expeditionary and distributed operations involving units spread across far-flung forward locations. The service sees this as particularly central to an island-hopping campaign scenario in the context of a larger potential high-end fight with China in the Pacific, where traditional logistics chains will be top targets. The conflict with Iran has only underscored how disruptive those threats can be.

The Army is facing many of the same kinds of future operational scenarios, especially when it comes to supporting future airmobile operations. The service is already expecting air assaults to take place over far greater distances in the future thanks to the introduction of the MV-75A tiltrotor. Those units will need to be supported once they arrive at their objectives, which could be heavily contested.

“We did several [air assaults] over the last few years directly from Fort Campbell to the Joint Readiness Training Center, which is 500 miles, give or take. The [Marine Corps’ MV-22] Osprey can do that very fast and in one leap,” Army Maj. Gen. David Gardner, head of the 101st Airborne Division, told our sister site Task & Purpose at AUSA. “Our current helicopters, you’ve got to make some fuel and re-arming stops along the way, and the distance isn’t there. But now that helped us think through as a division how we were going to command and control something that moved, expanded our battlefield, so to speak, twice as far, three times, four times as far, and twice as fast.”

The 101st is the Army’s premier air assault formation and is set to be the first to fly MV-75As operationally.

“We can put some things inside the helicopter, and we can put some things under a helicopter with a sling load. We’re not going to sling load something moving 250-ish knots for 500 miles. We’re not going to hang Humvees under that,” Gardner also told Task & Purpose. “We learned some things about how we need to get our equipment to the battlefield, how we need to get our sustainment to the battlefield at those distances, how we might need to rely on autonomous logistics delivery systems.”

It should be stressed that the market for semi-autonomous aerial logistics support is heating up, and that the MQ-72C is not the only option to meet such a requirement. As noted, there is another competitor in the running just for the Marines’ ALC effort, the AW139-based offering from Near Earth Autonomy and Honeywell.

Last year, Sikorsky, now a subsidiary of Lockheed Martin, revealed that it was working on a fully uncrewed version of the Black Hawk helicopter that also features a clamshell nose. Sikorsky has also been working with Robinson Unmanned on a pilotless version of the smaller R66 helicopter that again features clamshell doors at the front of the fuselage. Bell, together with Near Earth Autonomy, is developing an uncrewed cargo-carrying version of its Model 505 Jet Ranger X, as well. The drone versions of the R66 and Jet Ranger X are aimed primarily at another Marine Corps ‘connector’ program called the Medium Aerial Resupply Vehicle-Expeditionary Logistics (MARV-EL).

As mentioned, the Army does already operate crewed UH-72s, but it also flies Black Hawks. The service is also expanding its use of contractor-operated R66s for pilot training.

The Army does not appear to have formalized any requirement for a cargo-carrying drone helicopter yet. At the same time, the comments from Maj. Gen. Gardner certainly suggest one may be emerging now.

There was at least enough interest within the Army already to accept Airbus’ offer of a demonstration of its MQ-72C last week.

Contact the author: joe@twz.com

The post MQ-72C Cargo Helicopter Drone Capabilities Demonstrated For U.S. Army appeared first on TWZ.

A plan for a new military weapons “super range” test center in Montana announced by President Donald Trump Wednesday night seeks to address a growing concern about the need for more such facilities. As the U.S. races to develop autonomous capabilities, hypersonic munitions, laser and directed energy weapons and improved electronic warfare systems, a limiting factor has been the lack of suitable locations for testing.

While the U.S. military has a wide array of installations where it can test these systems, it’s still not enough. In addition to the massive increase in weapons development and the need for more realistic training, the changing nature of war is outstripping the capacity of existing facilities as future kill webs will extend thousands of miles, not hundreds. There are only so many places with enough space to try out these systems even to a limited degree without butting up against statutes and regulations while also avoiding interference with civilian air traffic and communications, all in an environment remote enough to avoid prying eyes. The need for more and bigger testing grounds is an issue TWZ has long raised.

In addition to the backdrop of the increase in a wide range of weapons testing, much of it aimed at China, Trump’s super range announcement was delivered as the Pentagon and services are specifically creating commands dedicated to autonomous weapons. On Tuesday, during the annual Association of the U.S. Army (AUSA) conference in Washington, D.C., attended by TWZ, the acting Army Secretary unveiled one such new command, which we will discuss in greater detail later in this story.

“I’m pleased to inform ​you and announce that right here in Montana, the Department of War is ⁠going ⁠to establish a new ⁠”super range” ​for testing advanced weapons and technologies, technologies including potential autonomous weapons, space, and electronic ​warfare technology, supersonics and ⁠hypersonics,” Trump said during a campaign rally in Kalispell. “Montana will help ensure the American military always reigns supreme.”

.@POTUS: "I'm pleased to inform you and announce that right here in Montana, the @DeptofWar is going to establish a new Super Range for testing advanced weapons and technologies, including potential autonomous weapons, space and electronic warfare technology, supersonics, and… pic.twitter.com/W4YqKfq8X4

— Rapid Response 47 (@RapidResponse47) October 15, 2026

Trump provided no additional details about where this new “super range” will be located, when it will come online, exactly which systems will be tested or how much it will cost.

Thursday morning, the office of U.S. Sen. Tim Sheehy noted that he has been “a strong advocate for building an advanced training range in Montana, securing $10 million for a feasibility study in the FY27 National Defense Authorization Act that passed the Senate Armed Services Committee earlier this year.”

“The 21st-century battlefield is being redefined by new weapons and evolving technical frontiers that require a novel approach to how America will resource its warfighting capabilities,” the senator said in a statement. “Contested spectrum, electronic warfare, hypersonics, space capabilities and enhanced targeting require a new class of testing and evaluation facilities for our military. The U.S. faces a clear choice: adapt and expand our development infrastructure to the realities of modern warfare, or risk falling behind adversaries who iterate faster.”

The Montana Republican highlighted the value of his state’s huge swaths of undeveloped land for this effort.

“By combining our state’s vast landscapes, innovative spirit, and proud tradition of military service, we are the Last Best Place to ensure America’s fighting men and women have the technological edge they need to dominate the battlefield and win the wars of tomorrow,” he explained.

Like Trump, Sheehy offered no specifics about exactly where in Montana the “super range” will be located, when it will come online or how much it will cost. We have reached out to the White House, Sheehy and the Pentagon for more details. The Pentagon deferred us to the White House, which referred us back to the Pentagon. We also contacted the office of U.S. Sen. Steve Daines and Gov. Greg Gianforte.

There are already a number of facilities in Montana conducting the kind of military weapons testing described by Trump. One that closely matches what would be needed from such a location is the Montana Spaceport & Test Range and the affiliated Limestone Hills Innovation & Test Campus. A public-private aerospace and defense initiative, it already conducts testing for next-generation space vehicles, hypersonic, supersonic and ballistic weapons, drones and counter-drone systems and electronic warfare equipment.

Another potential site could be an expansion of the Big Sky Autonomous Systems Range (BSASR). Located near Bozeman, it is “the Lobo Institute’s primary training and testing facility for U.S. and allied military, federal, and partner organizations.” Operated under the Lobo Tactical division, BSASR is “a 6,000-acre, fully fenced complex purpose-built for advanced unmanned aerial systems operations, full-spectrum live fire, mounted and dismounted mobility, and full mission profile exercises grounded in the latest tactics, techniques, and procedures from active conflict zones,” according to the Lobo Institute. “The range pairs realistic terrain with the regulatory, infrastructure, and instructor depth required to train against the operational realities of today’s and tomorrow’s battlefields — and it does so in a remote, controlled environment where units can push hard while keeping risk to acceptable levels.”

We have reached out to both facilities for more details.

The new super range could also leverage existing range space on the ground and in the air. There is also the large Hays Military Operations Area (MOA) which could be expanded for this new test range effort. MOAs are blocks of airspace designated for military training. Malmstrom Air Force Base and its ICBM fields could also potentially be utilized. Overall, it’s possible a number of existing range areas could be interconnected, both digitally and via airspace corridors, to create a larger complex, as well.

The Pentagon has long realized the need to increase the areas where it can test out these systems, especially to evaluate them under combat-like conditions.

“The current open-air range space should be increased and better integrated to support system-of-systems assessments of air, land, and sea combat systems with capability for emerging long-range fires, hypersonic missiles, EMS warfare, unmanned systems, nuclear effects, and directed energy (DE) weapons,” the Pentagon’s Director of Operational Test & Evaluation (DOT&E) stated in a report last year. “The DoW needs to invest in and coordinate expanding and connecting the airspace available to the open-air ranges enabling testing and training of advanced capabilities.”

The current facilities are inadequate, DOT&E further explained.

“Threat systems and our own capabilities far exceed the current available air space on the open-air ranges,” according to the report. “The ranges need support and assistance to coordinate additional airspace and corridors with the FAA and industry. Expanding and connecting range air space is necessary to facilitate testing and training critical long-range capabilities that our warfighters need and to replicate the threats they will face.”

In addition, the report states that “to test missiles with longer ranges and gather data to support simulation validation, including for hypersonic missiles, the DoW should invest in long-range, overland missile flight test corridors with land-based impact areas and mobile hypersonic-specific range instrumentation to produce the required lethality data against threat-representative targets for terminal area assessments.”

The Defense Department had largely been conducting the testing of hypersonic weapons — those that can reach speeds of Mach 5 and above — at sea given the need for the long ranges for evaluation. Still, even that was limited. The Pentagon restricted the number and location of hypersonic tests it carried out each year because of the aging fleet of ships it used as its primary data collection assets to track the capabilities while in flight.

Retired Block 20 and Block 30 RQ-4 Global Hawks belonging to the U.S. Air Force, reconfigured as RangeHawks under the SkyRange hypersonic weapon testing infrastructure program, would help address some of those restrictions. You can read more about that in our story here.

However, if testing moves to an overland phase, the need for expanded air corridors could grow increasingly critical. Last year, the Pentagon’s Test Resource Management Center (TRMC) identified three candidate locations to perform those tests, one over Alaska, another at White Sands Missile Range in New Mexico and a third in Australia, Defense News reported at the time.

Hypersonic testing in Australia is already underway. Earlier this month, we broke the news that the U.S. Air Force’s scramjet-powered Hypersonic Attack Cruise Missile (HACM) had finally reached the flight test phase, with at least one “release” having been carried out so far over a range in Australia.

The military is also looking to expand where it can test electronic warfare systems to help ease the bottleneck at White Sands and a few other locations. Such testing is limited due to U.S. restrictions on jamming, which can interfere with civilian systems.

Before he resigned after tensions with Defense Secretary Pete Hegseth, former Army Secretary Dan Driscoll in June said the service had plans to set up at least two domestic ranges that mimic realistic conditions on Ukraine’s battlefields, where the electromagnetic spectrum is a highly contested domain. This spectrum would be even more heavily disputed in a fight with China.

“You can have a kind of electronic warfare and all of the contested environment created, and you can have drone manufacturers and counter-drone tool-builders engaging together,” Driscoll told reporters. “Then, we also want soldiers to be able to go there, so that they can strengthen their skills and work hand-in-hand with developers.”

Driscoll said there are already places in the U.S. where the Army can test safely, and separately, the service is looking at a global range outside the U.S. to do “much more aggressive testing,” including with hypersonics. When asked, Driscoll declined to say where these ranges would be until planning is farther along. 

“At least some of the current counter-drone training for soldiers, like one CBS News saw in April, does not include electronic jamming — in part because the U.S. restricts jamming domestically,” CBS reported.

In August, the Army opened premier test ranges for the use of private industry to conduct internal research and development. Additionally, the service co-hosted a Denied, Disrupted, Intermittent and Limited testing environment, at Camp Grayling in September, and there are three more scheduled for Fiscal Year 2027, an Army spokesperson told us.

Trump’s news about the “super range” was delivered as the Pentagon and the services are working to ramp up the development and production of a range of autonomous systems.

Last month, as we noted earlier in this story, the Pentagon announced plans for a new functional combatant command, very broadly akin to U.S. Special Operations Command (SOCOM) or U.S. Space Command (SPACECOM), but for operational activities involving autonomous and robotic capabilities. In addition, Hegseth also announced new initiatives to help further accelerate the fielding of uncrewed systems in the air, at sea, and on land, as well as to explore future warfighting challenges. All of this builds on previous and long-overdue efforts to prioritize the fielding of various tiers of drones, as well as artificial intelligence (AI) and other emerging technologies, across domains, but there are questions about how these new efforts will translate into tangible developments.

