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.

As part of the largest U.K. Commando Force exercise in 15 years, British special operators conducted a submarine insertion off Scotland, making use of a German Navy Type 212A — a boat you can read about in detail here. The maneuvers are the first time since the war in Afghanistan that all of the Commando Force’s specialist elements have operated together. The submarine insertion, conducted at Cape Wrath on September 29, is part of Exercise Strike Warrior, a major NATO drill intended to rehearse allied crisis-response and warfighting operations across the North Atlantic and High North.

The U.K. Royal Navy-led Commando Force specializes in amphibious, littoral, and expeditionary operations. It brings together Royal Marines commandos with specialist elements including reconnaissance, intelligence, targeting, artillery, logistics, and medical capabilities. The force is increasingly focused on smaller, dispersed teams operating across contested littoral environments.

Including elements of the Commando Force, more than 2,000 personnel from the United Kingdom, United States, Germany, Netherlands, Canada, and Norway are currently participating in Strike Warrior, with eight warships and 19 aircraft involved in activity spanning Scotland, the Western Isles, the North-West Approaches, Galloway, the Borders and the North Sea.

The submarine insertion underscores the type of maritime special operations the British Commando Force is now increasingly training to conduct. Personnel from 148 (Meiktila) Commando Forward Observation Battery, Royal Artillery, boarded the unnamed German attack submarine off Scotland before being infiltrated toward the coast. The sub provided intelligence, surveillance, and reconnaissance (ISR) support as the force approached the target area, after which the commandos conducted a discreet small-boat insertion using inflatable raiding craft.

Once ashore, the commandos moved onto the cliffs and established an extemporized observation post. From there, they confirmed the simulated target and coordinated live naval surface fires against a simulated enemy position. Here, firepower was provided by the Portuguese Karel Doorman class frigate Dom Francisco de Almeida, presumably using its Oto Melara 76mm deck gun. Following the engagement, the team was extracted. The complete sequence incorporated submarine infiltration, small-boat insertion, covert reconnaissance and targeting, live naval gunfire, and withdrawal into a single mission profile.

The German submarine involved is particularly well suited to this kind of mission. Conventional diesel-electric attack submarines (SSK) lack the nuclear-powered endurance and sustained high speed of an SSN, but those characteristics are not necessarily what a short-range clandestine insertion mission requires. Modern SSKs such as Germany’s Type 212A are designed around extremely low acoustic signatures and can remain submerged for extended periods using air-independent propulsion, making them difficult to detect while operating in relatively shallow and constrained waters.

That combination is hugely valuable for special operations. An SSK can approach a coastline covertly, conduct ISR, release a small team and its boats, and withdraw without exposing a large surface vessel or maintaining the high-speed transit capability associated with a nuclear submarine. Its comparatively small size can also be advantageous when operating closer to shore, where depth, seabed conditions and the presence of coastal sensors can constrain larger submarines. Conventionally powered boats are also far cheaper to procure and operate and have smaller crews.

An SSN offers major advantages for longer-range deployments: far greater endurance, sustained speed, and the ability to carry and support larger payloads over intercontinental distances. These payloads can include dry deck shelters and swimmer delivery vehicles, allowing divers easy exit and entrance while the boat is submerged and at a standoff distance from the coast.

But for a mission whose essential requirement is to quietly loiter near a coast, put a small team ashore and leave, an SSK remains a highly relevant platform. Conventional submarines are particularly valuable to the kind of distributed littoral operations NATO is rehearsing in northern European waters.

The U.K. Royal Navy’s four Upholder class were its last diesel-electric submarines. They were withdrawn in 1994–95 and subsequently transferred to Canada. The Royal Navy today operates an all-nuclear submarine fleet.

The Upholders were also particularly suited to inshore operations, reconnaissance, and other missions demanding extreme quietness and maneuverability.

With this in mind, TWZ has, in the past, examined whether the U.S. Navy should complement its all-nuclear submarine fleet with advanced conventional boats. Sweden’s Gotland demonstrated the value of these kinds of boats when it was leased to the U.S. Navy for adversary training and proved exceptionally difficult for American ASW forces to detect.

