Destinus has completed 1,750 Ruta B1 cruise missiles and reached monthly output of nearly 300, the company said on 29 October, telling Reuters this exceeds Europe’s annual cruise-missile production before Russia’s full-scale invasion.
That gives a date for easing a shortage. A looming shortage of mini jet engines threatened to hold back Ukraine’s deep-strike drones, Reuters reported in April. Czech maker ZofiTech was then producing about 200 a month, nearly all for Ukraine, and expected demand to reach thousands within months. Both Ruta versions use the 1.5-kN engines Destinus is promising. Ukraine plans to build more jet drones and cruise missiles, so engine output next year will have to keep up, Defense Express notes.
Destinus builds its own engines, but hasn’t said how many
Destinus CEO Mikhail Kokorich said the company already produces turbojets in the roughly 1.5-kilonewton class in series, supplying them both for its own missiles and to other manufacturers. The Ruta B1 runs on the company’s own T150 engine. In June, Destinus announced its 1,000th T150 and said the line was designed to sustain production of thousands of missile systems a year. The company has not disclosed its current engine output.
Block 2 enters production, Block 3 is due to fly in 2027
Meanwhile, Destinus said it has begun production of the larger Ruta Block 2, designed to carry a 250-kg payload more than 700 km. Unlike the roughly 300-km Block 1, Block 2 is designed to be stored, transported, and launched from the same container. A third version, Block 3, is planned with a 2,000-km range, with flight tests scheduled for 2027.
Ukrainian President Volodymyr Zelenskyy acknowledged the Ruta’s combat use in October 2025. Days later, he said Ukraine expected mass production of Ruta and Flamingo missiles by the end of that year. In June 2026, then-Defense Minister Mykhailo Fedorov said the Netherlands was ready to finance about 700 Rutas for Ukraine, without specifying the version.
Deterrence takes “tens of thousands of missiles”
At the same time, Kokorich said Europe’s problem is shifting from production to integration.
“To have sufficient deterrence, you need to have tens of thousands of missiles,” he said.
European customers, he added, still need to build the military units and logistics to operate missiles in such numbers. Those arsenals would also need storage, transport, maintenance, and targeting infrastructure, he said, and European militaries would need to rethink how they stockpile and deploy precision-strike weapons.
No Chinese parts, and a bet on cheaper, shorter-range missiles
Kokorich said Destinus uses no Chinese components, unlike wartime production in Ukraine, and said access to Chinese suppliers would make manufacturing cheaper, faster, and easier.
Kokorich also argued that cheaper missiles with ranges under 1,000 km would make up most future demand. Separately, Destinus is working with Rheinmetall on cruise missiles and ammunition for multiple-launch rocket systems, including a planned European equivalent of the GMLRS rockets fired by HIMARS.
A small Russian cruise missile of an unconfirmed type came down almost intact in Odesa Oblast, Militarnyi reported on 27 October. Its box-shaped airframe looks unlike the Geran-5 variant whose name a presidential adviser gave it.
Militarnyi describes Russia’s work on the Geran-5 line as iterative: features tested on one version reappear in the next. A variant reported in late September can correct its route by images of the ground instead of satellite signals, which Ukraine jams, according to the monitoring channel Polkovnyk GSh. Official Ukrainian sources have not confirmed that system. The airframe found in Odesa Oblast looks shaped for a different problem: radar. Russia now builds 4,000 jet-powered Geran-4 and Geran-5 drones a month, Militarnyi says, most of them Geran-4. It is also building new launch sites for the Geran-5.
What the wreck shows
Local Telegram channel Odesa Info Live posted photos of the missile lying in open ground with little visible damage. Militarnyi described a compact cruise missile with a box-shaped fuselage, rounded edges, and a swept wing. The flat-sided body is probably meant to simplify production, the outlet said, and it may also cut radar visibility. A small turbojet engine exhausts through a V-shaped tail and draws air through intakes on both sides. Militarnyi read the dark composite skin as another measure against radar.
Serhii “Flash” Beskrestnov, the president’s adviser on defense technology, published the first photos of the new missile on 22 October. He wrote that it navigates optically and has greater range, speed, and flight altitude, and he labeled it the Geran-5 K5-K. However, Militarnyi noted that it looks substantially different from the K5-K variant already known by that name. In its 23 October overview, the outlet said Russia had started using two new small cruise missiles, probably developments of the Geran-5.