.@SECWAR “Today, at my direction—we are announcing the creation of Autonomous Warfare Command, or AutoWarCom:

A new 4-star combatant command—with service-like authorities—built to scale autonomous and robotic capabilities across the Joint Force in the fastest peacetime shift in… pic.twitter.com/kYWBxy6Dij

— DOW Rapid Response (@DOWResponse) September 30, 2026

On Tuesday, acting Army Secretary Adam Telle announced the creation of the service’s Futures and Autonomous Systems Command (FASCOM).

“This is our way to make sure that we take all of the great work that’s been happening with the resources that we have today, and we centralize it,” Telle said. “We’re pushing autonomy down into our units, but when it comes to having and making sure that the left hand in the Army knows what the right hand of the Army is doing, this happens at FASCOM; then FASCOM feeds up into AutoWarCom.”

Telle added that FASCOM “will work with the other services to create scale for purchasing power and share best practices on autonomy.”

“It is too soon to speculate about anything related to FASCOM,” the Army told us. “Specifics on structure, command, mission, etc. will be announced at a future dates [and] will require the kind of additional testing facilities that a new Montana super range could provide.”

The use of highly cooperative autonomous weapons platforms that can swarm and operate collectively over large areas will also tax existing ranges beyond their capacity.

Details about the new range proposed by Trump are scant, and it remains to be seen whether it will live up to the hype or even be built. As we noted earlier in this piece, a feasibility study, which hasn’t even been funded yet, is still needed before major work can begin. However, if and when it does come online, a new Montana test range will be welcomed by a military in need of additional places to test out its latest capabilities.

Contact the author: howard@twz.com

The post New Montana “Super Range” Complex Could Add Critical Weapons Testing Capacity appeared first on TWZ.

The head of the U.S. Army Space and Missile Defense Command (SMDC) was initially skeptical about the utility of high-altitude balloons, but now sees them as a “game-changing” capability. Lt. Gen. John Rafferty’s comments follow a separate disclosure that the Army axed plans for a balloon swarm test in the Pacific last year and instead sent those systems to support real operations in the Middle East. TWZ has been closely tracking the expanding use of high-altitude balloons and other lighter-than-air systems globally for intelligence gathering, as platforms for launching drones, and in support of other missions, for years now.

Lt. Gen. Rafferty was asked about high-altitude balloons during a media roundtable today, at which TWZ was in attendance, on the sidelines of the Association of the U.S. Army’s (AUSA) main annual convention. Army Col. Joseph Mroszczyk, head of SMDC’s Transformation Integration Directorate for Space Superiority (TID-Space Superiority), also discussed the service’s use of balloons during the roundtable. Breaking Defense first reported on the shift of balloon-based capabilities from the Pacific to the Middle East on Monday.

“I’ll just give a little personal history on high-altitude balloons. I started in the Army Futures Command in the Long Range Fires-Cross Functional Team. There was this talk of high-altitude balloons. I think it was the ISR [intelligence, surveillance, and reconnaissance] task force was talking about it,” Rafferty said. “It just sounded crazy to me that we were considering this.”

“Then, a few years later, when the Sergeant Major [SMDC Command Sgt. Maj. Rickey Jackson] and I were together in the multi-domain community in Europe, I went with the 2nd MDTF [Multi-Domain Task Force] to Morocco for training and experimentation,” he continued. “[I] saw the high-altitude balloons in action, and I was immediately convinced after I understood better how they worked and how their ability to station-keep, and their ability to sense and even deliver effects from high altitude. It was game-changing for me.”

Broadly speaking, the main benefit that modern high-altitude balloons offer is their ability to be deployed persistently for days, weeks, or even months at a time. Designs available on the market today can hold their position, in spite of prevailing winds, and moderate their altitudes to keep on station, after precisely navigating to an assigned operating area.

On top of their persistence, the altitudes at which these balloons operate provide excellent fields of view for radars, cameras, and other sensors in all directions and across very broad areas. From a perch of 60,000 feet or more, they also offer a way to peer into certain denied areas while still soaring in international airspace and keeping further away from potential threats.

The video below from high-altitude balloon maker Aerostar offers a good general overview of the kind of capabilities on the market today.

As Lt. Gen. Rafferty noted today, ISR is not the only use case for high-altitude balloons, either. They can serve as communications relay nodes, as well as launch platforms for swarms of drones and other expendable payloads. These are all capabilities the Army has explicitly talked about as part of broader plans for balloons in the past. Other countries, especially China, are already actively employing high-altitude balloons for ISR and other missions, as we will come back to later on.

“In my former role as an MDTF commander, we experimented a lot in the Pacific with those [balloon-based] capabilities. We have leveraged different size platforms,” Col. Mroszczyk added today. “In this [TID-Space Superiority] role, as a proponent, what I’m pushing for is a family of stratospheric systems that really covers smaller size all the way up to larger size types of platforms in terms of balloons.”

“What that enables us to provide is space-like capabilities, really exploiting a transition point between what is normally considered the aerial layer and the space domain,” he continued. “Really, where you go from about 60,000 feet to 100,000 feet is what we focus on in the stratosphere. That operational space allows some persistence and broad coverage in an area where you can deliver space-like capabilities in terms of payloads, but then also take advantage of the deep access that you get from a stratospheric balloon.”

“So, being able to go, take advantage of winds that are pushing you where you want to go already to be able to get either launched effects or other types of payloads for sensing and communications and extension of your launched effects portfolio,” he added. “That is a way that we can help exploit the stratosphere, and we’re looking to do that throughout multiple experiments over the course of the coming year.”

“Launched effects,” is a catch-all term the U.S. military now routinely uses to talk collectively about uncrewed aerial systems designed to be launched from other platforms in the air, on the ground, and/or at sea. This encompasses drones configured for a wide variety of missions, including surveillance and reconnaissance, electronic warfare, signal relay, and even kinetic attack.

Col. Mroszczyk talked about plans to further demonstrate how high-altitude balloons will be commanded and controlled, as well as networked together with other Army capabilities, when asked to elaborate on what the forthcoming experimentation would entail.

As mentioned, the Army had also planned to demonstrate the ability of balloons to operate in swarms with a high degree of autonomy in the Pacific region last year before those assets were redirected to the Middle East. When exactly that deployment occurred and how long it lasted are unclear.

“We were asked to pivot and do some experimentation in combination with operations, and we pivoted and supported operations in CENTCOM [U.S. Central Command],” Andrew Evans, Director of Strategy and Transformation with the Office of the Deputy Chief of Staff of the Army, or G-2, told Breaking Defense, per the story that outlet published on Monday.

“They were effective for the mission that they were assigned,” he also said, but declined to elaborate further, according to Breaking Defense. “Balloons can be a little finicky in terms of temperature, and you have to contend with environmental characteristics.”

“We had a lot of help from vendors in this space, but as you think about employing your systems and going from something like a Pacific [theater] to something like a CENTCOM [theater], you learn where those friction points might exist between what the military might need to inherently own, and … what a vendor could help provide in terms of the service,” Evans added. Furthermore, “balloons can be a little finicky in terms of temperature, and you have to contend with environmental characteristics.”

The remarks today from Lt. Gen. Rafferty and Col. Mroszczyk underscore the Army’s commitment to fielding new high-altitude balloon-based capabilities and the immense benefits the service sees in them. However, the continued emphasis on testing and experimentation highlights a discrepancy with the state of the service’s current efforts, and even more so in light of global trends.

The Army has been openly talking about balloons as part of its vision for a new multi-layered persistent sensor architecture, and how they could also be used to launch drones and other ‘effects,’ for at least six years now. In that same time, China has very actively shown off its ability to gather intelligence and conduct other missions using balloons and other lighter-than-air craft on a broad operational level across the Pacific. TWZ had been reporting on this reality for years before it was thrust fully into the public consciousness after a Chinese spy balloon passed over parts of the United States and Canada back in 2023.

Other countries, including U.S. allies and partners, are increasingly fielding balloon-based and other lighter-than-air systems, too. Forces in Ukraine have notably been using balloons to conduct kinetic attacks and launch drones in the course of the ongoing conflict with Russia. On the other side of that conflict, Russian forces have used balloons as decoys to confuse and misdirect air defenses.

American-made Hornet middle-range strike UAV being tested with balloon-assisted launch system.

Such resolution allows to drastically increase its original range (approx. 100km).

Hornet OWA-UAVs are actively employed by Ukrainian forces for strikes on Russian logistics and other… pic.twitter.com/S1bHqLNhPY

— Status-6 (@Archer83Able) May 20, 2026

The Middle East deployment does show new efforts on the Army’s part to operationalize high-altitude balloons on a more widespread basis, but also that it is still relying on largely experimental capabilities to do so. Earlier this year, the service called attention to the establishment of a new schoolhouse for high-altitude balloon training to help further lay this groundwork, further underscoring how all of this is still very much in its infancy.

The remarks today from Lt. Gen. John Rafferty, especially, show there is substantial support within the Army for pushing ahead with high-altitude balloon programs. At the same time, there is clearly much work to be done if they are to have a truly game-changing impact, while the gap with China and others only continues to grow.

Contact the author: joe@twz.com

The post High Altitude Balloons Are A “Game-Changing” Capability: Army Space Command Boss appeared first on TWZ.

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

The post F-35C Makes First Arrested Landing Aboard A Ford Class Carrier appeared first on TWZ.

Sikorsky is aiming to start offering a new modular and readily swappable nose for the venerable H-60 family of helicopters within the next year or so. The noses will be made available on new-production H-60s, as well as be retrofittable to helicopters in service now. The ‘nose jobs’ will help operators relatively quickly reconfigure their H-60s for very different missions, from cargo-carrying to serving as gunships, as required. It also opens new avenues to integrating autonomous capabilities and other advanced functionality.

Our Howard Altman had a chance to speak with representatives from Sikorsky, now a subsidiary of Lockheed Martin, about the plans for the new nose for the H-60-series at the Association of the U.S. Army’s (AUSA) main annual convention today. This is part of a larger vision for keeping the design operationally relevant into the 2070s, which also includes uprated engines and increased total payload capacity. You can read more about the overall Black Hawk 2070 strategy here.

Of the different elements of Black Hawk 2070, “the nose is a good one, and it’s one that’s on a pretty accelerated timeline. Within the next, I would say, year or so, the nose will be available to be retrofitted or to be coming off the line,” Jason Wrigley, Sikorsky’s director of business development for Black Hawk, said. “We’ve gone through a design cycle with it.”

As it stands now, the new nose structure will offer roughly double the physical space of the standard nose on current-generation H-60s today.

“We’ve done the design. We then 3D-printed the noses, and we did that so that we can physically interact with it, because the whole point of this is for maintainability and access to be able to integrate these different sensors and comms gear,” he continued. “We’ve gotten some feedback from the engineers, from operators, from maintainers, and that goes back into the next cycle of the design.”

Exploring ways to optimize accessibility to areas of the new nose was a major focus of this ‘test print,’ according to Wrigley. Sikorsky has a scale model on the show floor at AUSA this week that highlights how the current design opens from the top, as seen below. Ensuring that it will be possible to keep any systems inside sufficiently cooled has also been an important design consideration already.

Overall, “we just are kind of confirming, can we reach everywhere we need to? What are the different configurations?” he added. There’s been “a lot of work with the [U.S.] Army around what do you envision potentially could go in here?”

“This is one of those cases also where our whole engineering team gets more comfortable. It’s not something where the Army came to us and said, ‘this is exactly what I want. Here’s my spec,'” he also noted. “It was more, ‘here’s what I want to achieve. Here’s what I want to be able to do.’ And so we went off and designed that.”

“I like to highlight this, because it’s part of the way we’re also changing the way we design and deliver the Black Hawk,” Wrigley added as an aside. “So we’re very much in a model-based environment.”

While Wrigley mentioned sensors and communications equipment as possible payloads to fit into that extra space initially when talking with us today, he made clear later on that these are just some of the potential options.

“It’s using the old term, but it’s open architecture, and so the whole point is whatever the mission requires” can go into these new extended noses, he explained. “There’s always a demand for real estate up front.”