Returning to the Cape Wrath drill, the 148 Battery operations officer involved explained that “This level of complexity and coordination of live assets has not been achieved by 148 for nearly 30 years.”

“We wanted to demonstrate to our partners across the United Kingdom Commando Force, wider U.K. Defense and NATO SOF community the type of missions we are prepared to execute against future threats,” the officer added.

Multinational integration is central to the exercise. Strike Warrior is testing the ability of the British Commando Force to plug into a much larger allied force in which submarines, surface combatants, aircraft, drones, and small specialist teams can contribute to different parts of the same operation.

Earlier in Strike Warrior, 148 Battery also directed fires from the Dutch Karel Doorman class frigate HNLMS Van Amstel and Royal Canadian Navy Halifax class frigate HMCS St. John’s after establishing observation posts. Those ships were operating as part of Standing NATO Maritime Group One.

The exercise also provides a snapshot of how Britain’s commandos have evolved since their intensive employment in Afghanistan. The Royal Marines’ Future Commando Force concept emphasizes smaller, more dispersed formations capable of operating in contested littoral environments, with greater reliance on maritime mobility, uncrewed systems, long-range fires, and allied capabilities.

Strike Warrior combines those elements, with the exercise including amphibious landings, boarding operations, intelligence and surveillance missions, maritime security, and anti-submarine warfare, alongside drone missions involving strikes and combat resupply. Other elements have practiced establishing protected medical facilities.

The geography of Strike Warrior is equally significant. The exercise extends across Scotland and its surrounding waters, including the Western Isles and out into the North Sea, placing the Commando Force in the maritime environment connecting the highly strategic North Atlantic, Norwegian Sea, and northern European approaches.

That region has become increasingly important to NATO planning because of the difficulty of monitoring and controlling such a large maritime battlespace. Submarines, maritime patrol aircraft, surface combatants, drones, and long-range weapons all have roles to play, while the geography provides numerous opportunities for small forces to operate from the coast and islands.

The United Kingdom has been repeatedly using the region and the wider High North as a training ground for this type of activity. Earlier this year, British commandos conducted a submarine insertion during Exercise Cold Response in Norway using the German Navy’s Type 212A submarine U-35. That also involved submarine infiltration, small-boat deployment, establishment of an observation post, and the direction of allied naval fires.

Strike Warrior expands that concept considerably and across a much larger battlespace, providing an opportunity to test not simply individual capabilities but the ability to combine them during a sustained NATO exercise.

The exercise began September 28 and concludes October 9.

For the British Commando Force, the significance extends beyond the dramatic imagery of troops emerging from a German submarine at Cape Wrath. After years in which British commandos were heavily committed to land-based counterinsurgency operations, the exercise is intended to put them firmly back in a maritime and high-end warfighting context.

This is the kind of operation that the U.K. Commando Force is now preparing to conduct alongside NATO partners in the increasingly contested waters of the North Atlantic and High North.

Contact the author: thomas@thewarzone.com

The post British Commandos Emerge From German Submarine During Major NATO Exercise 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.

Castelion has released what appears to be the first image of its relatively ‘cheap’ Blackbeard hypersonic missile being fired from a ground launcher, providing a new look at the containerized launch architecture now under development for the U.S. Army.

The photograph, posted by Castelion on X, shows a Blackbeard missile leaving a launcher mounted on a high-mobility truck chassis. While the missile itself is by now a familiar sight, the new image offers a first public glimpse of how Castelion intends to package and operate the ground-launched version of Blackbeard, known as Blackbeard GL.

Container-compatible Blackbeard. Built to move with the fight. pic.twitter.com/OzWbiChCPQ

— Castelion (@Castelion) October 8, 2026

The Army’s previously disclosed plans for the program call for an initial Blackbeard ground-launch demonstration using a modified Multiple Launch Rocket System Family of Munitions, or MFOM, pod, followed by the development of Blackbeard GL prototypes and a dedicated launcher pod. Ultimately, the service intends to conduct an MVP flight test using the M142 High Mobility Artillery Rocket System’s (HIMARS) fire-control system.

Blackbeard for HIMARS. pic.twitter.com/uA9XgcGvsI

— Castelion (@Castelion) August 3, 2026

The Army’s Fiscal Year 2027 budget documentation indicates that this effort is moving toward increasingly representative hardware. Among the milestones listed for FY2027 is a live-fire launch of a “production representative” Blackbeard GL and launcher pod.