How Russia got here
Russia first used the original Geran-5 against Ukraine in early January 2026, Ukraine’s military intelligence (HUR) said, describing it as a jet-powered strike drone. Militarnyi now classes the whole line as small cruise missiles.
Until specialists open the airframe, its navigation, range, and speed rest on Beskrestnov’s word. What they find inside will show how much of the design is aimed at Ukraine’s radar.
Zone 5 has not disclosed where or when the pictures were taken, or which programs, specifically, the ground-based launches were conducted under. The images do not offer a clear view of the trailer-mounted launcher, either. A spokesperson for the company did stress to TWZ that versions of Rusty Dagger have now been selected for separate U.S. Army and Navy programs, in addition to its initial development through the U.S. Air Force.
One of the first images showing the surface-launched version of the Rusty Dagger in action. Zone 5 Technologies
In May, Zone 5, as well as Anduril, CoAspire, and Leidos, received framework agreements from the Pentagon under the Low-Cost Containerized Missile (LCCM) program. The U.S. Army’s Portfolio Acquisition Executive Fires (PAE Fires) is running LCCM in cooperation with the Office of the Under Secretary of War for Research and Engineering (OUSW R&E). The aim of this program is to procure more than 10,000 low-cost cruise missiles, in total, over three years, beginning in 2027.
“We designed a surface-launch Rusty Dagger to be the foundation of U.S. and allied mass-produced affordable precision deep strike weapons,” Tom Kanewske, chief strategy officer at Zone 5, told TWZ in a statement.
“Our team went from design to demonstration in less than three months, bringing Rusty Dagger from pylons and pallets to ground launcher and shipping containers,” added Kyle Maxhimer, Zone 5’s president.
Another picture of a Block 40 Rusty Dagger being fired from a launcher on the ground. Zone 5 Technologies
Zone 5 says the Block 40 version of Rusty Dagger can accommodate warheads in the 100-to-250-pound classes. It can still be configured for air-launch, either from pylons under the wings of aircraft or via palletized munitions systems. In order to be fired from launchers on the ground or at sea, the new version of the missile is fitted with a solid-fuel booster rocket at the tail end.
More specific details about the Block 40’s capabilities compared to the preceding air-launch-only version, also referred to as the Block 20, remain limited. From what we can see now, the two variations appear outwardly similar in many respects, at least broadly speaking. Earlier variations had a distinctive tail configuration with four squared-off fins, two facing upward and two more angled to either side. The shaping of the fins on the Block 40 does look to be more rounded. It’s also possible the missile may have a new cruciform tail fin arrangement, but this could also be a trick of the angle from which the missile is being viewed, coupled with the low resolution of the available images.
A side-by-side comparison of the Block 40 Rusty Dagger configured for surface launch, at top, and an earlier air-launched version, at bottom. Zone 5 Technologies/USAF
Previous reports have said that Rusty Dagger has a range of 300 nautical miles when delivered at low altitude, which is increased to 500 nautical miles when launched by aircraft at medium altitudes and flying at higher speeds. In general, surface-launched versions of missiles typically have shorter maximum ranges compared to their air-launched counterparts.
— Air-Power | NatSec Ledger (@NatSecLedger) June 7, 2025
Regardless, the Block 40 version is an important further evolution of the Rusty Dagger design. The initial air-launched version of the missile, now designated the AGM-188A, has already been in development for several years, in part now under the U.S. Air Force’s Extended Range Attack Munition (ERAM) program. This has included live-fire tests conducted at Eglin Air Force Base in Florida in January 2025. We now know that Rusty Dagger has been cleared for use on four different types of fighters, including the F-16. Development of CoAspire’s Rapidly Adaptable Affordable Cruise Missile (RAACM) was also conducted as part of the ERAM effort.
Three views of a Rusty Dagger live-fire test on January 22, 2025, at Eglin Air Force Base, Florida. The service did not identify the weapon by name at the time. via U.S. Air Force
Like the Navy’s CHAOS effort, ERAM has been focused primarily on supporting allies and partners, starting first with Ukraine. A Zone 5 spokesperson told TWZ that, as things stand, Rusty Dagger remains the only publicly reported operational missile in its class fielded by the Ukrainian military.
It appears that the AGM-188A “Rusty Dagger” cruise missile has undergone field testing in Ukraine.