It’s very true that more specialized variants of the H-60, such as the MH-60s operated by the U.S. Army’s elite 160th Special Operations Aviation Regiment, often have modified noses loaded with radars, other sensors, and additional systems. The new HH-60W Jolly Green II rescue helicopters for the U.S. Air Force are another prime example of this, and there are many more.

“There’s a big focus on open architecture and that ability to quickly plug-and-play,” Wrigley also told TWZ earlier this month in the context of the larger Black Hawk 2070 plan. “The new modular nose will change the look of the Black Hawk up front to provide even more space for equipment that will work directly with the new digital architecture.”

In terms of swapping out modular noses on individual helicopters, Wrigley said that it is still too early in the design process to know exactly how that would be done and how long it might take to do so in practice.

“Part of the design process is to also write up the documentation for the retrofit, but we don’t see this one as very invasive,” he explained.

It is not hard to imagine use cases for long-nosed H-60s, especially ones that can then be reconfigured between missions, and not just for the U.S. Army. As Wrigley already underscored, there is long-standing demand for H-60s with longer and larger noses to accommodate additional mission systems. Modular noses, in general, have been becoming more and more common in aviation design for some time now.

The ability to readily swap modular noses could also allow operators of even relatively small H-60 fleets to gain a valuable new degree of multi-mission capability. As one example, cargo-carrying helicopters could be converted into gunships, and back again, as required, using a small common pool of noses with the requisite sensors, laser designators, and other equipment. All of this could offer cost benefits when it comes to sustainment and logistics, as well as added operational flexibility.

The long-nosed Black Hawk model on display at AUSA is notably configured as a gunship. Sikorsky has also talked previously about leveraging the new nose to reconfigure H-60s for search and rescue, airborne drone control, and other missions.

Just being able to install a radar for one series of missions, and then quickly switch over to an electro-optical wide-area surveillance system or another kind of sensor for the next run of sorties, would bring new adaptability to the already very flexible Black Hawk. Defensive systems could also be readily swapped from aircraft to aircraft, as well as more quickly upgraded, as needed.

The modular nose also opens the door to a new way to integrate advanced capabilities, including autonomy packages, which Wrigley said is also driving demand for more space at the front end of the helicopter. Sikorsky has been developing various tiers of autonomous capabilities for the H-60 family for years now, including artificial intelligence-driven ‘copilots’ designed just to help reduce the workload of human crew members and increase safety margins. Autonomous flight capabilities require additional sensors, such as LIDAR and cameras, to help with navigation and to provide additional situational awareness. At least some of those components could be hosted within new modular noses.

At the same time, integrating higher degrees of autonomy could require more substantial modification. Sikorsky is now developing a fully uncrewed version of the H-60, and has been doing so with an eye toward converting older Black Hawks to this configuration as they are retired from service, as you can read more about here.

In line with the Black Hawk 2070 vision, the modular noses could be part of a broader equation for modernizing existing H-60 fleets, as well.

“In our conversations with the Army, I think they’ve been using a phrase that they call targeted modernization,” Wrigley told us, speaking more generally. “There’s a daunting task that says there’s 1,000-1,500 Black Hawks in inventory. If you literally tried to upgrade every one of them, it’s a very expensive proposition, and it probably takes a long time.”

“I don’t think that’s the way they’re thinking about it. I think they’re thinking about it more on a battalion basis or a unit basis,” he continued. “Like, what’s the mission, and maybe certain Black Hawks get upgraded with autonomy, and other Black Hawks get upgraded with sort of the expanded launched effects capability, the engine, the structural upgrades, the [stub] wings, stuff like that.”

“Maybe some of them become ‘Superhawks’ or whatever, [and] get the whole package,” he added.

There is certainly still work to be done on the development of the new modular nose and then actually integrating it onto the H-60 platform. At the same time, Sikorsky clearly already sees demand for this new feature, which could lead to a breadth of new opportunities for new and old helicopters in the H-60 line.

Contact the author: joe@twz.com

The post Sikorsky Aiming For Black Hawk ‘Nose Jobs’ To Be Available Within The Next Year appeared first on TWZ.

Airbus U.S. Space and Defense has been actively developing and iterating the technology for its Lakota Connector, an uncrewed, autonomous variant of the multi-mission UH-72B Lakota helicopter. This includes testing under Team Lakota Connector, that has brought together Shield AI, L3Harris Technologies, and Parry Labs in a prototyping phase for the U.S. Marine Corps.

TWZ’s Jamie Hunter spoke with Carl Forsling from Airbus U.S., at the AUSA 2026 trade event in Washington D.C. A former U.S. Marine Corps CH-46 Sea Knight and MV-22 Osprey pilot, Forsling explained the requirement for uncrewed logistics in contested theaters, and what’s next for Team Lakota Connector.

The post Airbus Details Progress With Lakota Connector Uncrewed Cargo Helicopter appeared first on TWZ.

General Atomics Aeronautical Systems (GA-ASI) and Hanwha Aerospace completed operations in a simulated battlefield scenario with the Mojave short take-off and landing (STOL) drone on September 16. The testing formed part of a Defense Drone Technology Exhibition and included Mojave operating from an austere short runway at the Seungjin Training Field in Pocheon-si. The flying portion of the trials also saw the Mojave operating down at low level to demonstrate its ability to terrain mask to avoid potential threats and to support ground forces at close quarters.

TWZ’s Jamie Hunter spoke to Matt Petraitis, senior manager of U.S. Army programs at GA-ASI, at the AUSA 2026 trade event being held this week in Washington D.C. about how the Mojave landed on a rough maneuver trail typically used by tanks and artillery vehicles, and about the company’s plans for Mojave in partnership with Hanwha Aerospace.

The post General Atomics’ Mojave Drone Completes Austere Testing in Korea appeared first on TWZ.

For more than a year, U.S. Army forces in Europe have been experimenting with new counter-drone capabilities, as well as tactics, techniques, and procedures to go with them, under the umbrella of what is dubbed Project Flytrap. In doing so, the service has also been gaining valuable new insights into how uncrewed systems can help shape the battlefield for friendly forces. It is particularly interesting to hear how the Army envisions using uncrewed platforms to open up new avenues for deceiving opponents.

Army Col. Timothy Price, head of the 2nd Cavalry Regiment, discussed the use of uncrewed platforms for deception and other operational concepts that have emerged in the course of Project Flytrap during a talk yesterday. Price’s remarks came at the Association of the U.S. Army’s (AUSA) main annual convention, at which TWZ is in attendance. 2nd Cavalry Regiment, based in Germany, is a brigade-sized mechanized formation equipped primarily with variants of the Stryker 8×8 light armored vehicle.

Price, by way of introduction, described modern battlefields full of uncrewed platforms in the air and on the ground as presenting new twists on long-standing problem sets. More specifically, he started by describing the typical approach to getting past a minefield or similar obstacle using an established framework called SOSRA, which stands for Suppress, Obscure, Secure, Reduce, Assault.

“If we were going to breach a mined wire obstacle, the first step of SOSRA – suppress – would be the utilization of indirect fires, to get the enemy’s head down, and direct fire systems, so they would not maneuver on you, fix them in place, and you can make a decision about how you’re going to approach the problem,” the 2nd Cavalry Regiment commander explained. “The next step would be to obscure it. In the historical sense, obscurations used is [sic] smoke, to mask your movement to the point of breach, so the enemy doesn’t know what you’re doing. And then, of course, secure would be to establish frontside security, [and] allow your engineers to come up within this local security bubble. They’ll utilize some kind of line charge to open the breach, reduce it – that’s the ‘R’ – and then bring on a follow-on force of assault through.”

“We were brought up around the old traditional mined wire obstacles that we had to physically breach. This is no different,” he added. “It’s just a multi-domain environment. So it’s built up of a combination of electronic warfare, kinetic UAS [uncrewed aerial systems] threats, and then counter-UAS threats, and then the network that holds [that all] together that forms the obstacle, which a unit has to maneuver through in order to maintain the offensive.”

Within this environment, Col. Price described the suppression step of SOSRA as having a different kind of probing dimension, particularly to feel out an enemy’s uncrewed capabilities, as well as those in the electromagnetic spectrum. He also noted that brigade-sized formations like this no longer necessarily have all the required tools organizationally to ‘service’ that aspect of the mission. This is in part because what has to be suppressed, including ground control stations for enemy drones, might now be miles behind the front line.

So, “what we have to do is allow the enemy to turn on their systems. How do I suppress them to allow division, or higher, to put an effect on them for suppression? It probably looks like flying small, attritable UAS [sic] into their security area” in the rear, he said. This, in turn, “cause[s] the enemy to do one of two things, either … go from passive to active with their EW [electronic warfare] systems, or to turn on radars to actually figure out what they’re seeing, which then forms the signature which higher headquarters can use to target.”

Though Col. Price did not describe it as such, there is already something of a deception aspect to this step in fooling enemy emitters to switch on and expose themselves. This, as a general tactic, is also hardly new. Stimulating air defenses, in particular, is a key part of operations to gather intelligence on those capabilities, as well as to suppress and destroy them. Once you have categorized and geolocated an emitter, it is a logical step to then target it. The ultimate goal, with data being passed along a more deeply networked kill chain, is for the time it takes for fires to be brought to bear to be almost instantaneous.

Regardless, deception comes far more into play in the obscure step, according to the 2nd Cavalry Regiment commander.

“Obscuration is different, as well. So instead of trying to hide behind smoke as we maneuver through it, what is the deception plan, right? How am I trying to show the enemy a signature that says I’m going to breach over here when I’m actually going to breach here, right?” he asked rhetorically. “So, that’s probably the implementation of UGVs [uncrewed ground vehicles] with some kind of decoy emitter on top of them to pull the enemy’s eyes, resources, and time to a point that allows me to focus my assets and resources on the point of breach.”

The use of uncrewed platforms as decoys is also not new, and even more complex concepts have emerged within the U.S. military in the past. Uncrewed systems have also been developed for military and other purposes over the years that are designed to mimic something else entirely, including for purposes of deception. This includes masquerading as birds and other animals.

Back in 2019, TWZ was the first to report in detail on a Navy effort to develop and field an entire networked, cooperative electronic warfare ecosystem, at that time referred to as the Netted Emulation of Multi-Element Signature against Integrated Sensors, or NEMESIS. This was also a drone-heavy cross-domain concept intended to make many types of sensors over vast areas believe they were ‘seeing’ the same false fleets of aircraft and/or ships, and deceive and confuse the enemy on a grand scale. This, in turn, represented a massive leap in electronic warfare capabilities.

There is also overlap here with reported sightings of what are now commonly called unidentified aerial phenomena (UAP), and that used to be called unidentified flying objects (UFO). As we have reported on repeatedly over the years, while some UAP sightings remain unexplained, many more have turned out to be drones. Adversaries have been using uncrewed capabilities for intelligence gathering and deception purposes against American interests at home and abroad, likely in part by exploiting UAP stigma for cover. We have talked in the past about how drones will be used in more and more exotic ways to confuse opponents.

I don’t know what this is, or if it’s legit BUT remember we are in a new age of misdirection, decoy and guile. Specifically using low end drone technology. There are more ways to stimulate an enemy air defense system, distract a populous, assess the flow of public info from a… https://t.co/wW7YVlbayB

— Tyler Rogoway (@Aviation_Intel) September 21, 2026

When it comes to UGVs, specifically, 2nd Cavalry Regiment, as well as units elsewhere across the U.S. Army, have been experimenting with various designs in recent years. The service has been trying for years to expand its operational use of UGVs, in general, but has faced repeated setbacks.

“It’s also spectral camouflage. So how are we controlling our heat and thermal signatures on our vehicles and our people?” Price continued. “It’s basic soldier discipline issues. It’s how we use our radios. It’s where we’re talking, where we’re not. But that’s what obscuration looks like.”

As a reminder, Project Flytrap’s primary focus has been on counter-drone capabilities, which come into play heavily during the secure stage.

“There’s multi-layered assets on top of that to allow that convergence for our success at the point of breach. I’m going to focus on our corner, our part of the battle, right?” he said. “So, I’m looking at active and passive electronic warfare systems – that can either, one, find [threats], let me know that I’ve got some kind of system flying or operating against me and, then, if it’s an active system, take some kind of effect to maybe cut a downlink and disrupt that system – all the way down to the individual soldier with a shotgun.”