Castelion has already released extensive imagery of Blackbeard test vehicles, and the company formally unveiled the weapon’s current external configuration earlier this year. Those images showed a two-stage arrangement with a booster and an upper vehicle that has characteristics consistent with a hypersonic glide or maneuvering payload. Compared to the air-launched version, seen below, the ground-launch model lacks the cruciform tailfins at the rear of the lower stage, but otherwise appears similar.

The precise propulsion system and flight profile of the production weapon remain undisclosed. Little is known about its performance parameters, either. Castelion has previously hinted that the missile could strike targets at ranges of just under 500 miles, although its range would likely be reduced when launched from the ground, without the altitude and speed provided by an aircraft launch platform.

The launcher appears to use a relatively compact enclosed container, consistent with the Army’s stated interest in leveraging the existing MFOM ecosystem and, eventually, HIMARS. The photograph doesn’t establish how many Blackbeards could be carried by a single launcher, although, based on the dimensions, at least two and perhaps as many as four missiles appears a feasible load.

Exactly how closely the pictured launcher corresponds to the eventual production Blackbeard GL pod is also not yet clear. Castelion has previously stressed that its test hardware is deliberately designed to support rapid development cycles and should not necessarily be interpreted as representative of the final weapon system.

Castelion had previously shown Blackbeard-related test articles alongside palletized launch equipment, including launch hardware mounted on an Oshkosh MKR18 Logistics Vehicle System Replacement truck. The company has also said it was converting such a vehicle into a launcher for flight testing. That appears to be the vehicle shown in the new image, too.

The Army’s interest in Blackbeard GL is rooted in cost as much as performance.

The service has described the weapon as an affordable, mass-produced hypersonic precision-fire capability intended to engage time-sensitive moving and hardened targets. The stated objective has been to obtain roughly 80 percent of the capability of the Army’s planned Precision Strike Missile (PrSM) Increment 4 while achieving a substantially lower cost per round.

Existing U.S. hypersonic weapons such as the Army’s Dark Eagle Long Range Hypersonic Weapon use large, highly specialized launch equipment. Blackbeard is instead being developed around the idea that a hypersonic weapon can be sufficiently compact, inexpensive, and manufacturable to be treated more like a conventional tactical munition.

A containerized launcher compatible with an existing mobile fires ecosystem would reinforce that concept. It could allow the Army to introduce a new hypersonic effect without creating an entirely separate launcher, crew, transport, and reload architecture.

The ground-launched version is only one part of Castelion’s broader Blackbeard effort.

The company is also working with the Navy to integrate the weapon onto the F/A-18E/F Super Hornet. In April, Castelion received a $105 million Navy contract supporting integration and the transition toward an early operational capability, while a subsequent $23.4 million order covered 50 early-operational-capability pre-production missiles and associated storage and shipping containers.

The Navy has since moved into additional procurement, underscoring Castelion’s effort to establish Blackbeard as a weapon that can be produced in the quantities required. Blackbeard could also find its way onto Navy ships and submarines, as well as ground-based launchers, as we have discussed in the past.

As for the Army, the next major milestone will be the planned production-representative Blackbeard GL and launcher-pod live-fire testing.

“Once Castelion achieves testing and validation, the Department will award a two-year multi-year procurement contract for a minimum of 500 Blackbeard missiles annually, with options to extend for up to five years,” the Pentagon announced in May of this year. “To further encourage Castelion’s self-funded facility expansion, the Department is actively seeking the necessary authorizations and appropriations to purchase over 12,000 Blackbeard missiles over five years.”

This reflects a broader and accelerating U.S. military push for lower-cost precision weapons that can be manufactured relatively simply and at scale, increasingly with help from non-traditional defense contractors. The goal is to build large stockpiles affordably before a major contingency, particularly a potential large-scale conflict with China in the Pacific, while ensuring production can keep pace with demand during a prolonged war.

For now, Castelion has demonstrated what the Army’s Blackbeard launch system actually looks like when it fires, at least in its initial form.

Contact the author: thomas@thewarzone.com

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