Russian sources are publishing photos of an unknown 8-element CRPA antenna. On the back side of the unit there is a circuit board with a large heatsink, which carries the CAGE code… pic.twitter.com/phZeOJfHJ0
— 𝔗𝔥𝔢 𝕯𝔢𝔞𝔡 𝕯𝔦𝔰𝔱𝔯𝔦𝔠𝔱 (@TheDeadDistrict) June 7, 2026
ERAM has also been feeding into the Air Force’s own Family of Affordable Mass Missiles (FAMM) plans. The service wants to acquire 28,000 FAMM munitions in pylon-launched and palletized configurations over the next five years.
A U.S. Air Force F-16 carrying a pair of Rusty Dagger missiles, as well as other stores, under its wings. U.S. Air Force photo by Staff Sgt. Blake Wiles
As we reported earlier this year, Rusty Dagger is now part of a broader portfolio under Norwegian defense company Kongsberg, which acquired a 90 percent stake in Zone 5. Kongsberg has positioned the missile alongside its stealthy Joint Strike Missile (JSM), with the two weapons serving different, complementary roles.
KONGSBERG announced today that it has closed the acquisition of US missile company Zone 5 Technologies LLC, following approval by US regulatory authorities.
Rusty Dagger is designed around affordability and volume, while JSM offers a sophisticated, low-observable strike capability. The concept gives customers a mix of weapons suited to different targets and mission requirements, rather than relying exclusively on expensive, high-end missiles.
Zone 5 says it is now expanding manufacturing in the United States. Production is established in San Luis Obispo, California, with production beginning in the Dallas-Fort Worth area of Texas. A franchised facility is also being developed in Miamisburg, Ohio, with Hawthorn Aero, a company that describes itself as specializing “in high-rate airframe manufacturing, offering scalable solutions from design to full vehicle integration for aerospace industries.”
The company says each site is designed to reach a capacity of more than 2,500 missiles annually by the end of 2027. If all three reach that level, combined annual capacity would exceed 7,500 missiles.
The expansion reflects the growing emphasis on affordable weapons that can be manufactured in large quantities and replenished quickly, something that is considered especially critical if the United States is to face China in a future high-end conflict in the Indo-Pacific region.
The ground-launched Rusty Dagger shown in the photos underscores how far the missile family is moving beyond its original air-launched role. With production expanding and multiple U.S. military programs in the picture, the surface-launched variant adds another potential route to getting the weapon into service.
Ukraine’s military intelligence (HUR) published a 3D model and parts list of Russia’s new Filin cruise missile on 22 October. The breakdown names the Russian companies behind the missile and the foreign makers of its electronics.
HUR runs its War&Sanctions portal to trace such parts back to their makers. Its stated aim is to “deprive the aggressors of the ability to produce weapons for terror,” the portal says. Meanwhile, Russia is betting on cheap, fast cruise missiles, Serhii Beskrestnov, a freelance adviser to the president on technology, told Radio NV in mid-September. Naming the Banderol, Dan-T, Dan-M, and Gerbera-5, he warned they would soon outrun Ukraine’s jet-powered interceptors, so Ukraine needed its own cheap missiles to shoot them down.
Composite body, ground launch
JSC NPO Molniya, part of Russia’s Tactical Missiles Corporation, builds the Filin, HUR said. The agency called it part of a Russian defense-industry trend toward cheap jet-powered, ground-launched air-attack weapons. Russia began firing it at Ukraine in late summer 2026.
HUR’s data puts the carbon and fiberglass fuselage at 3.5 m, with a 3 m wingspan. Some parts are 3D-printed. Russia claims a top speed of 800 km/h. The range is 600–1,200 km, and the missile flies at ultra-low altitude or up to 6 km. Versions carry 50-kg or 100-kg warheads. A solid-fuel booster fires it from a ground launcher.
A firm tied to a Shahed-type drone
PLAZ LLC makes the onboard equipment, HUR said. The firm also helps produce the Garpiya, a version of Russia’s Shahed-type Geran-2 drone. Filin and Garpiya units share a similar layout and markings. Guidance combines a Chinese-made inertial navigation system with a 16-channel Kometa anti-jamming module from Russia’s VNIIR-Progress.
The electronics resemble those in other Russian missiles and drones but carry a larger share of Chinese parts. Of 81 components, 35 are American and 22 Chinese. The engine, however, is Russian: an R500 turbojet from Reynolds LLC. A similar engine earlier turned up in the S-71K Kover aviation cruise missile and S-71M Monokhrom, HUR said.