As mentioned, the ‘obstacle’ to be ‘reduced’ at the end of this is not necessarily something as simple as a minefield surrounded by barbed wire anymore. Now it could be enemy one-way-attack drone capabilities preventing holding up an advance. Col. Price, in turn, described friendly kamikaze drones as part of the equation for breaching past those threats. Decoys and deception have a continued role to play in this phase.

“This is where, at the brigade level, we introduce one-way attack munitions to try to destroy the C2 [command and control] network that the enemy is using to operate this reconnaissance/strike complex” that is standing in the way, he explained. “There’s layers to it, right? Like they’ve got a close side to this that’s the local part of this reconnaissance/strike complex. They’ve probably got a theater level that the Corps [the U.S. Army’s command echelon above divisions] and higher is trying to target as we are forcing people to turn on systems to communicate. But at the regiment level, I’m looking at one-way attack munitions, focused on C2 nodes, headquarters, and ground control stations that [sic] I can disrupt their ability to put lethal effects on me as we begin to open the breach.”

The U.S. Army is in the process of fielding a variety of weaponized drones, including loitering munitions and designs capable of releasing grenades and other small bomblets.

During a question-and-answer session that followed his remarks, Col. Price was asked about whether lessons learned and other observations from Ukraine, and specifically that country’s recent Operation Vivaldi counteroffensive, had contributed to this evolving framework.

“In terms of Vivaldi, I’m not an expert, so I’m not going to make any kind of estimations on how that worked or why,” he said in response. “But I will say, if you look at the focus of that operation, you can probably make the assumption that there was convergence of efforts across the different headquarters to enable success. So that’s how I would relate to the two.”

“In order to be successful for a multi-domain breach, the tactical level requires my higher headquarters to be part of that solution to enable me with resources and capabilities that I don’t have in here at the brigade level,” he continued. “I would imagine it’s very similar in the other operational comparisons.”

Though certainly true, in broad strokes, this response in some ways underscores how the U.S. Army continues to lag behind global trends in the use of uncrewed systems, as now typified by the ongoing war in Ukraine. Army leaders have been open about this continued reality in the past, despite efforts to try to reverse it.

“We’re behind. I’ll just be candid. I think we know we’re behind,” Army Lt. Gen. Charles Costanza said during a panel discussion at AUSA last year, in response to a direct question at the panel from our Howard Altman. Costanza was talking about both the employment of drones and counter-drone capabilities, and highlighted work being done then under Project Flytrap, as you can read more about here.

Costanza was head of V Corps, a key component of the U.S. Army presence in Europe, at the time. He was removed from that post abruptly in August for reasons that remain unclear, but were reportedly tied to disputes between top Army leadership and Secretary Pete Hegseth. Secretary of the Army Dan Driscoll resigned last month, amid reports of months of friction with Hegseth about various policies.

The Pentagon under Hegseth has launched a number of initiatives to accelerate the fielding of new uncrewed capabilities across the U.S. military, especially within smaller ground units. This now includes plans for a new Autonomous Warfare Command (AUTOWARCOM) unveiled last month.

For units like the 2nd Cavalry Regiment, new drone-centric concepts of operations are already taking shape. Beyond using them for surveillance and as one-way-attack munitions, there is also a clear focus emerging on employing expanding uncrewed capabilities to deceive opponents and prevent them from making the best use of their own resources.

Contact the author: joe@twz.com

The post Drones Are Creating New Opportunities For The U.S. Army To Deceive Its Enemies appeared first on TWZ.

Airbus and Kratos Defense & Security Solutions have completed the first flight of the U740 Valkyrie uncrewed combat aircraft, a Europeanized version of the XQ-58A Valkyrie, advancing their bid to deliver a combat-ready system to Germany by 2029. The flight comes as the German Air Force, or Luftwaffe, moves toward acquiring a new class of jet-powered combat drones, in what could become a major shift in the country’s traditionally limited armed-uncrewed-aircraft capabilities.

The ride of the Valkyrie
With the successful first flight of the Airbus U740 Valkyrie in Europe, we are one step closer to introducing an operational uncrewed Collaborative Combat Aircraft (CCA) to the German and other European Armed Forces.
The flight achieved all… pic.twitter.com/S2sFrtdmGA

— Airbus Defence (@AirbusDefence) October 12, 2026

The flight took place at an unnamed test facility in northern Europe, Airbus announced on October 12. The aircraft conducted a rocket-assisted takeoff, maneuvers at different altitudes, and flight at speeds of up to Mach 0.8. The test also included in-flight mission adjustments, with Airbus reporting that all objectives were met.

The next phase will introduce Airbus’ Multi-platform Autonomous Reconfigurable and Secure (MARS) mission system, which is intended to provide the aircraft’s European-controlled software and mission-management architecture. Airbus says MARS will support autonomous operations and coordination between multiple uncrewed aircraft while retaining human oversight of critical decisions.

The U740 is based on Kratos’ American-developed XQ-58A, an uncrewed aircraft designed as a relatively affordable combat platform. Airbus is adapting the aircraft with its MARS mission system and presenting the combination as a way to provide Germany with a sovereign European capability without waiting for an entirely new airframe to mature.

Published performance figures for the U740 include a maximum takeoff weight of around 3,000 kilograms (6,600 pounds). Airbus lists a range exceeding 5,000 kilometers (3,100 miles) and a service ceiling of 45,000 feet. It has an internal weapons bay and external payload stations beneath its wings.

One distinctive feature is the U740’s rocket-assisted launch capability, which reduces its dependence on conventional runways. The original Valkyrie design is primarily recovered by parachute, but newer versions can take off with rocket assistance and land on a runway, offering greater flexibility in how and where they operate. That could help the Luftwaffe disperse operations or launch aircraft from locations where established airfields are unavailable or under threat. The XQ-58 family has also shown some potential for scaling to different requirements, as detailed in these earlier reports on runway launch and recovery and further platform development. In particular, the U.S. Marine Corps has been exploring ways to expand the XQ-58’s flexibility, including further development of the Valkyrie to meet its own mission requirements.

If adopted, the rocket-assisted launch capability would provide an intriguing throwback to practical German studies during the Cold War, in which F-104G Starfighter fighter-bombers used the Zero-Length Launch (ZELL) system to take off from dispersed locations.

Airbus says the U740 will be able to operate autonomously or under the direction of crewed fighters such as the Eurofighter. The company sees it as a means of increasing the reach, firepower, and survivability of existing combat aircraft, with uncrewed platforms undertaking higher-risk missions.

With the MARS system, Airbus intends to give European customers control over mission applications, data, and key software functions, while enabling autonomous mission execution and coordination between aircraft. This is particularly relevant for Germany, which will likely want to integrate national weapons, sensors, and operational requirements without becoming dependent on a foreign-controlled mission architecture.

Since the underlying airframe is American, the degree of sovereignty Germany ultimately obtains will depend on the practical ability to control and modify software, integrate national systems, and support the aircraft throughout its service life.

The European flight is an important step for the Valkyrie program, but substantial work remains before it can be considered combat-ready. Mission-system integration, further testing, and the demonstration of effective cooperation with crewed aircraft will be central to meeting the companies’ 2029 target.

The effort is also unfolding as Germany develops its requirements for what has been described in press reports as a Jagdbomberdrohne, or fighter-bomber drone. The precise operational concept has yet to emerge publicly, including whether the Luftwaffe primarily wants an uncrewed aircraft to accompany crewed fighters or a platform capable of conducting independent long-range strike missions.

Germany has historically lagged behind several other major military powers in fielding armed uncrewed aircraft. Previous attempts to acquire larger reconnaissance drones encountered major technical and procurement difficulties, while political resistance to armed drones delayed the development of a strike capability for years.

The Luftwaffe’s current larger uncrewed aircraft fleet remains limited to five leased Israeli-made Heron TP medium-altitude, long-endurance drones. Germany is also participating in the Eurodrone program, while uncrewed systems were expected to form part of the wider Future Combat Air System (FCAS), before that Franco-German-led effort hit the buffers earlier this year.

Russia’s full-scale invasion of Ukraine in 2022 and Germany’s subsequent military buildup have intensified pressure to address these gaps. Berlin has set a goal of being ready for war by 2029, and reports indicate that the Luftwaffe wants a new combat-drone capability on a similarly ambitious timeline.

As well as Airbus and Kratos, the emerging competition reportedly includes Anduril, General Atomics partnered with Germany’s INTEC, as well as Lockheed Martin. Boeing and Rheinmetall are meanwhile pitching the larger, Block 3 version of the Australian-developed MQ-28 Ghost Bat, while Helsing and Hensoldt are pursuing the homegrown CA-1 Europa.

The various proposals reflect a broader shift toward uncrewed aircraft that can deliver additional weapons, sensors, and electronic warfare capabilities without putting a pilot at risk. But Germany’s terminology raises an important question about the intended role.

A conventional collaborative combat aircraft, or CCA, would be designed to work alongside crewed fighters, extending their reach and providing additional combat mass. A platform intended to operate independently against targets deep inside enemy territory would place greater emphasis on range and survivability. These roles are not mutually exclusive, but the Luftwaffe’s final requirements will shape the aircraft it chooses.

Germany may not be looking for a single drone to do everything. One option might be a split high-low approach that could pair more capable, longer-range systems for deep-strike missions with cheaper, attritable collaborative combat aircraft that can fly alongside crewed fighters. At this point, it should also be noted that CCAs could also give older fourth-generation fighters a new lease on life, boosting their lethality and survivability by extending their sensor reach, adding weapons capacity, and allowing uncrewed aircraft to take on more dangerous tasks.

Meanwhile, Airbus is also working on its larger U760 Ravenstorm, intended for service in the early 2030s. The Ravenstorm gives Airbus a longer-term path toward a more advanced European-designed uncrewed combat aircraft as it pursues the nearer-term Valkyrie effort.

In the short term, the Luftwaffe will need to determine which capabilities must be available in an initial operational fleet and which can be introduced later. Even an aircraft based on an established design requires substantial integration, testing, training, and infrastructure before it can be employed effectively in combat.

Germany’s 2029 target leaves little time for a program that still has to integrate its mission system and demonstrate how the aircraft will be used operationally. That is a particular challenge for the Luftwaffe, which has little experience operating large uncrewed aircraft, let alone jet-powered systems intended for combat.

The European flight gives Airbus and Kratos a head start in testing the U740 for German requirements, but the next major milestone will be flying it with the MARS mission system. How quickly that work progresses will help determine whether the Valkyrie can meet the Luftwaffe’s timetable.

Contact the author: thomas@thewarzone.com

The post European U740 Variant Of The XQ-58A Valkyrie Has Flown appeared first on TWZ.

The 54-year-old allegedly assaulted two flight attendants, an airport security officer, and a nurse who had come to her aid

The U.S. Navy is preparing to sign a contract with Lockheed Martin to integrate the stealthy AGM-158C Long Range Anti-Ship Missile (LRASM) onto the Air Force’s B-52 Stratofortress bombers, according to an October 7 government notice. The effort would add another long-range maritime strike option to the U.S. bomber force as the military looks to counter increasingly capable adversary naval forces, especially in the Indo-Pacific theater.

The planned contract comes months after the Air Force revealed that the stealthy B-2 bomber can also launch LRASM, a capability that had not previously been publicly disclosed. You can read more about that here.

The latest Naval Air Systems Command (NAVAIR) notice says the command intends to enter into sole-source negotiations with Lockheed Martin and subsequently award a cost-plus-fixed-fee delivery order covering LRASM integration on the B-52. The work would include missile software updates, associated testing, repairs to test assets, and failure review boards.

The notice does not provide a schedule for completing the integration or fielding the capability.

The B-52 is already capable of carrying large numbers of air-launched cruise missiles, including the AGM-158 Joint Air-to-Surface Standoff Missile (JASSM) family. LRASM is derived from that family, sharing a similar general form factor while incorporating features specifically designed to find and attack ships in contested maritime environments.

The B-52 can carry up to 20 JASSMs, and the weapons have the same dimensions, but the government notice does not specify how many LRASMs the bomber would ultimately carry.

This is not the first time the B-52’s LRASM integration has been in the works.

As long ago as November 2019, Naval News reported that $10 million in Fiscal Year 2019 funding had been allocated to study integrating the missile onto the bomber, with Lockheed Martin and the Navy and Air Force expected to work on the effort. At the time, officials said the fielding timeline and the bomber’s eventual missile capacity had yet to be determined.

The U.S. Air Force’s Fiscal Year 2027 budget proposal further outlines plans to integrate the latest variants of LRASM and JASSM onto the B-52, including versions not yet cleared for use on the bomber. According to the document, the effort, which is intended to enable the deployment of next-generation stealthy cruise missiles against targets protected by sophisticated integrated air defense systems, will focus on engineering and manufacturing development, software updates, and weapons integration. Planned work in FY2027 includes incorporating the missiles’ operational flight programs into the B-52’s baseline bomber software, validating safe weapon separation from both wing-mounted stations and the internal carriage launcher, updating armament interfaces, and completing system-safety testing.

LRASM is designed to attack high-value surface vessels at long distances while reducing the exposure of the aircraft launching it. Its guidance combines GPS-assisted inertial navigation with onboard sensors and autonomous target-recognition capabilities intended to help it operate in heavily defended environments. Its imaging infrared seeker supports terminal target acquisition without relying on active radar emissions in that phase of flight. The missile operates with a high degree of autonomy, enabled by an integrated route-planning capability linked to its onboard electronic support measures (ESM) system. LRASM also has a datalink that allows it to get threat updates while in flight. It can also work cooperatively with other LRASMs during coordinated strikes. 

The missile’s precise operational range is not publicly disclosed. However, the baseline LRASM is reported to be able to strike targets at between 200 and 300 miles, in line with the AGM-158A JASSM. The forthcoming C-3 version is expected to have the same reach as the JASSM-ER, which is reported to be around 600 miles.

For the B-52, the addition of LRASM would provide a dedicated anti-ship weapon alongside its established land-attack arsenal. A bomber operating at a considerable distance from a hostile fleet could launch multiple missiles toward maritime targets, complicating an adversary’s air-defense and interception problem. The aircraft’s payload capacity could also allow it to contribute substantial missile volume to a coordinated strike.

The B-52 was previously adapted to carry AGM-84 Harpoon anti-ship missiles, although the weapon is not listed among the bomber’s current publicly documented armament. Compared to the Harpoon, however, LRASM represents a quantum leap in capability, offering drastically greater range, a stealthy design, and the ability to react to threats and adapt in real time. Combined, these traits make for a far more survivable and lethal anti-ship capability.

The B-52 also has a demonstrated naval mine-laying capability through the Quickstrike family of aerial mines. This includes carrying 2,000-pound Quickstrike-ER mines fitted with GPS-aided, winged guidance kits, allowing them to glide to designated points in the water from more than 40 miles away. The system enables the bomber to seed minefields with greater precision while remaining farther from potentially defended waters, threatening enemy shipping routes, port access, and naval movements.

The B-52 effort comes against the backdrop of the Air Force’s newly acknowledged use of LRASM on the B-2, which adds a different dimension to the service’s anti-ship capabilities.

LRASM was also previously integrated on the B-1B, meaning that all three of the Air Force’s strategic bombers will eventually be able to employ it.

The renewed focus on bomber-launched anti-ship weapons reflects the challenges posed by modern naval forces, particularly in the Indo-Pacific. China’s expanding surface fleet, increasingly sophisticated air defenses, and layered anti-access/area-denial capabilities have made the ability to attack ships from a distance an important consideration for U.S. military planning.

LRASM is designed to help address those challenges by combining long-range flight with reduced observability and autonomous terminal targeting. Its onboard sensors and navigation capabilities are intended to help it identify and engage appropriate targets in environments where communications and external targeting support may be limited or contested.

Bomber integration also offers a way to increase the number of potential launch platforms without relying exclusively on tactical aircraft or surface combatants. A B-52 carrying a substantial missile load could contribute to a coordinated attack alongside B-1s, stealth bombers, naval aircraft, and other forces.

The B-52’s payload capacity would make it particularly useful for delivering larger quantities of weapons from outside the most heavily defended areas.

The planned B-52 integration also fits into a broader effort to expand LRASM’s availability across the U.S. military. Publicly discussed integration efforts have included the F-15E, F-15EX, F-16C/D, certain variants of the F-35, and the Navy’s P-8A Poseidon, in addition to established launch platforms, namely the Navy’s F/A-18E/F Super Hornet fighters and the B-1.

Meanwhile, the B-52 fleet is currently preparing for a slew of major upgrades. These include a critical radar overhaul alongside new engines, enhanced communications systems, and other improvements. The scope of these changes is significant enough that the aircraft will be redesignated from B-52H to B-52J. The bombers are also slated to further expand their weapons capabilities, including through the addition of the Long-Range Stand Off (LRSO) nuclear cruise missile. The upgraded B-52Js are expected to remain in service through at least 2050.

Even in its current configuration, the B-52 is particularly well suited to carrying the LRASM, given its substantial payload capacity and ability to launch weapons from standoff distances beyond the reach of enemy air defenses. Its upgraded networking capabilities will greatly enhance its effectiveness by allowing it to operate as part of a broader kill web, drawing on data from multiple platforms and sensors to support targeting over vast distances. In more dynamic operational environments, the bomber’s new radar can generate its own targeting information in real time. The B-2, B-1, and the B-52 all offer distinct levels of penetration and weapons-delivery capability, with the forthcoming B-21 able to push deeper into contested airspace; it will certainly employ LRASM too.

The integration of LRASM onto the B-52 could prove critical to generating the volume of sorties needed to counter China’s expanding naval fleet. With its substantial payload capacity and ability to launch missiles from standoff distances, the B-52 could deliver significant anti-ship firepower across the vast distances of the Indo-Pacific. These missions would likely involve very long-range sorties, making the bomber’s payload capacity, endurance and networking capabilities particularly valuable in sustaining operations against Chinese naval forces.

If the LRASM integration proceeds as planned, the result would be another addition to the U.S. military’s long-range anti-ship arsenal, giving the Air Force’s venerable B-52 a more explicit role in the growing emphasis on striking hostile fleets at a distance.

Contact the author: thomas@thewarzone.com

The post B-52 To Get Stealthy AGM-158C Long-Range Anti-Ship Missiles appeared first on TWZ.

Just over two years after the U.S. Air Force retired the last of its KC-10A Extender aerial refueling tankers, four of those aircraft may be bound for a new career in North Africa for a mysterious end user.

The Air Force Life Cycle Management Center (AFLCMC) put out a contracting notice yesterday “solely for information and planning purposes” with the express intent “to identify potential industry sources that possess the capability, expertise, and facilities to execute the regeneration, one-time flight clearance, depot-level return to service, worldwide ferry delivery, in-country Contractor Logistics Support (CLS), and operational/maintenance training for up to four (4) KC-10 Extender aircraft.”

The KC-10s could be “transferred via Excess Defense Articles (EDA) to a partner nation in North Africa,” the notice adds, without naming the country in question.

The Air Force operated KC-10s between 1981 and 2024. TWZ has reached out to the U.S. Air Force, as well as the U.S. State Department, for more information. The State Department directed us to contact the Pentagon.

The EDA program allows for materiel deemed extraneous to U.S. military needs to be transferred to allies and partners either at a reduced cost or as a grant. The foreign nation in question has to pay for those assets to be delivered, as well as refurbishment, if applicable.

It is important to note here that the Extender, as designed, is capable of refueling receivers using either the boom or the probe-and-drogue method. Tankers equipped for the probe-and-drogue method are, by far, more common internationally. We will come back to this later on.

While we don’t know what the North African country might be in line now to receive the quartet of KC-10s, Egypt and Morocco would seem to be the most likely candidates based on their current and planned aircraft inventories. They are also both major U.S. allies.

The Egyptian Air Force currently does not operate any dedicated aerial refueling tankers. The country is in the process of acquiring two new C-130J-30 Hercules aircraft for use as airlifters, as well as tankers, using the probe-and-drogue method. It does already fly C-130s, but none explicitly configured for aerial refueling duties. Egypt also has a very diverse array of fighters that includes U.S.-made F-16 Vipers that can only be refueled in mid-air via boom.

Morocco’s Air Force also flies F-16s and is in the process of acquiring more. The first new-production Block 72 F-16D for the Moroccan Air Force just flew for the first time earlier this week. Morocco does have an organic aerial refueling capability now, but in the form of C-130s equipped to dispense fuel via probe-and-drogue.

As mentioned, the KC-10 was designed to connect with receivers via probe-and-drogue, as well as boom, and could be used to refuel other tactical jets in Egyptian or Moroccan service. As an aside, fighters belonging to both regularly receive foreign tanker support during exercises, as already seen earlier in this story. Just last month, Chinese YY-20 tankers (also sometimes referred to as Y-20Us) notably did just this in an exercise in Egypt.

Footage released by Egypt’s official authorities from the “Eagles of Civilization 2026” joint air exercise shows Egyptian **MiG-29M/M2s and Rafale fighters receiving aerial refueling from a Chinese Y-20 tanker aircraft. pic.twitter.com/pvxkpsDHxG

— 笑脸男人 (@lfx160219) September 7, 2026

Whichever country may be in line to receive the four KC-10s, there is a question about the current state of those aircraft. Earlier in this story, we talked about the Extender’s capabilities as designed.

McDonnell Douglas (since absorbed into Boeing) delivered a total of 60 KC-10s to the U.S. Air Force between 1979 and 1987. The Extender was derived from the three-engine DC-10 airliner, the last of which was produced in 1989. The Air Force lost one of its KC-10s in an accident in 1987.

Of the remaining 59 KC-10s, 10 were put up for auction in a non-flyable state last year. For reasons that remain unclear, a single engine had been removed from under one of the wings of each of those aircraft. These Extenders were also among the first to be retired, and their booms had been stripped to be used as spares for the examples that remained in service until 2024. Private aerial refueling contractor Omega Air looks to have subsequently won those auctions. Omega also operates two ex-Dutch KDC-10 tankers, which are broadly similar to the KC-10, as well as another DC-10 converted into a probe-and-drogue-only tanker. The company has several Boeing 707-based tankers, as well.

The condition of the remaining 49 Extenders is unclear. Congress included a provision in the annual defense policy bill, or National Defense Authorization Act (NDAA), for the 2026 Fiscal Year that required the Air Force to preserve remaining retired KC-10s, but only stipulated they be maintained “in the same storage condition” they were in as of September 30, 2025. The bill, which was signed into law in December 2025, also made clear that the Air Force could still “dispose” of the aircraft in accordance with existing property management statutes.

Regenerating military aircraft, especially larger ones, back to service can be costly, complex, and time-consuming, even when they are kept in storage in a highly maintained state. In this particular case, acquiring KC-10s via the EDA program, with a very low up-front purchase price, could still be attractive to the right buyer, especially compared to the cost of acquiring new-production tankers.

For a country like Egypt or Morocco that has never operated a boom-equipped tanker, second-hand Extenders could be a valuable entry point to future aerial refueling capabilities, as well. In general, organic aerial refueling capability is an important force multiplier for any air arm.

There is a possibility that KC-10s could be regenerated not as tankers, but as cargo aircraft, though this seems less likely to be the case. Cargo carrying was also an important duty for the Extenders while in U.S. Air Force service, and they still could operate in this role even when returned to service as tankers.

Though the aging KC-10s were getting increasingly more difficult to operate and maintain, the Air Force’s decision to retire them was still controversial. The Extender was a highly flexible tanker that could carry more fuel than the KC-46s that supplanted them. Clearly, there are others still interested in operating them.

It should be stressed that the AFLCMC contracting notice does not present the transfer of the four KC-10s as a done deal. At the same time, it has revealed that one of America’s partners in North Africa could breathe new life into four of these retired tankers.

Contact the author: joe@twz.com

The post Retired KC-10 Extender Tankers Could Get A Second Life With North African Mystery Operator appeared first on TWZ.

The United States is stepping up its campaign to sell Portugal the F-35. Speaking in Lisbon today, Secretary of State Marco Rubio said the United States would make Portugal a “very competitive” offer to replace its F-16 fleet. The development adds a high-level political push to an increasingly intense competition over the Portuguese Air Force’s next fighter.

Portuguese Foreign Minister Paulo Rangel said after meeting Rubio that Lisbon is seriously considering the American proposal, while emphasizing that other options remain under consideration.