For comparison, Ukraine found more than 20 foreign components in a different cheap missile, the Banderol, in May 2025. They included 10 US microchips, and the Banderol flies on a Chinese jet engine.
Denmark will guarantee a loan to the Danish subsidiary of Fire Point, the Ukrainian maker of Flamingo cruise missiles, the Danish Business Ministry announced on 21 October. The financing will run through EIFO, Denmark’s state export and investment fund.
Ukraine uses its Flamingo missiles to strike defense plants deep inside Russia as Moscow continues its full-scale invasion. Fire Point broke ground in December 2025 on a plant in Vojens, southern Denmark, to make solid fuel for the missiles. The project has since grown far more expensive. In August, CEO Iryna Terekh said its estimated cost had risen from €50 million to above €150 million, calling the figure “very rough.” The war, meanwhile, stands in the way of Fire Point borrowing on ordinary terms in Denmark, the ministry said. That is why the Danish state is guaranteeing the loan.
What Denmark is putting up
The guarantee covers 750 million Danish kroner, or about $112.6 million, Reuters reported. Terekh said in August that the plant’s launch had slipped to late 2027. The ministry called the deal another big step toward starting production. However, Ukrainian outlet Defender Media noted that the statement does not say directly that the loan will fund the plant.
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Ukraine’s Fire Point company is working on revolutionary system which can also transform European air defense
EIFO chief Peder Lundquist said the fund is involved in nearly 40 projects linked to Ukraine. Business Minister Martin Lidegaard said hosting a Ukrainian defense company brings Denmark knowledge, production, and partnerships. Europe’s security and freedom, he added, start in Ukraine.
Better shielded from Russian strikes
Defense Minister Jeppe Bruus said Denmark was the first country to decide to let a Ukrainian defense company set up on its soil. Production outside Ukraine, he argued, is better protected from Russian attacks. He added that Fire Point’s presence opens cooperation that could give Denmark access to technologies developed in wartime.
Denmark first said in September 2025 that Fire Point would make long-range missile fuel on Danish soil. Since then, the company has signed deals with more than a dozen European firms for FREYJA, an anti-ballistic project. It could reduce Europe’s long-term reliance on scarce US-made Patriot interceptors. Fire Point aims for a first ballistic missile intercept with it by mid-2027.
As of October, Russia has up to 700 ballistic and several thousand cruise missiles in reserve, and its 2026 state order for Geran-type drones and decoys such as the Gerbera exceeded 100,000 units, Ukraine’s military intelligence (HUR) told NV in figures the outlet published on 20 October. The missile stocks are roughly the same as HUR reported to NV in July, the outlet found.
Ukraine enters the heating season facing what it says is a Russian plan to hit 60 infrastructure sites this winter. HUR’s figures suggest Russia has the weapons for it, even after its fall mass strikes. In June, HUR said Russia could fire up to 100 ballistic missiles a month while keeping its stocks steady. Its drone output, meanwhile, is shifting to jets that are harder to shoot down.
Russia produces 110 ballistic missiles a month
Russia can make more than 200 missiles a month, 110 of them ballistic, HUR said. About 115 of its ballistic missiles are Iskander-Ms, with production of up to 65 a month. A modernized Iskander with a projected range of 550 to 700 km is in development.
At the same time, Russia holds up to 400 S-300PM and S-400 air defense missiles adapted to strike ground targets, and makes about 40 a month. Meanwhile, Kinzhal production has been temporarily paused over poor accuracy, and the capacity has gone to conventional ballistic missiles.
Most new Kalibrs go into reserve
Russia plans to make more than 80 Kh-101 cruise missiles a month and is exceeding that, though defects in releasing them from aircraft have sent some batches back to the factories.
Russia has more than 450 Kalibrs and makes about 29 a month. Because Ukrainian air defense downs them effectively, Russia sends most new ones to its strategic reserve and to equip its fleets, HUR said. It also holds more than 600 Oniks anti-ship missiles, upgraded for ground strikes, and more than 120 Zircons.
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Ukraine recovers Russia’s undamaged Geran-3 jet kamikaze drone carrying camera and live-link equipment (VIDEO)
Russia now assembles 4,000 jet drones a month
Russia holds a reserve of about 6,200 Gerans and makes about 10,000 drones a month. Its main production hub is the Alabuga special economic zone in Tatarstan.