“The Portuguese state will always decide in ‌accordance ⁠with the national interest,” Rangel said at a news conference after the meeting. “There is one point that is also clear: we are seriously considering the F-35 proposal, just as we are considering ⁠others.”

Portugal currently operates 25 modernized F-16AM/BMs, including 21 single-seat F-16AMs and four two-seat F-16BMs, from Monte Real Air Base, or BA5. The Portuguese Air Force, known as the Força Aérea Portuguesa (FAP), has not yet formally launched a replacement competition, but the aging fleet is increasingly becoming the focus of attention in Lisbon.

Portugal acquired a total of 45 F-16A/B Block 15 aircraft through the Peace Atlantis I and II programs.

The first 20 aircraft were delivered beginning in 1994. These were new-build F-16A/B Block 15OCU aircraft, comprising 17 single-seat F-16As and three two-seat F-16Bs, and were used to equip Esquadra 201 “Falcões.”

A second batch followed in 1999, when Portugal received 25 former U.S. Air Force Block 15OCU aircraft. Twenty-one were F-16As and four were F-16Bs, with several intended as attrition replacements or spares. These aircraft had accumulated roughly 3,000 flight hours and underwent an extensive modernization program to bring them to the F-16AM/BM configuration. This means the aircraft are broadly comparable to the U.S. Air Force’s F-16C/D Block 50/52 fleet. 

Esquadra 301 “Jaguares” finally became operational with its upgraded aircraft in 2005, while Esquadra 201 did not receive its upgraded F-16s until 2011.

Since then, the Portuguese Vipers have continued to receive incremental improvements. Their configuration has progressed through several mission-software standards, while the aircraft have been equipped with night-vision goggles, Joint Helmet-Mounted Cueing Systems (JHMCS), and advanced targeting and weapons capabilities.

Among the more important additions are Northrop Grumman Litening II targeting pods, and the ability to employ weapons including GBU-12 Paveway II laser-guided bombs, GBU-31 Joint Direct Attack Munitions (JDAM), and GBU-49 Enhanced Paveway II dual-mode weapons.

Twelve former Portuguese F-16s were transferred to Romania under a deal signed in 2013, with deliveries taking place in 2016 and 2017. Romania subsequently ordered five additional aircraft in 2019.

Structurally, the Portuguese F-16s could potentially remain in service into the mid-2040s. But maintaining their relevance against increasingly sophisticated air forces would require continued investment in avionics, sensors, communications, and self-protection systems.

The F-16AM/BM fleet continues to rely on the old AN/APG-66(V)2 pulse-Doppler radar. Replacing it with an active electronically scanned array (AESA) radar such as Northrop Grumman’s APG-83 would substantially improve detection and tracking performance, but would come at considerable cost.

Portugal faces a choice between continuing to invest in increasingly tired fourth-generation airframes or moving directly into the fifth generation.

Since the end of the Cold War, Portugal has become much more engaged in out-of-area operations and missions in support of NATO.

In the process, the Portuguese F-16 fleet has accumulated an impressive operational record.

The fighters have repeatedly deployed on NATO air-policing missions, including rotations to the Baltic States, Iceland, Romania, and Poland.

The F-35A would give Portugal a fifth-generation fighter built around low observability, sensor fusion, advanced electronic warfare, and networked operations.

The aircraft would also fit naturally into a NATO environment in which an increasing number of European air forces are adopting the F-35.

More than 900 F-35s are already in service or on order across Europe, according to previous comments by U.S. Ambassador to Portugal John Arrigo. Washington has repeatedly argued that joining that community would provide Portugal with a substantial interoperability advantage.

However, European competition includes the Eurofighter Typhoon, Dassault Rafale, and Saab Gripen E, with Airbus preparing an especially aggressive campaign for the Typhoon.

Airbus has said it intends to submit an unsolicited Eurofighter proposal to Portugal in late October or early November. That package is expected to encompass not just the aircraft, but financing, industrial participation and broader military cooperation.

Selecting the American stealth fighter deepens Lisbon’s military relationship with Washington at a time when European governments are wrestling with fundamental questions about their dependence on U.S. military capabilities.

Across the continent, uncertainty over Washington’s stance on NATO is encouraging European allies to examine ways of reducing their reliance on American military technology, even as those same countries continue to increase defense spending and purchase U.S. equipment.

If Washington can combine the F-35’s capability advantages with an attractive acquisition and sustainment package, Portugal could find itself facing a difficult choice between the strategic benefits of joining Europe’s growing F-35 fleet and the industrial and political advantages of selecting a European fighter.

The final decision on the replacement of the F-16 will also determine what combat jet spearheads the Portuguese Air Force for the next several decades.

Contact the author: thomas@thewarzone.com

The post U.S. Makes F-35 Push As Portugal Weighs F-16 Replacement appeared first on TWZ.

Shield AI says it is on track to roll out the first prototypes of its X-BAT jet-powered stealth ‘fighter’ drone by the end of this month. Flight testing of this uncrewed aircraft, which is designed to take off and land vertically from a tail-sitting position, is still scheduled to kick off before the end of the year. X-BAT’s core concept was already highly ambitious, but an extremely aggressive timeline to reach some degree of operational capability through the U.S. Navy’s Runway Independent Maritime Expeditionary Strike (RIMES) program has now been disclosed.

TWZ got an update on X-BAT, which we were first to report on in-depth last year, in an interview yesterday with Shield AI’s Armor Harris, Senior Vice President and General Manager of the company’s aircraft division. This came ahead of today’s announcement that the company has received an additional $150 million in funding from the Office of the Under Secretary of War for Acquisition and Sustainment through its Defense Exportability Features program via the Navy. This is on top of the $50 million investment the Navy, in cooperation with the Pentagon’s Defense Innovation Unit, made in X-BAT’s development earlier this year as part of the RIMES effort. Shield AI has committed an equivalent amount of internal funding, for a combined total of $400 million.

“In broad strokes, the last year has been a bunch of collaborative risk reduction with the Navy. So, wind tunnel testing, engine testing, thermal testing, all kinds of stuff to basically take the major risks in the program, [and] burn them down, so we can move confidently into the production design,” Shield AI’s Harris told us. “The last culmination of the risk reduction is the flight testing of the two full-scale prototypes. The first one of those will be done at the end of October.”

“That’s a full-scale vehicle,” he continued. “It’s got the outer mold line, it’s got the F110 engine, the full propulsion path, everything in it.”

To date, Shield AI has only shown models of the X-BAT publicly. A new one displayed at the Navy League’s Sea-Air-Space 2026 exposition in April revealed major changes to the core design. This included a complete reworking of the planform from a ‘cranked kite’ type arrangement to one with a distinctly different arrowhead-shaped profile featuring a straight leading edge with a more dramatic sweep.

The video below includes clips showing the original X-BAT design and the current one.

The aforementioned “propulsion path,” testing of which has already been conducted on the ground, primarily consists of the General Electric F110 paired with an Axisymmetric Vectoring Exhaust Nozzle (AVEN). The nozzle was originally developed in the 1990s for an experimental thrust-vectoring F-16 fighter. Shield AI is using the original AVEN, which had been in storage for decades, to support development of X-BAT. The nozzle will provide pitch and yaw control, with roll control for the drone coming from bleed air routed through thrusters in the drone’s wings.

No runway, no problem.

Shield AI and @GE_Aerospace just cleared a critical path to vertical flight, completing engine light-off testing of the Axisymmetric Vectoring Exhaust Nozzle (AVEN) for X-BAT.

Engineers from both companies integrated the AVEN into GE Aerospace's… pic.twitter.com/OxV3y3sRKB

— Shield AI (@shieldaitech) July 20, 2026

Shield AI has previously said that the roughly fighter-sized X-BAT will have a maximum range of 2,000 nautical miles and a service ceiling of around 50,000 feet. The company has also said in the past it is targeting an effective combat radius roughly twice that of the F-35, or around 1,340 nautical miles, but also that it could be closer to 1,000 nautical miles. Space has been made within the X-BAT design for a potential in-flight refueling capability, but there is no active work yet to integrate that feature.

In terms of payload, X-BAT’s design includes internal weapons bays roughly the same size as those on the F-35, as well as two external hardpoints under the wings. Those hardpoints are plumbed, meaning that range-extending drop tanks, or even buddy refueling stores to allow the drone to act as a tanker, could be carried. Baked-in modularity and open-architecture mission systems are intended to make it easier to fit various sensors, data links, and other capabilities down the line.

“X-BAT’s really designed to be a multi-role capability, and, if you look out at the 10-20 year time horizon, it’s hard to predict what the future fight is going to look like,” Shield AI’s Harris noted. “We fundamentally believe that multi-role capabilities are critically important. And, so, X-BAT, the reason why it’s sized to where it is is [sic] to be able to carry serious strike weapons internally and externally, in addition to being able to do air-to-air [combat], electronic warfare, and other mission sets.

“You could think of it as like X-35 versus F-35,” he also said yesterday when asked about any expectations now for further changes between the initial pair of prototypes and the final production design.

Lockheed Martin’s X-35 demonstrators are, in very broad strokes, similar to, but distinct from any of the resulting variants of the Joint Strike Fighter. Shield AI has notably already talked in the past about integrating more low-observable (stealthy) attributes to the exhaust end of the design down the line.

“Then we’ll get into flight testing around the end of this year,” Harris added. “We’ll be doing vertical takeoff and landing testing with that [the initial prototypes] to actually prove out and develop the VTOL [vertical takeoff and landing] technology for X-BAT.”

Shield AI’s X-Forge 2 facility at the Newton City-County Airport in Kansas is set to be the main flight testing hub for X-BAT, as well as the focal point for sustainment of the drones. A production facility, X-Forge 3, is also being built in Des Moines, Washington. The company’s original site, X-Forge 1, is in Frisco, Texas.

In terms of the actual flight test campaign, “you remember the X-BAT system has the air vehicle and the launch and recovery vehicle, which is the trailer that it launches and lands from,” Harris said. “Basically, the way the testing works is, we start with the vehicle horizontal, sitting on that launch and recovery vehicle, running the engine. Then we bring it up vertical, run the engine vertically, run the vehicle vertically.”

“Then we have one of the biggest cranes in the world that’s getting set up at our test site in Kansas right now, and we hang the vehicle suspended from that crane and do a bunch of testing while it’s hanging from the crane in free flight,” he continued. “Then we take the crane away, and then we do the actual untethered flights.”

Shield AI’s goal is to fly a fully missionized X-BAT in 2028 and start series production the following year.

On top of that, “the way that the [RIMES] program has been structured is getting to an early operational capability in 2029 is the end goal,” Shield AI’s Harris said.

When asked if this meant that RIMES is aiming “to eventually arrive at not just a demonstration of capability, but a real operationalized capability,” he said that was “correct.”

We will come back to this more later on, but suffice it to say up front, the prospect of X-BAT reaching an operational level of maturity within three years is extraordinarily ambitious, to say the least.

In the meantime, Shield AI has already been testing the mechanisms to “latch and unlatch” X-BAT to the launch and recovery system using an unpowered “battleship” test article, according to Harris. The design of the launch and recovery system has also evolved, and it is now self-propelled, at least to a degree, rather than just being a towed trailer.

“The launch and recovery vehicle is actually critical to the operation of the X-BAT weapon system because it enables survivability on the ground. So when you’re operating in a land-based environment, it enables basically shoot-and-scoot tactics,” Harris also noted. “Enemy transporter-erector-launchers [for missiles] are like pretty hard to find because they’re constantly moving around. Just like X-BAT, when it’s mated onto the launch and recovery vehicle, [it] is always moving around, makes it hard to track, hard to find, hard to destroy.”

The plan now is to “build the one-to-one launch and recovery vehicles to air vehicles. So the air vehicle is always on the trailer. It never comes off of it,” he continued. “Even maintenance to the air vehicle is done while it’s sitting on that launch and recovery vehicle.”

“In fact, we’re actually planning on building more than one-to-one of the launch and recovery vehicles, so that way you can preposition them around different islands, different places in the theater, and have multiple places the aircraft can lily pad from,” he added. “But you’re never putting multiple aircraft onto one launcher and launching them or something like that.”

“When you typically operate a jet, there’s a whole bunch of ground carts and stuff that you bring, like the ground power cart, the ground cooling cart, the air start cart, etc,” Harris further elaborated. “So we’ve moved a lot of those systems onto [the] launch and recovery vehicles, so you don’t have all these separate carts, which is pretty critical when you’re trying to do expeditionary operations.”