Since summer, Russia has shifted toward turbojet drones. “The reason is the saturation of Ukraine’s Air Force with mobile fire groups that shoot down low-speed targets en masse,” HUR said. Russia now assembles about 4,000 jet drones a month, mostly Geran-4s and Geran-5s, which fly at 400 to 500 km/h. It also makes about 2,000 cheaper propeller-driven Geran-2s, which HUR said are used to wear down air defense and locate air defense positions.
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
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.
Montana (Google Earth)
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.”
Training at the Big Sky Autonomous Systems Range in Montana. (BSASR)
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.”
DOT&E
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.”
Rendering of an X-51A Waverider hypersonic weapon. Powered by a Pratt & Whitney Rocketdyne SJY61 scramjet engine, it is designed to ride on its own shockwaves and accelerate to about Mach 6. (U.S. Air Force)
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.
An interceptor launches from an Indirect Fire Protection Capability (IFPC) system operated by soldiers assigned to the 1st Battalion, 51st Air Defense Artillery Regiment, 7th Infantry Division (Multi-Domain Command Pacific), during a test at White Sands Missile Range, New Mexico, on July 28, 2026. (U.S. Army photo by Sgt. Michael Majors and White Sands Missile Range Public Affairs) Sgt. Michael Majors
The U.S. Air Force’s scramjet-powered Hypersonic Attack Cruise Missile (HACM) has finally reached the flight test phase, with at least one “release” having been carried out so far over a range in Australia. (Raytheon) Raytheon
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.”
A drone swarm returns from a mission during the XVIII Airborne Corps’ Scarlet Dragon 26-3 at Fort Bragg, N.C., Sept. 15, 2026. (U.S. Army photo by Pfc. Iliana Lopez) Pfc. Iliana Lopez
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.
(U.S. Army)
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
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.
The Houthi attack mixed together suicide drones, cruise missiles and ballistic missiles. Because these weapons travel at significantly different speeds, the drones were launched first, followed by the cruise missiles and lastly by the ballistic missiles. Reports say the entire attack on October 10, starting at around 3PM local time, lasted around 45 minutes. The […]
The U.S. Air Force’s scramjet-powered Hypersonic Attack Cruise Missile (HACM) has finally reached the flight test phase, with at least one “release” having been carried out so far over a range in Australia. HACM has suffered significant delays, and the Air Force has taken the risky step of scaling back overall testing plans to try to keep the program on schedule. The stated goal is to be able to make a decision to start rapidly acquiring HACMs in 2027.
A rendering DARPA put out during the preceding Hypersonic Air-breathing Weapon Concept (HAWC) effort. DARPA
“The U.S. Air Force, in partnership with Australia, has conducted a flight test of the Hypersonic Attack Cruise Missile (HACM) as part of our continuous work to advance long-range strike capabilities,” an Air Force spokesperson confirmed to TWZ today. “This effort is part of the Southern Cross Integrated Flight Research Experiment (SCIFiRE), a collaborative agreement built on more than 15 years of partnership between our two nations.”
“Leveraging this enduring alliance, the Royal Australian Air Force executed the release of a HACM flight test unit over a designated Australian test range, gathering crucial data to advance the program’s objectives,” the spokesperson added. “The flight was the culmination of an extensive series of tests designed to measure the missile’s performance under realistic flight conditions.”
The spokesperson did not name the test range where the “release” was conducted or say when that occurred. Whether the missile flew under its own power for any amount of time after release is unknown. What aircraft was used to carry the missile aloft is also not known. TWZ has reached out for more information.
The Air Force did say previously that it planned to conduct HACM launches in Australia. The expectation has long been that this would be done at the country’s sprawling Woomera Test Range, which provides an ideal location for extended-range flight testing activities in general. The U.S. and Australia have partnered on other hypersonic testing at Woomera in the past, as seen in the video below. The remote inland location of the range complex makes it well suited for conducting more sensitive tests away from prying eyes, as well.
The Government Accountability Office (GAO), a Congressional watchdog, has also reported in the past that RAAF F/A-18F Super Hornets would be used to conduct at least some of the HACM test launches. This would fit with today’s statement from the U.S. Air Force saying that it was the RAAF that “executed the release.” The Air Force’s initial launch platform is the F-15E Strike Eagle, though others are expected to follow.