“The model for land-based operations is kind of a hub-and-spoke type model. So the squadrons are based at air bases. All the fuel and the weapons are generally based at the air bases, as well. But then you can distribute the aircraft all over the airfield,” he continued. “So, you think about what the enemy’s doing, they’re targeting the runways, they’re targeting the tarmacs, but you can disperse the aircraft around the perimeter of the airfield. You can launch them from the golf course. You can launch them from empty space in the taxiway, etc.”

Harris said that another “spoke” could be X-BATs operating from forward arming and refueling points (FARP). All of this is part of larger concepts of operations for the drone that Shield has been envisioning, and that are not at all limited to deployments at locations on land. Harris noted during the interview that the self-propelled nature of the current launch and recovery system would also help with moving the drones around on virtually any ship with sufficient deck space. This is where the RIMES program, which is separate and distinct from the U.S. Navy’s carrier-based Collaborative Combat Aircraft (CCA) drone ambitions, really comes in.

“I’ll say the fundamental value proposition of RIMES is that if you have a carrier-based CCA, you’re fundamentally constrained by the square footage of the deck of the aircraft carrier,” Harris explained. “So if you are taking an F-18 or an F-35 off, you better be replacing it with better capability per square foot of deck space than the thing that you’re taking off.”

“So, F/A-XX [the Navy’s sixth-generation carrier-based fighter, now to be built by Boeing] is a huge leap in capability, right? Which is why that program makes a lot of sense,” he continued. “The challenge with CCA is: Does it really make sense to take a manned aircraft off of an aircraft carrier and replace it with an unmanned aircraft?”

Shield AI’s argument here is that X-BAT disrupts this core equation by opening the door to a CCA-like capability, or even something more capable, that can be employed in a ship-based mode without sacrificing any crewed aircraft capacity on an aircraft carrier. Shield AI envisions dozens of X-BATs being employed from amphibious assault ships, as well as other kinds of amphibious warfare ships, including expeditionary sea base type vessels, as seen at the top of this story.

“So when you think about the number of carrier air wings that the Navy has to deploy, deploying X-BAT across all these other ships basically significantly increases the number of carrier air wings,” Harris said.

As already mentioned, the current structure of the RIMES includes a target for an early operational capability in 2029, according to Harris. “We have a program defined to get there, and there’s basically milestone-based payments along the way, so as Shield performs and hits milestones, then the Navy kicks in additional funding,” he added.

“I don’t want to get ahead of the Navy, and give you a specific number, but like hundreds to low thousands,” he also said when asked if there was even a very rough planning figure for the eventual size of the RIMES drone fleet.

Many questions remain about X-BAT, which still has to demonstrate the viability of its vertical takeoff and landing capability, which underpins everything else. As we noted in our original in-depth report on this design, the core concept here is not new, and there have been many unsuccessful attempts to operationalize it in the past. There has been skepticism that Shield AI’s effort will succeed where others have failed. The company is of the view that groundwork has now been more firmly laid, including through its own work with its much smaller internal combustion-engine-powered V-BAT tail-sitting VTOL drone, to truly realize a design of this kind.

The performance and capabilities that Shield AI expects from X-BAT once it is flying at all are also ambitious. A high degree of autonomy is also part of the full planned package, which will leverage the company’s already extensive work in this domain with its Hivemind software.

There are also questions about the Navy’s exact plans for RIMES, as well as its broader future drone fleets. Just this year, the service has issued several contracting notices pointing to rapidly evolving views about future carrier-based strike drones and other uncrewed aircraft. New requirements that Naval Air Systems Command (NAVAIR) released in August ostensibly for future CCA-type drones notably pointed more toward something that sounded very much like an advanced uncrewed combat air vehicle (UCAV), as you can read more about here.

Whether the 2029 operational timeframe the Navy is said to be aiming for under RIMES is firm, or even realistic in any way, remains to be seen. The actual definition of what constitutes an “early operational capability” could be very flexible, as well. It is also worth noting here that Shield AI is not the only company currently conducting work under RIMES. Whether the Navy might be planning to acquire more than one design through this program is unclear. We have reached out to the service for more information.

Other services could be interested in any operational capability produced through the RIMES effort, too. TWZ regularly highlights how runway-independent drones would be particularly well-suited to the U.S. Marine Corps’ new expeditionary and distributed concepts of operations. That service is already in the process of acquiring MQ-58B Valkyrie drones from Kratos that will be able to operate from conventional runways. They will also be capable of runway-independent launches, though they will still have to land conventionally. The baseline Valkyrie design lands via parachute.

Aviation Week has reported separately today that Shield AI is looking to pitch the X-BAT to the U.S. Army as a successor to that service’s fleet of MQ-1C Gray Eagle armed drones.

In general, runway independence is of growing interest elsewhere across the U.S. military as threats to large, established bases continue to expand in scale and scope. The proliferation of various tiers of weaponized drones is a particularly significant factor in this, as TWZ just examined in detail this week in the context of the recent withdrawal of B-1 bombers from RAF Fairford in the United Kingdom. Ever more capable cruise, ballistic, and hypersonic missiles are also part of the full threat picture.

The conflict with Iran has also underscored the limits of what can be gained survivability-wise by dispersing traditional fixed-wing aircraft, especially within an existing airbase. As highlighted earlier, X-BAT could be dispersed very differently to nearly anywhere within a facility that can handle the thrust from the F110 engine in hover.

As it stands now, we are set to get our first view of a full-sized X-BAT prototype within the next few weeks as Shield AI continues to gear up for the start of actual flight testing before the end of the year.

Contact the author: joe@twz.com

The post Navy Doubles Down On X-BAT VTOL ‘Fighter’ Drone Development appeared first on TWZ.

The testing plan for the U.S. Air Force’s sixth-generation F-47 fighter is continuing to take shape ahead of the type’s expected first flight in 2028. The Air Force Test Center (AFTC) aims to blend developmental and operational test elements, and leverage new tools in the virtual realm, to help accelerate that work. All of this is in support of an aggressive program schedule that aims to see the first production F-47s enter operational service in the early 2030s.

Air Force Brig. Gen. Mark Massaro, head of the AFTC, was asked about how the groundwork is being laid for F-47 testing during a virtual talk the Air & Space Forces Association’s Mitchell Institute for Aerospace Studies hosted yesterday. AFTC is located at Edwards Air Force Base in California, which is the Air Force’s main flight testing hub.

“So, I’ll leave timelines to the [F-47] program office and other folks to talk to, but what I will tell you are some of the things that we’re doing to accelerate our test capabilities to get critical capabilities out the door,” Massaro explained. “Integrated test is a key component.”

“So, how we mix together the DT [developmental test] and OT [operational test] elements, how we bring our operational test partners in earlier to define the requirements early on in the test planning process,” he continued. “We understand that the information that we can get early on in a program may have applicability to that final operational test requirement to establish whether it’s effective and suitable to the end user. So that’s a key component to accelerating test capabilities.”

There has always been overlap in development and operational test efforts for new U.S. military aircraft, but the Air Force has been taking steps to more deeply integrate these processes in recent years. The F-15EX Eagle II fighter, which reached initial operational capability in 2024, was the first ever Air Force aircraft to be fully tested and fielded through DT and OT efforts conducted in parallel, as you can read more about here. The service has more recently applied these concepts to the B-21 Raider program with test flights where developmental and operational test pilots have shared the cockpit.

“Another thing that we’ve learned over time too, if you think back to software testing and you think about agile software development, is having an iterative capability that you constantly iterate on,” Brig. Gen. Massaro also highlighted yesterday. “So, thinking about how we can structure our software, or our software testing, our capabilities testing.”

In this way, “we have those opportunities to inform decision makers on a regular cadence on what type of capability they may have at a certain timeline to be able to issue out to a warfighter on a time that might not be a normal milestone chart,” he continued. “We’re really working to incorporate into our test planning processes.”

“Another thing – and I kind of alluded to it a little bit earlier, too – is on the digital front, using our software tools, that super intelligence, graphic processing units, which have a significantly higher capability to process information, to really refine model iteration,” the AFTC head added. “Those models and flight test data [can be used] to update things like computational fluid dynamics when you’re doing tests like loads and high-alpha maneuvering to get information quicker from a flight test back into the program.”

Those “digital tools” can also be used “to accelerate how that information then goes back into a design choice or change if they need to make it,” he continued. “Coming up with those opportunities to use those tools in a test design and in a program” can then further help “to accelerate that final schedule delivery.”

Even very high-fidelity modeling in the digital realm is still not a substitute for real-world flight tests. However, Brig. Gen. Mark Massaro spoke more generally yesterday about how AFTC has been blending digital and live testing to maximize their respective benefits.

“We use models to develop our capabilities, and we need to anchor those models in truth, in physics, and an understanding of what happens in the real world,” the AFTC head stressed. “Outside of a cyber system, all of our capabilities touch the real world and touch physics, and we need to understand those dynamics. So, the models that we use to do design work, to do iterative type[s] of developmental work, and, in ways, operational work, too, need to be anchored in that real world truth.”

At the same time, “we can’t replicate what we need to go and test, and develop tactics and operationally test, in the real world on some of our ranges,” he also noted. “So, from a geographic perspective, just the width and the depth and the height of the ranges to the laydown of the systems that we have to see on the ranges to be able to execute against a threat, [and] the numbers that we might have to be testing.”

Blending real and virtualized elements can therefore be very valuable.

An “element that we’ve done in the developmental world for quite a while, that are [sic] part of this conversation, are plugging in, even though it’s a virtual environment, plugging in real world hardware into that virtual environment,” Massaro offered as one example. “So, you’re getting real-world software, the OFPs [operational flight program software], or you’re getting real-world sensing information coming into that virtual environment and feeding it there.”

Virtualized elements can also be added to real-world flight test events in various ways. The Air Force, among others, is also making use of these so-called live, virtual, constructive (LVC) concepts for training purposes for many of the same general reasons, including limited range capacity.

It is also worth noting here that the F-47 program is already benefiting from years of flight testing in secret using full-scale demonstrator aircraft. A substantial amount of simulation and modeling would also already have been done as a byproduct. A simulator likely already exists, as well, which could be used for risk reduction and fine-tuning of the F-47 design, as well as testing flight dynamics.

The Air Force has also leveraged its F-22 Raptor fleet to help in the development of relevant advanced capabilities. Back in 2023, the service announced that it was outright transforming its existing F-22 test force into one that would support the broader Next Generation Air Dominance (NGAD) initiative. F-47 is part of the larger NGAD effort, as is the Collaborative Combat Aircraft (CCA) drone program, along with work on new weapons, jet engines, and more.

Though much about the F-47 program remains highly classified, the Air Force has consistently said that the program continues to be on track. Prime contractor Boeing is now building the first flying example, and construction is already well underway to establish a full production line. As mentioned, the target date for a first flight is currently in 2028, ahead of operational fielding in the early 2030s. As an aside, Boeing has also now won the contract to develop the Navy’s sixth-generation carrier-based fighter, currently referred to as F/A-XX.

AFTC is doing its part now to be ready to support the flight testing that will be needed to keep the F-47 program on track in the coming years.

Contact the author: joe@twz.com

The post How The Groundwork For F-47 Flight Testing Is Being Laid appeared first on TWZ.

The UH-60 Black Hawk has been the rugged workhorse of U.S. Army aviation for nearly 50 years, with around 4,000 examples currently in service with 36 nations worldwide. Many of these helicopters, and new aircraft coming off the line, are set to fly as far out as 2070, and Sikorsky is curating a suite of upgrades to keep them valuable assets for the future fight. A new “digital backbone” is designed to underpin swift technological insertions such as launched effects, with related initiatives including the provision of more power to lug greater payloads, and the fully-autonomous U-Hawk cargo drone variant.

“As part of an overall “Black Hawk 2070” modernization effort we’re developing a number of complementary capabilities, including our U-Hawk uncrewed cargo variant, which we plan to fly later this year,” Jason Wrigley, Sikorsky’s director of business development for Black Hawk, told TWZ at the company’s Stratford plant in Connecticut.