A pair of RAAF F/A-18F Super Hornets. RAAF
To date, neither the Air Force nor Raytheon has released a confirmed picture or rendering of HACM. In 2023, the Air Force did release a picture, seen below, showing an air-breathing hypersonic cruise missile test article related to either HACM or the preceding HAWC effort.
USAF
“The missile consists of two stages, a rocket booster and a scramjet cruiser, which separates from the booster and eventually dives toward its target,” according to GAO. Scramjets do not function effectively at lower speeds, and designs powered by them require some form of initial boost to a high Mach velocity. Hypersonic speed is generally defined as anything above Mach 5, but what HACM’s peak speed might be is unknown.
Two-stage air-breathing missile-like hypersonic vehicle designs have been tested on several occasions in the past. This includes Boeing’s scramjet-powered X-51 Waverider and HyFly 2 hypersonic test vehicles, among others. The X-51 (as its name indicates) and HyFly 2 also notably had so-called ‘waverider’ configurations designed to ‘skip’ on the shockwaves generated during high-speed flight to help provide additional lift. Whether HACM might also use this principle is not known.
It’s also worth noting here that Castelion’s Blackbeard hypersonic missile also has a two-stage configuration. It remains unconfirmed whether or not the second stage of that weapon is powered, but it does not appear to be an air-breathing design either way. Castelion is currently developing an air-launched version of Blackbeard for the U.S. Navy, which is also in flight testing now, as well as a ground-launched type for the U.S. Army. You can read more about that missile here.
Scramjet-powered air vehicle designs, including aircraft and missiles, have historically proven challenging. As noted, HACM has suffered delays over the years. The original goal had been to begin flight testing in 2024, which slipped first to 2025 and then 2026.
“The HACM program is on track to conduct its first flight test in the second quarter of fiscal year 2026, but officials said there is effectively zero margin left in the schedule for the rapid prototyping effort. The program has already descoped the rapid prototyping effort from seven to five planned flight tests,” GAO said bluntly in a report published in July. “The Air Force plans to produce 13 missiles during the rapid prototyping effort, including test assets, test spares, and operational rounds.”
“If a significant flight test failure occurs, it is likely that the program will not be able to complete all five tests within the 5-year rapid prototyping timeframe,” the report continued. “According to the program, completing at least the first three flight tests is critical for informing the Air Force’s decision to initiate a rapid fielding effort and procure HACM in fiscal year 2027.”
GAO’s July report, which had a January cutoff date, noted later on that the Air Force’s target date for initiating the rapid fielding effort, more specifically, was the first quarter of Fiscal Year 2027. This fiscal period began last Thursday and runs through the end of the year. Whether the service is still aiming to keep to that part of the schedule is unclear, but it would seem extremely difficult to do so.
Another rendering of a notional hypersonic missile that has been used to illustrate discussions about HACM in the past. Raytheon via GAO
“The HACM program has taken on risk to maintain its current schedule. According to program officials, maintaining the schedule has required aggressively resequencing activities to focus almost exclusively on those necessary to support the first flight test date,” GAO’s report added. “In some cases, officials said this has involved risky strategies, such as concurrently performing parts validation testing while completing the system’s design, which could require the redesign of key parts if they fail validation testing.”
Lockheed Martin, which previously put out this rendering of a hypersonic cruise missile, had been working on HALO for the Navy before that program was cancelled. Lockheed Martin
Regardless, the U.S. military, as well as its Australian counterparts, have made it clear in the past that they view hypersonic weapons as critical for success in future conflicts, especially high-end fights, such as one in the Pacific against China. In general, air-breathing hypersonic cruise missiles offer a valuable and highly flexible way to strike targets, especially time-sensitive ones, quickly and over extended ranges. The weapon’s high speed and maneuverability drastically increase its ability to penetrate through enemy air defenses and reduce the total time an opponent has to react.
Whether or not the Air Force will be able to avoid any more major delays with HACM remains to be seen. The service’s goal to start at least limited production of HACM before the end of 2027, if not sooner, is even more ambitious now after years of schedule slips. As mentioned, officials have already acknowledged there was no more margin for error at the start of the year. There are many questions still about what form any initial fielding will take, and how that might be further impacted by the truncated testing plan.
The HACM program has at least now hit the important milestone of beginning flight testing.
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