“A new digital backbone for the Black Hawk is at an advanced design phase in our labs and it’s designed to provide interfaces throughout the aircraft that will provide power, data, a network, cooling and most importantly, open architecture interfaces that enable the easy integration of new equipment, such as sensors. We see this as a core building block for the next generation of Black Hawk, along with new engines and other airframe improvements designed to futureproof the platform.”

The new digital backbone is designed to work in concert with a modern, software-driven strategy that meets the Army’s Modular Open Systems Approach and the desire to add technologies cheaper, faster, and more easily. Wrigley says that as customers identify new capabilities and needs for their Black Hawks, the digital backbone will be sufficiently efficient to permit customization even on a mission-by-mission basis. Sikorsky is also introducing a new modular nose to the H-60, which is reconfigurable with sufficient volume to support even more sensors and electronics.

“There’s a big focus on open architecture and that ability to quickly plug-and-play,” says Wrigley. “The new modular nose will change the look of the Black Hawk up front to provide even more space for equipment that will work directly with the new digital architecture.”

The new modular nose will give the Black Hawk more than twice the internal volume of the original nose section and it’s designed to provide space for internal electronics and an integrated mount for external sensor pods. It is designed to provide sufficient space to accommodate electronics that enable roles such as search and rescue, drone control, and flying in degraded environments, and it will also house some of the equipment required as the Black Hawk’s autonomous capabilities expand.

Joshua Powers spent 22 years as an Army Aviation officer flying the Black Hawk, and he’s well qualified for his new role with Sikorsky handling business development for rapid capabilities insertions. “Army units know the Black Hawk inside out; how to fly it, maintain it, and use it to maximum effect. The upgrades we are developing will bring new capabilities faster, without time-consuming and complex changes to sustainment, training, and operations, plus we are adding more range, more payload, and more power to meet the demands of the Indo-Pacific region.”

“I find it amazing to pair new technology with a rugged platform like the Black Hawk. These new innovations are needed to meet the needs of the new complex battlefield. The fight I fought in Iraq is very different from the current operating environment and what future warriors are going to go up against, and what we’re asking them to do is very different from what came before.”

Bringing autonomous co-pilots to the Black Hawk

Autonomy is a central pillar of Sikorsky’s strategy for the future Black Hawk. The company’s MATRIX autonomy software is now being matured on a UH-60M variant, and while it’s not necessarily designed to completely replace pilots, MATRIX will assume some of their workload, making flying safer and simpler as mission sets grow increasingly complex and dangerous. “Pilots that are controlling collaborative drones, for example, need to be able to focus on the drone mission, and autonomy will help lighten their cognitive load,” explains Wrigley.

“The standard Black Hawk crew operates with two pilots. Adding our MATRIX autonomy system gives the operator options – a single pilot could fly without an unbearable workload and still fulfil a mission commander role, for example. The Army could then operate the Black Hawk with no pilots at all when that’s the appropriate option.”

Sikorsky’s MATRIX autonomy has been developed on the company’s UH-60A fly-by-wire Optionally Piloted Black Hawk, which has been tested by Sikorsky and Army aviators. MATRIX has accumulated more than 1,000 flight hours across 500 tests and demonstrations. It has already been integrated on over 20 different platforms, including on the Black Hawk for testing by the Defense Advanced Research Projects Agency (DARPA) and the U.S. Army in multiple exercises.

“We delivered the first UH-60MX to the Army earlier this year,” says Wrigley. The delivery marked the first full authority fly-by-wire and optionally-piloted UH-60 in the Army fleet. “They are using it for testing and soldier feedback to develop tactics, techniques and procedures for the autonomous Black Hawk. We have since received a contract to deliver three more MX aircraft to the Army.” 

MATRIX autonomy kits have now been installed on all three U.S. Army Black Hawk models; the UH-60A, UH-60L and UH-60M. Sikorsky plans to incorporate autonomy options into all Black Hawks as they are built, plus the MATRIX system will be able to be retrofitted to existing examples.

Powers is well aware of the benefits autonomy will provide from complex combat operations to more mundane day-to-day missions. “Flying at night and seeing the tracer fire coming up at you, things like that, I honestly feel that’s not the big threat. It’s when you’re going to land and there’s just a big dust cloud. When you’re tired, you aren’t as focused. Having MATRIX, whether that’s with one, two, or no pilots, it’s about that reduced workload on the mission. Pilots won’t be as fatigued, plus they have the safety net of a fully autonomous aircraft that can, if needed, land in all of those difficult environments. It will give commanders more operational flexibility and the ability to mitigate risk in less-than-ideal conditions dictated by the enemy or weather.”

“The Black Hawk operation isn’t just about pilots, it’s also that integrated four-person crew. As a pilot, you’re relying on your senses and also on the guys in the back to watch out and tell you where you’re going. MATRIX is just going to help that team effort and put you in a better position to bring the crew back safely. It integrates all the systems and sensors and uses altitude, airspeed, radar altimeter, drift indications, and puts the fly-by-wire technology to where it can make rapid adjustments and changes based on what it’s seeing with the sensors.”

The volume of testing, the maturity, and the confidence in MATRIX helped Sikorsky to develop the S-70UAS, or U-Hawk, which was unveiled in 2025. The U-Hawk project essentially removes the cockpit and its associated equipment from a Black Hawk and replaces the front end with cargo doors to provide a huge internal space as a supply drone.

“We acquired a used UH-60L Black Hawk as the template for our initial U-Hawk. We added the clamshell doors and that was the actual aircraft that we showed at AUSA last year,” says Wrigley. “Since then we’ve been adding the fly-by-wire and integrating the MATRIX autonomy. It’s currently in our innovations hangar in Bridgeport, Connecticut, getting the final work done and it will make its first flight as a U-Hawk later this year.”

Sikorsky sees the U-Hawk as a natural evolution for the Black Hawk in contested logistics missions, when cargo needs to be moved but the threat is sufficiently high that it drives a need for uncrewed platforms to tackle the mission. 

“We’re spending a lot of time on the U-Hawk and its roles. As well as being an uncrewed cargo helicopter, it can also be a truck that can carry a large volume of launched effects,” explains Wrigley. “There are Black Hawk models on the market right now that are being divested, and we see those as being an ideal option for conversion to U-Hawk configuration to affordably introduce this capability to the market.”

Drone dispenser

The integration of small drones dubbed ‘launched effects’ into rotary-wing operations is a major initiative from the Army as a new means to collect intelligence for commanders on the battlefield, relay communications, jam and distract enemy emitters, and act as loitering munitions. These mini air-launched drones can be carried and fired from stub-wing-mounted launchers, with other concepts seeing larger volumes of them carried inside the cabin as a “mega-pack,” with Sikorsky seeing both as being highly-applicable to both the Black Hawk and the U-Hawk.

This is exactly the kind of capability that the digital backbone in the Black Hawk is intended to open the door to; installing plug-and-play drone command kits, which could enable the Black Hawk to act as a “drone mothership” to launch, task, and command swarms of multi-mission launched effects.

The Army tested its latest operational concepts for launched effects during the Project Convergence Capstone 6 demonstration event this summer. This annual exercise is designed to develop concepts and tactics as well as gather soldier feedback, as it works to transition new systems into service. The latest exercise built on previous launched effects testing on the Black Hawk, when a UH-60M deployed Anduril’s Altius-700 launched effects that then operated as an autonomous hunter-killer team to locate targets, share data on those targets, and then strike them, without the need for the Black Hawk to expose itself to threats.

“As a young Black Hawk pilot, the OH-58 Kiowa Warrior was the primary scout platform, but it was limited by range and its ability to be detected,” explains Joshua Powers. “Today, we launch small drones that can remain unseen and they can give us real-time feedback. Launched effects make our lift assets more capable.”

“We see the Black Hawk as the aircraft capable of carrying, deploying and then acting as an airborne mission command node for launched effects,” adds Jason Wrigley. “In the operational environment of the future, it’s really about the mass of those launched effects. This isn’t about carrying one or two of them, this is about carrying and controlling a large number of them.”

“We’ve tested them on the stub-wings, but we are also exploring what we call “quiver” – that large number of launched effects inside the cabin in that “mega-pack.” This creates additional opportunities for mass that we think is going to be really critical. We’ve done a lot of operational analysis in concert with the Army on what the right mix of launched effects might be to extend the standoff range of the aircraft to improve survivability – which is of course what it’s all about – but the right mix will ultimately come down to the mission. We have seen a lot of testing over the past few years, so we do believe this is a capability that can be introduced operationally soon on the Black Hawk.”

More power for more missions

To support the increased lift that might be needed for a missionized Black Hawk lugging large payloads, including an arsenal of launched effects, Sikorsky is well along in development of a new engine that is designed to create over 1,000 pounds of increased payload capacity and increased range for the Black Hawk. The T901 Improved Turbine Engine (ITE) from GE Aerospace provides 50 percent more horsepower over the existing T700 engines in the UH-60M.

“One of the key building blocks of the future of the Black Hawk are the twin ITEs as we look to expand the mission capability and the utility of this aircraft for decades to come,” explains Wrigley. Sikorsky began initial testing of the first UH-60M with ITE in January 2025. “We are actively in the test program right now at our test facility in West Palm Beach, Florida. The twin ITEs in each Black Hawk and that additional power translates into some pretty significant operational opportunities. Since our first flight with ITE in May 2025 we’ve flown the aircraft with the new engine for over 50 hours and up to 17,000 ft above sea level.”

Sikorsky is accompanying the addition of the new engines with a significant expansion of the fuel tank to increase capacity and range. This is being done without impinging on cabin volume and thus retaining the important ability to transport 11 combat troops, while increasing range by around 100 nautical miles. “The T901 also improves fuel efficiency and eases maintenance – so overall we are really improving the payload capacity of the aircraft. We’ll be getting to the milestone C production decision on ITE within the next couple of years, and at that point it will become a core element of the Black Hawk program going forward,” Wrigley explains.

Building Black Hawks

Touring the Black Hawk production line in Stratford, Connecticut, it’s a hive of activity. Many of the major components for each helicopter are manufactured here. The long final assembly line sees teams of workers busily constructing UH-60M and HH-60M medevac Black Hawks for both domestic and foreign military sales customers, along with new HH-60W Combat Rescue Helicopters for the U.S. Air Force and MH-60R Seahawks.

“We’re designing all of these upgrades with the intent that they will all be available off the production line in new build aircraft, as well as in kit form for upgrades to existing assets in the field,” notes Wrigley. “Here in Stratford in what we call the “back shop” we build all the rotor blades, gearboxes, and many other components that go into each aircraft. We are already thinking ahead and we’ve invested significantly into additive manufacturing, with 11 parts on the Black Hawk today that are additively manufactured. It’s a great place to start, but there’s a long way to go and we’re working on qualifying more challenging components and load-bearing parts.”

Cohesively, the digital backbone, larger fuel tank, new engines, and the new modular nose will all be introduced on the production floor in the coming years to pave the way for that increased payload capacity to carry fully-equipped combat troops, supplies, and all the new kit needed for the future fight and the Black Hawk’s role as a multi-mission forward battlefield node. The autonomous U-Hawk and the optionally piloted flexibility afforded by MATRIX – all of these pieces of the future Black Hawk are presently coming together under an overarching effort.

“The future Black Hawk will be that complement to the future long-range MV-75 Cheyenne II,” says Powers. “These won’t be a one-for-one replacement for every Black Hawk currently in the fleet – the MV-75 has a specific purpose and function that the Black Hawk isn’t designed to do. What the Black Hawk can do with these new upgrades is shape the battlefield and with its autonomy be out there flying missions into contested environments.”

“Those homeland missions are equally necessary. I recall talking about this in flight school when choosing an aircraft to fly, how it’s one thing to be deployed on combat missions, but it’s also about being back in the homeland on disaster relief when you need the Black Hawk to go out and save lives, those kinds of missions the Army National Guard does – it really underlines the importance and versatility of the Black Hawk.”

Over the past 50 years and looking ahead to the next 50, continuing the proven legacy of the Black Hawk will mean constant evolution to meet new missions and needs. Sikorsky’s task is for all of these new elements to meld into a future Black Hawk that’s ready to roll off this production line soon, that still also provides the same dependable, rugged capability for the Army at home or overseas, well into the future.

The post Sikorsky’s “Black Hawk 2070” Strategy Includes Drones, New Engines, And Flying The Pilotless U-Hawk This Year appeared first on TWZ.